68Th Annual Meeting ® Boston, Massachusetts 22–24 November 2015 Meeting Schedule-At-A-Glance

Home , Amitabh Bhattacharya, Andreas Acrivos, Demetri Terzopoulos, Dropleton, Joseph Saxton, Stanley Corrsin

American Physical Society | Division of Fluid Dynamics 68th Annual Meeting ® Boston, Massachusetts 22–24 November 2015 Meeting Schedule-at-a-Glance

Sunday, 22 November 08:00 – 09:57 Session A: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 09:57 – 10:20 Refreshment Break Convention Center, Second Level, Halls C & D Résumé Help Desk Open Convention Center, Second Level, Hall C 10:20 – 12:25 Session B: Presentation of Awards and DFD Fellowships Convention Center, Second Level, Auditorium and Followed by Otto Laporte Lecture and Corrsin Award Lecture Third Level, Balcony 12:25 – 13:30 Lunch (on your own) also Fluids Education Lunch Workshop Sheraton Hotel, Third Floor, Commonwealth Workshop: All the Faces of Fluid Dynamics Sheraton Hotel, Third Floor, Gardner Young Investigator Workshop Sheraton Hotel, Second Floor, Republic B Ballroom 13:30 – 14:05 Session C: Invited Lectures Convention Center, Second Level, Auditorium and Third Level, Ballroom B/C 14:05 – 14:10 Mini Break 14:10 – 16:20 Session D: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 16:20 – 16:50 Refreshment Break Convention Center, Second Level, Halls C & D Résumé Help Desk Open Convention Center, Second Level, Hall C 16:50 – 18:08 Session E: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 18:15 Buses Begin Loading for APS/DFD Reception Please bring your Boylston Street Entrance, Convention Center, Reception ticket and, if possible, do not bring your backpack. Lower Level 19:00 – 22:00 APS/DFD Reception Museum of Fine Arts, Boston Monday, 23 November 08:00 – 10:10 Session G: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 10:10 – 10:35 Refreshment Break Convention Center, Second Level, Halls C & D Résumé Help Desk Open Convention Center, Second Level, Hall C 10:35 – 12:45 Session H: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 12:45 – 13:55 Lunch (on your own) also Student Lunch Sheraton Hotel, Second Floor, Republic Ballroom Women in Fluids Networking Lunch Piatinni Café, 226 Newbury Street 13:55 – 14:30 Session J: Invited Lectures Convention Center, Second Level, Auditorium and Third Level, Ballroom B/C 14:30 – 14:45 Break 14:45 – 15:20 Session K: Invited Lectures Convention Center, Second Level, Auditorium and Third Level, Ballroom B/C 15:20 – 16:05 Refreshment Break Convention Center, Second Level, Halls C & D Résumé Help Desk Open Convention Center, Second Level, Hall C Session KP1: Technical Poster Session Convention Center, Second Level, Hall D Session KP2: Student Poster Competition (Winners announced.) Convention Center, Second Level, Hall D GFM winners announced for posters and videos. Convention Center, Second Level, Hall D 16:05 – 18:41 Session L: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 18:00 – 19:30 Meet the APS Journal Editors Reception Convention Center, Third Level, Room 300 Foyer Tuesday, 24 November 08:00 – 10:10 Session M: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms 10:10 – 10:40 Refreshment Break Convention Center, Second Level, Halls C & D Résumé Help Desk Open Convention Center, Second Level, Hall C 10:40 – 11:15 Session N: Invited Lectures Convention Center, Second Level, Auditorium and Third Level, Ballroom B/C 11:15 – 11:20 Mini Break 11:20 – 11:40 Session P: Invited Lecture – François N . Frenkiel Award Lecture Convention Center, Second Level, Auditorium Session P: Invited Lecture – Andreas Acrivos Dissertation Award Convention Center, Third Level, Ballroom B/C Lecture 11:40 – 12:50 Lunch (on your own) 12:50 – 15:26 Session R: Concurrent Sessions Convention Center & Sheraton Hotel, Session Rooms

Free WiFi is available in the Hynes Convention Center. The network is: Hynes Wireless Network. No password is required.

Instructions for Speakers, Session Chairs, and All Poster Presenters ...... 14 Useful Information ...... 5 • Registration Desk Hours / Coat Check Hours / Speaker Ready Room Hours / Exhibits and Gallery of Fluid Motion Hours • Child Care Grants, Travel Awards, and Certificates of Attendance 68th Annual Meeting of the Division of Fluid Dynamics

22 – 24 November 2015 Boston, Massachusetts Table of Contents Welcome...... 2 Local Organizing Committee...... 2 APS/DFD 2015 Officers and Committees...... 3 Useful Information Registration Desk Hours...... 5 Coat Check Hours...... 5 Child Care Grants and Travel Awards...... 5 Certificates of Attendance...... 5 Speaker Ready Room Hours...... 5 Exhibits and Gallery of Fluid Motion Hours...... 5 Résumé Help Desk...... 5 Instructions for Speakers and Session Chairs...... 5 Instructions for All Poster Session Set Ups...... 5 Reception Notes...... 5 Other Events DFD & APS Sponsored Events Fluids Education Lunch Workshop...... 6 Workshop: All the Faces of Fluid Dynamics...... 6 Young Investigator Workshop...... 7 APS/DFD Reception...... 7 Student Lunch...... 7 Women in Fluids Networking Lunch...... 8 Meet the APS Journal Editors Reception...... 8 Other Events of Interest LaVision Tomographic PIV One-Day Workshop...... 9 Geophysical Fluid Dynamics Reception...... 9 Prizes, Awards, and Fellowships...... 10 Invited Lectures, Minisymposia, and Focus Sessions...... 12 Instructions for Speakers, Session Chairs, and All Poster Presenters...... 14 Gallery of Fluid Motion Posters...... 16 (Note: KP1: Technical Poster Session and KP2: Student Poster Competition, see pages 79 – 89) Gallery of Fluid Motion Videos...... 18 Exhibitors...... 22 Session Key...... 26 Program Summary...... 27 Note: Session updates are available in the Convention Center, Second Level, Hall C and online at https://apsdfd2015.mit.edu/program. Schedule of Papers Sunday, 22 November...... 37 Monday, 23 November...... 61 KP1: Technical Poster Session...... 79 KP2: Student Poster Competition...... 88 Tuesday, 24 November...... 99 Index of Authors...... 119

Cover photo: Richard Cavalleri/Shutterstock

1 Welcome

On behalf of the Local Organizing Committee, we wel- Local Organizing Committee come you to the 68th Annual Meeting of the American Physical Society’s Division of Fluid Dynamics (DFD)! Massachusetts Institute of Technology After more than six decades of successful and continu- Triantaphyllos R. Akylas (chair) ously growing meetings across the United States, we Thomas Peacock (co-chair) are very excited to host the 2015 DFD meeting in Bos- Lydia Bourouiba Cullen Buie ton, Massachusetts. Welcome to New England and John Bush Joern Dunkel welcome to the historic city of Boston. Raffaele Ferrari Nicolas Hadjiconstantinou Anette Hosoi Ruben Juanes Since the first annual meeting of the DFD hosted by the Roger Kamm Pierre Lermusiaux Naval Ordnance Laboratory in White Oak, Maryland, Gareth McKinley Michael Triantafyllou this gathering has developed into one of the largest meetings in fluid dynamics worldwide. This year, our Brown University Kenny Breuer Baylor Fox Kemper technical program includes a record of more than 3,100 Jennifer Franck George Karniadakis contributed abstracts in 40 parallel sessions and 129 Shreyas Mandre Brad Marston entries to the Gallery of Fluid Motion. We look forward Martin Maxey Tom Powers to 140 technical posters and 30 student posters which Anubhav Tripathi Petia Vlahovska will be judged. Best poster and video prizes will be awarded during the meeting. Harvard University Michael Brenner In addition to the numerous contributed presentations, Lakshminarayanan Mahadevan we look forward to this year’s awards and invited lec- Shmuel Rubenstein Chris Rycroft tures, as well as minisymposia and focus session presentations on a few selected topics in fluid dynamics. Northeastern University Nadine Aubry Carlos Hidrovo We also welcome other special programs including our Alireza Karimi Reza H. Sheikhi Student Lunch, Young Investigator Workshop, and Fluids Education Lunch Workshop, to name a few. Boston University Finally, we hope you will enjoy the Meeting Reception James Bird Kamil Ekinci on Sunday, which will be held at the world-renowned Museum of Fine Arts, Boston. University of Massachusetts Amherst Yahya Modarres-Sadeghi Blair Perot A sincere thank you goes out to all involved with the Woods Hole Oceanographic Institution coordination of this meeting. We particularly acknowl- Claudia Cenedese Karl Helfrich edge the contributions of faculty, staff, and students from the various universities involved, as well as those Boston College Andrzej Herczynski of Peggy Holland, Monica Malouf, and Margaret Mc- Donald of Meetings and More who provided inestimable Tufts University expertise and assistance without which the organiza- Jeffrey Guasto tion of this meeting would not have been possible. We are also grateful to Donald Mewha from the American Worcester Polytechnic Institute Seong-kyun Im Physical Society for his invaluable help and patience in handling the numerous abstracts submitted to the meeting. Conference and Administrative Coordinators On behalf of our colleagues, we wish you a very pro- ductive and enjoyable meeting and a pleasant stay in Boston. Meeting Logistics Peggy Holland Monica Malouf Triantaphyllos Akylas and Thomas Peacock, Margaret McDonald on behalf of the Local Organizing Committee James Day Meetings and More Registration Scientific Program Katie McLaughlin Donald Mewha Orchid Solutions American Physical Society

2 APS/DFD 2015 Officers and Committees

Executive Committee Nominating Committee 8 members, staggered 2-year terms Chair: James Duncan (11/14 - 10/15) Said Elghobashi (12/15), Chair University of Maryland - College Park Michael Schultz (12/16), Vice-Chair John Foss (12/15) Chair-Elect: Ellen Longmire (11/14 - 10/15) Gareth McKinley (12/15) University of Minnesota - Minneapolis Samuel Paolucci (12/15) Peter Schmid (12/16) Vice Chair: Lance Collins (11/14 - 10/15) Yukio Kaneda (12/16) Cornell University Alison Marsden (12/16)

Past Chair: Nadine Aubry (11/14 - 10/15) Northeastern University Program Committee 8 members, staggered 3-year terms Councilor: Ann Karagozian (01/15 - 12/18) Ellen Longmire, Chair University of California - Los Angeles Lance Collins, Vice-Chair Jonathan Posner (12/15) Secretary/Treasurer: Karen Flack (11/12 - 10/15) Lian-Ping Wang (12/15) US Naval Academy Ranganathan Narayanan (12/15) Patrice Le Gal (12/17) Member-at-Large: Jonathan Freund (11/12 - 10/15) Petia Vlahovska (12/17) University of Illinois - Urbana Roseanna Zia (12/17)

Member-at-Large: Beverley McKeon (11/12 - 10/15) California Institute of Technology Fellowship Committee 8 fellows, staggered 2-year terms Member-at-Large: Paul Linden (11/13 - 10/16) Lance Collins, Chair University of Cambridge Ellen Longmire, Vice-Chair Hyung Jin Sung (12/15) Member-at-Large: Robert Moser (11/13 - 10/16) P. K. Yeung (12/15) University of Texas, Austin Arne Pearlstein (12/16) Jim Wallace (12/16) Member-at-Large: Shelley Anna (01/15 - 12/17) Z. Jane Wang (12/16) Carnegie Mellon University Serafim Kalliadasis (12/16)

Member-at-Large: John Dabiri (01/15 - 12/17) Stanford University External Affairs Committee 8 members, staggered 3-year terms Beverley McKeon, Chair (2016) Ken Christensen, Vice Chair (2016) Oleg V. Vasilyev (12/15) Anne Staples (12/15) Jun Sakakibara (12/15) Anya Jones (12/17) Mihailo Jovanovic (12/17) Jens Fransson (12/17)

3 APS/DFD 2015 Officers and Committees

Fluid Dynamics Prize Selection Committee on Media & Committee Science Relations 8 members, staggered 2-year terms 6 members, staggered 2-year terms Mike Plesniak, Chair (12/15) Bud Homsy, Chair (12/15) Kenny Breuer, Vice-Chair (12/16) Phil Marcus, Vice Chair (12/16) Jimmy Feng (12/15) Tadd Truscott (12/16) Ron Adrian (12/16) Nicole Sharp (12/16) Jose Wesfreid (12/15) Andrew Belmonte (12/16) Harindra “Joe” Fernando (12/16) Sandip Ghosal (12/16) Genevieve Comte-Bellot, 2014 Award Winner Shelley Anna (12/16) Committee on Educational & Career Outreach Corrsin Award Selection 6 members, staggered 2-year terms Committee Hao Lin (12/15) 8 members, staggered 2-year terms Carlos Hidrovo (12/16) Paul Neitzel, Chair (12/15) Frank G. Jacobitz (12/15) Ugo Piomelli, Vice Chair (12/16) Carolyn Ren (12/15) Demetrios Papageorgiou (12/15) Reza Sheikhi (12/15) Yuriko Renardy (12/15) Shuhuai Yao (12/16) Steven Wereley (12/15) Eberhard Bodenschatz, 2014 Award Winner Kate Stebe (12/16) Division Website Development Gary Leal (12/16) Officer Jeff Eldredge Acrivos Award Selection Committee Gallery of Fluid Motion 7 members, staggered 2-year terms Coordinator “Bala” Balachandar, Chair (12/15) Ken Kiger John Dabiri, Vice Chair (12/16) Arezoo Ardekani (12/15) Daniel Haworth (12/15) Pavlos Vlachos (12/15) Eva Kanso (12/16) Ching-Long Lin (12/16)

Frenkiel Award Selection Committee 7 members, staggered 2-year terms Sutanu Sarkar, Chair (12/15) Emmanuel Villermaux, Vice Chair (12/16) Peyman Givi (12/15) Arne Johansson (12/15) Rama Govindarajan (12/16) Jonathan Freund (12/16) Subhas Venayagamoorthy, 2014 Award Winner

4 Useful Information

Events will be held at the Hynes Convention Center or the Sheraton Hotel as noted under the event description.

Registration Desk Hours Résumé Help Desk Convention Center, Second Level, Hall C Lobby Sunday – Tuesday (during Refreshment Breaks) Saturday, 21 November 13:00 – 20:00 Convention Center, Second Level, Hall C Sunday, 22 November 07:00 – 17:00 Organized by the Committee on Educational and Monday, 23 November 07:30 – 17:00 Career Outreach. Point of Contact: Carolyn Ren Tuesday, 24 November 07:30 – 15:30 ([email protected]) Are you ready to apply for faculty, postdoc and research positions? Members of the DFD experienced in hiring Coat Check Hours would like to help you out by taking a look at your C.V. Convention Center, Plaza Level, Lobby and a sample cover letter or research/teaching state- Sunday, 22 November 07:00 – 19:30 ments. We can give you tips about most effectively Monday, 23 November 07:30 – 20:00 presenting yourself in today’s extremely competitive job Tuesday, 24 November 07:30 – 16:00 market. How will you stand out from hundreds of other applicants? Make sure your résumé isn’t what’s holding you back! The table will be staffed during the refresh- Child Care Grants and Travel ment breaks, and there will be a sign-up sheet at the Awards desk for appointment times. If you are a recipient of a Child Care Grant or Travel Award, please go to the APS/DFD Conference Man- agement Desk located at Registration any time after Instructions for Speakers and Noon on Sunday, 22 November. Session Chairs See page 14. Certificates of Attendance If you would like a Certificate of Attendance, please Instructions for All Poster go to the APS/DFD Conference Management Desk Session Set Ups located at Registration any time after Noon on Sunday, Gallery of Fluid Motion Posters; KP1: Technical Poster 22 November. Session; and KP2: Student Poster Competition. See page 15. Speaker Ready Room Hours Convention Center, Third Level, Rooms 301 and 303 Reception Notes Saturday, 21 November 13:00 – 20:00 1. Please make sure you have your Reception Sunday, 22 November 07:00 – 18:15 ticket with you. Tickets will be collected at the Monday, 23 November 07:00 – 18:15 Museum. Tuesday, 24 November 07:00 – 14:00 2. Please get your checked items before the Reception Sunday night. The Convention Center Exhibits and Gallery of Fluid Coat Check will NOT be open after the Motion Hours Reception. 3. It will be easier for you if you do not bring your Convention Center, Second Level, Exhibit Hall C backpack to the Reception, where you will either and D have to carry it all evening or possibly face lines Sunday, 22 November 07:00 – 17:00 at Coat Check at the Museum. However, please Monday, 23 November 07:30 – 17:00 do not be late for the buses by going back to your Tuesday, 24 November 07:30 – 11:00 hotel to drop it off after the last session ends Exhibit Hall C showcases products from industry and at 18:08. government sponsors. Exhibit Hall D houses the GFM, Technical, and Student Competition poster displays, and the GFM videos. Please look at the Gallery of Fluid Motion and Video Listings found on pages 16–21 and the Technical Post- er and Student Poster listings found on pages 79 – 89. 5 Other Events

These events required registration in advance unless otherwise indicated. To check for remaining openings, please go to the Conference Management Desk at Registration. Events are FREE unless stated otherwise.

DFD & APS SPONSORED EVENTS

Sunday, 22 November 2015 Fluids Education Lunch Workshop Day/Date/Time: Sunday, 22 November, 12:25 – 13:30 Location: Sheraton Hotel, Third Floor, Commonwealth Contact: Carlos Hidrovo, Northeastern University ([email protected]) This workshop will provide an opportunity for fluids educators to discuss topics of mutual interest. Participants will have the chance to both share their successful techniques and learn from others during small group discussion at their tables. We will harvest “Best of the Table” highlights at the end of the workshop so that everyone in attendance comes away with something they can implement immediately in the classroom. A complimentary lunch will be provided. Program Overview • Prof. Brian Storey, Olin College of Engineering, “Introduction and overview of current trends in science and engineering pedagogy.” • Small group discussion at each table: 1) How much engagement is enough? We have a range in the community from traditional lecture to fully flipped classrooms – where on the spectrum are you? Where would you like to be? 2) What’s the right balance between rigorous material coverage, development of general analytical skills, and student driven self-learning? 3) What in-class active learning activities have you used? Share some of your favorites with your group, and generate a list to share with the larger group. 4) A lot of undergraduates find their first fluids class a challenging one – how can we overcome their initial fear towards fluids? 5) Are there any online fluids education resources that you find particularly helpful? Share some of your favorites with your group, and generate a list to share with the larger group. 6) Any other discussion topic your group prefers. • Small group reports; end of workshop.

Workshop: All the Faces of Fluid Dynamics Sponsored by: DFD Committee on Media and Science Relations Day/Date/Time: Sunday, 22 November, 12:25 – 13:30 Location: Sheraton Hotel, Third Floor, Gardner Contact: David Hu, Georgia Tech ([email protected]) Four junior faculty from diverse backgrounds will talk about their personal experiences as scientists in an increasingly diverse community. Speakers will include MIT mechanical engineer Cullen Buie, Penn mechanical engineer Paulo Arratia, and UC Davis mathematician Becca Thomases. The event will be emceed by Georgia Tech biomechanic David Hu, a representative from the DFD press relations committee. We will have 30 minutes of informal talks, 30 minutes of question and answer period, and 30 minutes of mingling. The audience will learn about how to recognize stereotypes and unconscious bias in their everyday lives, and how to react to them. This workshop will help to give under-represented members of APS, especially students, a safe place where their voice can be heard. Lunch will be served for the first 50 attendees.

6 Other Events

Young Investigator Workshop Sponsored by: Boston University Mechanical Engineering Day/Date/Time: Sunday, 22 November, 12:25 – 13:30 Location: Sheraton Hotel, Second Floor, Republic B Ballroom Contact: James Bird, Boston University ([email protected]) Program directors from NSF, AFOSR and ONR, will lead a discussion on their agencies’ programs for early career researchers. A boxed lunch will be served. Participants interested in attending the Workshop must be registered for the DFD meeting and be eligible for at least one of the awards. Eligibility requirements and additional information on the CAREER Program and the Young Investigator Programs can be found at http://tinyurl.com/NSF-CAREER, http://tinyurl.com/AFOSR-YIP, and http://tinyurl.com/ONR-YIP.

APS/DFD Reception Day/Date/Time: Sunday, 22 November, 19:00 – 22:00 Location: Museum of Fine Arts (MFA), Boston, 465 Huntington Avenue Boston’s Museum of Fine Arts is the outstanding location for this year’s reception. MFA is one of the top art museums in the world with a collection that encompasses nearly 450,000 objects representing all periods and cultures. During the reception, you will be able to walk through the Museum, looking at the artwork and enjoying this magnificent building while it is open only to APS/DFD. The reception is included in the registration fee for those who register as APS Members, Nonmembers, Graduate Students, and Retired Members. Additional tickets may be purchased for $120 each. Complimentary transportation to and from the reception will be provided between the Hynes Convention Center and the Museum of Fine Arts, Boston. Buses begin departing at 18:15 from the Boylston St. entrance at the Convention Center on the Lower Level. It is approximately a 15 minute walk to the Museum. Reception Notes 1. Please make sure you have your Reception ticket with you. Tickets will be collected at the Museum. 2. Please get your checked items before the Reception Sunday night. The Convention Center Coat Check will NOT be open after the Reception. 3. It will be easier for you if you do not bring your backpack to the Reception, where you will either have to carry it all evening or possibly face lines at Coat Check at the Museum. However, please do not be late for the buses by going back to your hotel to drop it off after the last session ends at 18:08.

Monday, 23 November 2015 Student Lunch Sponsored by: The Woods Hole Oceanographic Institution Day/Date/Time: Monday, 23 November, 12:45 – 13:55 Location: Sheraton Hotel, Second Floor, Republic Ballroom Contact: Karl Helfrich, Woods Hole Oceanographic Institution ([email protected]) 1. Shelly Anna, Mechanical Engineering, Chemical Engineering, Carnegie Mellon University. Microfluidics, transport and mechanics of fluid interfaces, and emulsions & foams. 2. Bob Behringer, Department of Physics, Duke University. Granular materials flow easily under many circumstances, but just as easily they 'freeze' or 'jam'. Important questions include: what are the nature of the flows near jamming, and what controls changes between granular fluids and solids? 3. Phil Marcus, Mechanical Engineering, University of California, Berkeley. Prof. Marcus uses CFD to analyze astrophysical and planetary flows and recently re-purposed our CFD algorithms to create a new 3D morphing technology that allows us to carry out optimal vehicle design (and CGI and animation in the movies). 4. George Lauder, Museum of Comparative Zoology, Harvard University. Biofluid dynamics and biorobotics of aquatic locomotion. Student Lunch (continued on next page) 7 Other Events

Student Lunch (continued) 5. Fotis Sotiropoulos, Department of Civil Engineering, University of Minnesota. Simulation-based engineering science for tackling fluid mechanics challenges in renewable energy and environmental applications. 6. Harry Swinney, Department of Physics, University of Texas. Tips on writing papers" Every scientist wants his or her paper to be read, yet most scientific papers attract few readers. The tips discussed here are based on observations of how scientists select papers to read and how they decide whether or not to continue reading. 7. Keith Julien, Department of Applied Mathematics, University of Colorado at Boulder. Dr. Julien has extensive experience in the modeling and computation of dynamics and instabilities processes for geophysical and astrophysical flows. Examples include protoplanetary disks, stably and unstably stratified flows (such as penetrative convection, rotating and magnetoconvection), turbulent shear flows, and boundary effects in turbulent convection. 8. Alison Marsden, Mechanical and Aerospace Engineering, University of California, San Diego. Prof. Marsden’s research focuses on cardiovascular blood flow simulations, patient specific modeling, as well as numerical methods for multiscale modeling, optimization, and uncertainty quantification applied to pediatric and adult cardiovascular disease. 9. Ann Karagozian, Department of Mechanical and Aerospace Engineering, UCLA. Prof. Ann Karagozian’s research interests lie in the control of instabilities in non-reactive and chemically reactive flows, with applications to aircraft and rocket propulsion systems. 10. Tom Mullin, School of Physics and Astronomy, University of Manchester. Experimental investigations of hydrodynamic instabilities and transition to turbulence and experimental studies of the motion of particles in low Reynolds number flows. 11. Eckart Meiburg, Department of Mechanical Engineering, University of California at Santa Barbara. Academic careers in CFD: Opportunities and challenges. 12. Ken Melville, Scripps Institution of Oceanography, University of California, San Diego. From rarefied gas dynamics to physical oceanography and air-sea interaction: the flexibility of a career in fluid dynamics. 13. Parviz Moin, Department of Mechanical Engineering, Stanford University. High fidelity computation of turbulent flows, computational and computer science. Algorithms for prediction and engineering analysis of multi-physics turbulent flows: combustion, two-phase flows, aero-acoustics. 14. Christophe Clanet, Institut de Recherche sur les Phénomènes Hors Equilibre (IRPHE), Universités d'Aix- Marseille. Sports physics.

Women in Fluids Networking Lunch Supported by: APS Committee on the Status of Women in Physics Day/Date/Time: Monday, 23 November, 12:45 – 13:55 Location: Piattini Cafe, 226 Newbury Street Contact: Leah Mendelson ([email protected]) Join us for this family-style networking lunch for female students, postdoctoral researchers, and faculty. For late registration, please email Leah Mendelson ([email protected]). Space is limited. Registration and payment of $20 are required in advance.

Meet the APS Journal Editors Reception (Registration is NOT required for this event.) Day/Date/Time: Monday, 23 November, 18:00 – 19:30 Location: Convention Center, Third Level, Room 300 Foyer The Editors of the APS journals invite you to join them in conversation and refreshments. The Editors will be available to answer questions, hear your ideas, and share concerns about the journals. All are welcome.

8 Other Events

OTHER EVENTS OF INTEREST

Saturday, 21 November LaVision Tomographic PIV One-Day Workshop Day/Date/Time: Saturday, 21 November 2015, 09:00 – 16:00 Location: Sheraton Hotel, Third Floor, Commonwealth Contact: Callum Gray, PhD, 734-485-0913 ([email protected]) To register go to http://lavisiontomopiv.eventbrite.com The one-day workshop will cover the base principles of tomographic PIV along with many of the practical considerations in its implementation. Imaging theory that relates measurement volume to working distance and aperture will be examined along with methods used to determine optimum seeding density and how that relates to final spatial velocity resolution. Volume self-calibration and various reconstruction algorithms will be presented. 3D cross-correlation, velocity extraction and data post-processing will be covered. A brief overview of several newly developed processing techniques will be discussed, as well as practical considerations and best practices gleaned from a range of application areas. Finally, a range of measurement cases will be shown. Complimentary breakfast and lunch will be provided. If you have an interest in tomographic PIV and would like to participate please send an email to [email protected]. A door prize drawing for an iPad will be made in the afternoon for those registered to attend.

Monday, 23 November Geophysical Fluid Dynamics (GFD) Reception Supported and Organized by the Woods Hole Oceanographic Institution Day/Date/Time: Monday, 23 November, 19:00 – 20:30 Location: Sheraton Hotel, Second Floor, Republic Ballroom An open reception for alumni and friends of the Geophysical Fluid Dynamics (GFD) Program.

9 Prizes, Awards, and Fellowships

Sunday, 22 November Stanley Corrsin Award Lecture Session B1.00003: 11:40 Welcome, Presentation of Awards and DFD Convention Center, Second Level, Auditorium and Fellowships Third Level, Balcony Session B1.00001: 10:20 Chair: Paul Neitzel, Georgia Institute of Technology Convention Center, Second Level, Auditorium and Third Level, Balcony 2015 Stanley Corrsin Award Recipient: Chair: James Duncan, University of Maryland Michael Graham, University of Wisconsin-Madison Collide and Conquer: Flow-Induced Segregation in Otto Laporte Lecture Blood and Other Multicomponent Suspensions Session B1.00002: 10:55 Convention Center, Second Level, Auditorium and Michael Graham, University of Wisconsin-Madison, is Third Level, Balcony the fifth recipient of the Stanley Corrsin Award which Chair: Mike Plesniak, George Washington University “recognizes and encourages a particularly influential contribution to fundamental fluid dynamics.” The 2015 Fluid Dynamics Prize Recipient: citation reads: “For novel research that provided fresh Morteza Gharib, California Institute of Technology perspectives and laid the groundwork for the nonlinear In Light of Fluid Mechanics dynamics of complex and multiphase fluids, including the interaction between polymer dynamics and turbu- Morteza Gharib, California Institute of Technology, is lence, and the microhydrodynamics of complex and the recipient of the 2015 Fluid Dynamics Prize, which biological fluids.” recognizes major contributions to fundamental fluid dynamics made during a career of outstanding work. The Stanley Corrsin Award is supported by an endow- The citation reads: “In recognition of his seminal con ment fund contributed by the Division of Fluid Dynamics tributions to measurement techniques in experimental and held by the APS. fluid mechanics, elucidation of governing physical principles in flow-structure interactions and vortex dynamics, and creative application of these concepts Tuesday, 24 November to a variety of important problems in biological fluid dynamics and beyond.” François N. Frenkiel Award Lecture Session P1: 11:20 The Fluid Dynamics Prize was established in 1979 with Convention Center, Second Level, Auditorium support from the Office of Naval Research. In 2004, Chair: Sutanu Sarkar, University of California, the Otto Laporte Award was combined with the Fluid San Diego Dynamics Prize so that the Division of Fluid Dynamics would have a single major prize – the Fluid Dynamics 2015 François N. Frenkiel Award Recipients: Prize. The prize is now supported by the Division of Diego Lopez, LMFA, INSA de Lyon Fluid Dynamics, Friends of Otto Laporte, and the Eric Lauga, University of Cambridge American Institute of Physics journal, Physics of Fluids. For their paper: Dynamics of Swimming Bacteria at Complex Interfaces. Physics of Fluids Volume 26, In 2004, the DFD Executive Committee decided unani- 071902 (2014) mously to call the lecture given by the Fluid Dynamics Prize recipient, the Otto Laporte Lecture. The rationale for this decision was to continue to honor the memory Andreas Acrivos Dissertation Award Lecture of one of the DFD’s founding members, as was intend- Session P34: 11:20 ed by those who originally funded the lectureship in Convention Center, Third Level, Ballroom B/C his name. Also, this decision honors the many distin- Chair: Sivaramakrishnan Balachandar, University of guished colleagues who were the Otto Laporte Florida Lecturers in earlier years of the division, and the Otto Laporte Awardees after the lecture was made an 2015 Andreas Acrivos Dissertation Award APS Award in 1985. Recipient: Sujit Datta, California Institute of Technology Getting Out of a Tight Spot: Physics of Flow Through Porous Materials

10 Prizes, Awards, and Fellowships

2015 Fellows: Division of Fluid Omar Matar, Imperial College London Dynamics For important contributions to interfacial fluid dynamics in the presence of surfactants, nanoparticles, and Stuart Dalziel, University of Cambridge electric fields, using theory and computation, and with For important contributions to experimental techniques applications in industrial and daily life settings. and experimental understanding of stratified and rotating fluids, and for influential directorship of the Batch- Igor Mezic, University of California, Santa Barbara elor Laboratory and mentoring of young scientists. For fundamental contributions to the theory of three- dimensional chaotic advection, measures and control of Anne De Wit, Université Libre de Bruxelles mixing, and development of a spectral operator theory For pioneering contributions to our understanding of the approach to decomposition of complex fluid flows. coupling between chemical reaction, hydrodynamics, and pattern formation driven by coupled reacting- Joseph Niemela, International Center for Theoretical hydrodynamic systems. Physics, Trieste For significant contributions to high-precision heat Jerzy Floryan, University of Western Ontario transport measurements at very high Rayleigh numbers For seminal illumination of the critical influence of in cryogenic Rayleigh-Bénard convection, and pioneer- surface topography and heating on surface drag; and ing applications of low-temperature techniques to the onset of shear-, centrifugal-, buoyancy-, and studies of instabilities and turbulence. parametric-resonance driven instabilities; and their characterization. Leonid Pismen, Technion For pioneering and ingenious contributions to funda- Guowei He, Chinese Academy of Sciences mental fluid dynamics, particularly interfacial flows, For fundamental contributions to understanding space- dynamics of moving contact lines, and the analysis of time correlations in turbulent flows and development of instabilities and pattern formation in diverse systems. time-accurate models for large-eddy simulation, and for leadership in fluid dynamics research in China. Troy Shinbrot, Rutgers University For creative and thought-provoking work on chaos, fluid Jeffrey Koseff, Stanford University mixing, and granular flows. For pioneering contributions in understanding lid- driven cavity flow and transport phenomena in coupled Todd Squires, University of California, Santa Barbara physical-biological systems, and seminal contributions For advancing the quantitative and qualitative under- to the theory of stratified turbulence and internal wave standing of fundamental processes in microfluidics and breaking. nonlinear electrokinetics, colloidal hydrodynamics, and active and nonlinear microrheology of bulk materials Satish Kumar, University of Minnesota and complex fluid interfaces. For fundamental contributions to interfacial and non- Newtonian fluid mechanics and for exemplary leader- Federico Toschi, Eindhoven University of Technology ship in the engineering science of liquid-applied coating For lasting contributions to direct numerical simulations and printing processes. of complex flows and turbulence, and to the understanding of fully developed turbulence and turbulent Viswanathan Kumaran, Indian Institute of Science two-phase flow. For studies of transition to turbulence in flows past soft surfaces at moderate Reynolds numbers, including Xiaohua Wu, Royal Military College of Canada asymptotic and numerical analyses, and experimental For pioneering direct numerical simulations of pipe and characterization of instabilities, turbulence, and ultrafast boundary layer flows, from a laminar state, through mixing. transition, to a fully-developed turbulent state; and for generating striking and insightful visualizations. George Lauder, Harvard University For fundamental contributions to understanding of aquatic propulsion in fishes through experimental hydrodynamics.

11 Invited Lectures, Minisymposia, and Focus Sessions

Invited Lectures Invited Session K1 The 2015 annual meeting will feature the following eight 14:45, Convention Center, Second Level, Auditorium invited lectures, each pair presented in two parallel ses- Chair: Gareth McKinley, Massachusetts Institute of sions. Each invited lecture will be thirty minutes long, Technology followed by five minutes for questions. Jacco Snoeijer, University of Twente and Eindhoven University of Technology Sunday, 22 November Flow Near Singular Elastic Interfaces: Lubrication, Wetting and Cusps Invited Session C1 13:30, Convention Center, Second Level, Auditorium Chair: Andrzej Herczynski, Boston College Invited Session K34 14:45, Convention Center, Third Level, Ballroom B/C Keith Moffatt, DAMTP, University of Cambridge Chair: Martin Maxey, Brown University Soap Film Dynamics and Topological Jumps Under Continuous Deformation Sivaramakrishnan Balachandar, University of Florida Instability and Turbulence of Propagating Particulate Flows Invited Session C34 13:30, Convention Center, Third Level, Ballroom B/C Chair: Anette Hosoi, Massachusetts Institute of Technology Tuesday, 24 November

George Lauder, Harvard University Invited Session N1 Fish Locomotion: Insights from Both Simple and 10:40, Convention Center, Second Level, Auditorium Complex Mechanical Models Chair: Patrice Le Gal, CNRS

Michael Le Bars, IRPHE, CNRS and Aix-Marseille University, France Monday, 23 November Flows Driven by Libration, Precession and Tides in Planetary Cores Invited Session J1 13:55, Convention Center, Second Level, Auditorium Chair: Kenny Breuer, Brown University Invited Session N34 10:40, Convention Center, Third Level, Ballroom B/C Petia Vlahovska, Brown University Chair: John Kim, University of California, Los Angeles Microhydrodynamics of Deformable Particles: Surprising Responses of Drops and Vesicles to Uniform Thomas Bewley, UCSD Flow Control & Coordinated Electric Field or Shear Flow Robotics Labs New Methods for State Estimation and Adaptive Obser- vation of Environmental Flow Systems Leveraging Co- Invited Session J34 ordinated Swarms of Sensor Vehicles 13:55, Convention Center, Third Level, Ballroom B/C Chair: Colm-cille P. Caulfield, Cambridge University

Richard Kerswell, Bristol University Using Optimisation to Identify the “Best” Way to Trigger Flow Transition

12 Invited Lectures, Minisymposia, and Focus Sessions

Minisymposia Focus Sessions The 2015 annual meeting will feature the following mini- This year’s program includes four Focus Sessions symposia. Some minisymposium presentations are 13 on two topics. Unlike Minisymposia, they consist of minutes and others are 26 minutes long. presentations of normal length, only some of which are solicited by the organizers. Monday, 23 November Sunday, 22 November Session G37 08:00-10:10 Focus Session: Session D37 Sheraton Hotel, Second Floor, Back Bay Ballroom A 14:10 – 16:20 Sheraton Hotel, Second Floor, Back Bay Ballroom A Minisymposium: Hydraulic Fracturing Chair: Sungyon Lee, TAMU Electro-Hydro-Dynamics of Drops, Vesicles and Membranes I Chair: David Saintillan, University of California - Session L37 San Diego 16:05 – 18:41 Sheraton Hotel, Second Floor, Back Bay Ballroom A Focus Session: Session E37 Minisymposium: Cavitation in Soft Tissue 16:50 – 18:08 Chair: E. Johnsen, University of Michigan Sheraton Hotel, Second Floor, Back Bay Ballroom A

Electro-Hydro-Dynamics of Drops, Vesicles and Session L41 Membranes II 16:05 – 18:41 Chair: David Saintillan, University of California - Sheraton Hotel, Second Floor, Constitution San Diego Ballroom A

Russell Donnelly Minisymposium Chair: K.R. Sreenivasan, New York University Tuesday, 24 November

Focus Session: Session M40 08:00 – 10:10 Tuesday, 24 November Sheraton Hotel, Second Floor, Back Bay Ballroom D

Session R41 Reconfiguration I 12:50 – 15:26 Chair: Frederick Gosselin, Ecole Polytechnique de Sheraton Hotel, Second Floor, Constitution Montreal Ballroom A

Minisymposium on Turbulence in Honor of Focus Session: Session R40 John L. Lumley 12:50 – 15:13 Chair: Nadine Aubry, Northeastern University Sheraton Hotel, Second Floor, Back Bay Ballroom D

Reconfiguration II Chair: Mitul Luhar, University of Southern California

13 Instructions for Speakers, Session Chairs, and All Poster Presenters

1. Speakers should arrive at least 10 minutes prior to the start of the session and introduce themselves to the Session Chair.

2. A monitor in each room will be used to time the sessions. This timing will be strictly enforced by the Session Chair.

3. Contributed papers are limited to 10 minutes with 2 additional minutes for discussion. This is followed by 1 minute for transition to the next paper and introduction of the next speaker. During the talk, the monitor will indicate at 8 minutes that the speaker has to finish in 2 minutes. At 10 minutes, it will indicate that the speaker’s presentation time is over. At 12 minutes, it will indicate that transition to the next speaker must occur.

4. In many but not all cases this year, a minisymposium talk is 26 minutes long, including questions and transition. Please check the schedule to see if yours is a 13 or 26 minute session. The 26 minute minisymposium talks will consist of 20–22 minutes for the presentation with 3–5 minutes for discussion and 1 minute for transition. However, note that the time monitor in the room will keep the regular 13 minute schedule.

5. The Otto Laporte and Stanley Corrsin Lectures are 40 minutes with 5 additional minutes for discussion (total 45 minutes). Invited lectures are 30 minutes long with an additional 5 minutes for discussion (total 35 minutes). The Andreas Acrivos Dissertation Award Lecture and François Frenkiel Award Lectures are 17 minutes with 3 additional minutes for discussion (total 20 minutes).

6. Each presentation room is equipped with an LCD projector, screen, lavalier microphone, and pointer. Speakers must provide their own laptop computer. Macintosh users should provide their own adaptor to connect their laptop to the projector. Speakers are responsible for procurement and cost of renting any additional AV equipment. Also note that the APS is not responsible for the security of any personal computers.

7. There is very little time to recover from an AV malfunction, should one occur. Please check for the following common reasons for malfunctions before your presentation: • Meeting room projectors will have 1024 by 768 resolution. Please set your laptop resolutions to 1024 by 768 or lower. Your images will not display properly if your laptop resolution is higher than the projector’s. • Set the power profile, monitor profile, and screensaver on your laptop to turn off the sleep/hibernate mode. Your laptop will usually revert to its default resolution if it goes into sleep/hibernate mode. • Animations and equations in PowerPoint are not necessarily compatible across different versions. If you load your presentation on to a different computer, please check that it displays correctly. • Show up ten minutes before the session starts, and ask the student volunteer in the room to connect your laptop to the six-way switch; do not do so by yourself. • Macintosh users should bring their own adaptor to connect their laptop to the projector. • Two Speaker Ready Rooms staffed by technicians are provided for your use. Please test your presentations and confirm your laptop settings in the Speaker Ready Room prior to your talk.

Please Note: Speaker Ready Rooms are located in the Convention Center, Third Level, Rooms 301 and 303.

14 Instructions for Speakers, Session Chairs, and All Poster Presenters (continued)

Additional Instructions for Session Chairs: 1. Please arrive in the presentation room at least 10 minutes prior to the session start time. Just before the session begins, briefly introduce yourself and explain the timing system to the audience.

2. Start the session on time. Announce the first abstract and author when the monitor timing systemsignals the beginning of the talk.

3. Strictly adhere to the timing signals. The purpose of these timing signals is to allow attendees to move from one session to another and to be able to rely on the exact time of each presentation as listed in the program. Speakers must be asked to stop when their allotted time is up.

4. Please check the Session Updates (found in the Convention Center, Second Level, Hall C or at https://apsdfd2015. mit.edu/program) and program agenda for your session. If a presentation has been withdrawn or should a speaker fail to appear, allow the preceding discussion to continue, or suspend the session until it is time for the next scheduled abstract. You may allow a speaker who misses his scheduled time to speak at the end of the session if time allows.

5. All meeting rooms will have a student volunteer to assist you with running the session.

Instructions for Presenters of Gallery of Fluid Motion Posters, Technical Poster Session, and Student Poster Competition Set-up: Please note there are different locations depending on your poster category. Double check that you are putting your poster in the right location. There will be a central information and supply table in Exhibit Hall D.

Boards will be in place and numbered by 13:00 on Saturday, 21 November. Entries may be put up between 13:00 and 20:00 on Saturday evening, 21 November, or between 07:00 and 09:00 on Sunday, 22 November.

• Refer to the poster listing for poster number. • A poster is to be mounted in the numbered space that has been reserved for it and may not extend into the adjacent space. • You will have a little less than one-half of an 8-foot long x 4-foot high poster board for each entry, i.e., 45″ x 45″, available for mounting. • Velcro and pushpins will be provided. Presenters must bring any other supplies needed to mount their posters.

Presentation: Poster authors must be by their board for the Technical Poster Session and Student Poster Competition on Monday, 23 November from 15:20 – 16:05.

Dismantling: Presenters must dismantle their posters by noon on Tuesday, 24 November. After that they will be discarded.

15 Gallery of Fluid Motion

Gallery of Fluid Motion Hours Sunday, 22 November 07:00 – 17:00 Monday, 23 November 07:30 – 17:00 Tuesday, 24 November 07:30 – 11:00 Convention Center, Second Level, Hall D The 33rd Annual Gallery of Fluid Motion consists of computational and experimental still images (posters) and videos submitted by attendees. A panel selects outstanding entries based on artistic value, scientific content, and originality. The winning entries will be displayed at the Annual APS Meeting in March 2016. The award-winning entries will be announced at 15:20 on Monday, 23 November, by the Gallery of Fluid Motion Video display on the Second Level, Exhibit Hall D. Posters and videos are assigned a number at the time of submission. A skip in the sequential numbering indicates that a poster or video has been withdrawn. Please note that the posters and videos can also be viewed online at gfm.aps.org.

Posters P0009. Interaction of water with hydrophobic and hydrophilic surfaces P0001. Star shaped drops Graham Scott, Ian Kowalok, Michaela Helble, S. M. Hasheminasab, Amirkabir University of Scott Lehman, Brenden Epps, Dartmouth Technology; Saman Lak, M. Amin Tajik, College National Organization for Development of Exceptional Talents P0010. Dye flow through a paper microfluidic chip Amaris De La Rosa-Moreno, Gautham Prakash, P0002. Losing the internal compass: asthmatic cilia Brenden Epps, Dartmouth College Janna Nawroth, Remi Villenave, Harvard University P0011. Hairpin-packed “turbulent spots” deep inside the fully-turbulent flat-plate boundary P0003. Vorticity separations as viscous flow past a layer wedge Xiaohua Wu, Royal Military College of Canada; Ling Xu, University of Michigan James Wallace, University of Maryland; Parviz P0004. Cohesive structures in the rapidly rotating Moin, Stanford University tilted f-plane P0012. Hairpin forest in the upper region of the Derek Driggs, University of Colorado-Boulder fully-turbulent flat-plate boundary layer P0005. Interface instability of two-phase ferrofluid Xiaohua Wu, Royal Military College of Canada; flows in rectangular microchannels Parviz Moin, Stanford University; James Feng Bai, Cheng Wang, Missouri University of Wallace, University of Maryland Science and Technology P0013. Dynamics of water droplet at the nanoscale P0006. Ignition and propagation of premixed Qi Liu, National University of Singapore; Fong methane flame by successive laser-induced Yew Leong, A*STAR Institute of High breakdowns Performance Computing; Zainul Aabdin, Lydia Wermer, Seong-kyun Im, Worcester Utkarsh Anand, National University of Polytechnic Institute; Moon Soo Bak, Singapore; Tran Si Bui Quang, A*STAR Institute Sungkyunwan University of High Performance Computing; Utkur Mirsaidov, National University of Singapore P0007. A graphical representation of the spectral proper orthogonal decomposition P0014. Wind, water, and pollen - chaotic mixing in a Moritz Sieber, Kilian Oberleithner, C. Oliver puddle of water Paschereit, Hermann-Föttinger-Institut, Kaare H. Jensen, Technical University of Technische Universität Berlin; Alexander Kuhn, Denmark Hans-Christian Hege, Zuse Institute Berlin P0015. Wave fields of walking droplets P0008. Drop floating on a granular raft Mads Rode, Jacob Madsen, Anders Andersen, Etienne Jambon-Puillet, Suzie Protiere, Institut Technical University of Denmark Jean Le Rond d’Alembert, Sorbonne Universites

16 Gallery of Fluid Motion

P0016. Dynamics of freely-falling thin disks P0029. Three-dimensional velocimetry in the wake Shashank Khurana, Cunbiao Lee, Peking of an undulatory swimmer University Francisco Huera-Huarte, Universitat Rovira i Virgili; Veronica Raspa, Benjamin Thiria, Ramiro P0017. Convectons Godoy-Diana, Université Paris Diderot Zammert Stefan, Eckhardt Bruno, Philipps- Universität Marburg P0030. Planar velocimetry in the wake of a crossflow turbine P0018. Q criterion isosurface visualizations of a Miguel Somoano, Francisco Huera-Huarte, zero-pressure-gradient turbulent boundary Universitat Rovira i Virgili layer Bryan Kaiser, Massachusetts Institute of P0031. The motion of a vortex ring across a density Technology; Svetlana Poroseva, University of interface New Mexico Roberto Zenit, Universidad Nacional Autónoma de Mexico; John O. Dabiri, Stanford University P0019. Drop fragmentation by laser-induced cavitation P0032. How to make a splash: droplet impact and Silvestre Roberto Gonzalez-Avila, Claus-Dieter liquid film applications in aerodynamics Ohl, Nanyang Technological University Radu Cimpeanu, Demetrios Papageorgiou, Marina Kravtsova, Anatoly Ruban, Imperial P0020. Pinecones: spatial flow modulation by College London patterned surface properties Morgane Grivel, David Jeon, Morteza Gharib, P0033. Erosion of a granular bed by an oscillating California Institute of Technology foil Alban Sauret, SVI (CNRS & Saint-Gobain); P0021. Immaculate collision Cyprien Morize, Philippe Gondret, FAST (CNRS Mark Stock, Independent artist & Paris-Sud University) P0022. Spherical Rayleigh-Taylor instabilities P0034. The evolving morphology of negatively- Mark Stock, Independent artist buoyant vortex rings P0023. Wake structures in a flowing soap film: solid Jeff X. Wu, Gary R. Hunt, University of Cambridge cylinder vs. arrays of cylinders P0035. Travelling waves in viscosity-stratified Samantha Parry, Oscar Curet, Florida Atlantic microflows University Xiaoyi Hu, Thomas Cubaud, Stony Brook P0024. Morphodynamics of a granular bed in a University water-filled oscillating cylinder P0036. Bio-inspired active and passive kinematics Thijs van Gorp, Matias Duran-Matute, GertJan of a flapping foil van Heijst, Eindhoven University of Technology Junyoung Kim, Junshin Park, Suengpyo Hong, P0025. Resuspension of a granular bed by thermal Donghyun You, Pohang University of Science convection and Technology Eric Herbert, CNRS/Université Paris Diderot; P0037. Rooted in the grounds Alban Sauret, CNRS/Saint-Gobain; Cyprien Jesse Belden, Naval Undersea Warfare Center; Morize, CNRS/Paris-Sud University Nick Russell, Randy Hurd, Tadd Truscott, Utah P0026. Suppressing the storm: rain drops on State University superheated superhydrophobic surfaces P0038. Modern art entanglement: comment Cristian Clavijo, Braquel Burnett, Julie Crockett, s’emmêler les pinceaux Daniel Maynes, Brigham Young University Baptiste Texier, University of Liege; Zhao Pan, P0027. Moon jellyfish Brigham Young University; Benjamin Lovett, Grace McLaughlin, Laura Miller, UNC Chapel Hill Utah State University; Martin Brandenbourger, University of Liege; Saberul Sharker, Utah State P0028. Shock wave-droplet interaction University; Laurent Maquet, Tristan Gilet, Hamed Habibi Khoshmehr, Rouslan University of Liege; Bruno Le Boulengé, Krechetnikov, University of Alberta arqontanporin; Jesse Belden, Naval Undersea Warfare Center; Stéphane Dorbolo, University of Liege; Tadd Truscott, Utah State University; Naresh Sampara, University of Liege

17 Gallery of Fluid Motion

P0039. Flow visualization at large scales: the flow P0051. Erosion patterns on dissolving solids around a 2kW VAWT Caroline Cohen, Julien Derr, Michael Berhanu, Ian Brownstein, Stanford; Roberto Zenit, Sylvain Courrech du Pont, Université Paris University of Mexico; John Dabiri, Stanford Diderot P0040. The microfluidic network of a plant leaf P0052. Foam fracturing Hanna Rademaker, Kaare H. Jensen, Technical Ching-Yao Lai, Samuel Smiddy, Howard A. University of Denmark; Helle J. Martens, Stone, Princeton University Alexander Schulz, University of Copenhagen; Tomas Bohr, Technical University of Denmark P0041. Confined growth and deformation Videos Gabriel Juarez, Roman Stocker, ETH Zurich V0001: Ultrafast particle expulsion from fluid P0042. Impact of raindrops on oil slicks interfaces Raina Mittal, James Madison High School; Vincent Poulichet, Christiana Udoh, Valeria Kristen Halper, Thomas Jefferson High School Garbin, Imperial College London for Science and Technology; Rajat Mittal, Johns V0003. Aerodynamics of the long jump of a spider Hopkins University cricket P0043. A virtual tour of turbulence Rajat Mittal, Emily Palmer, Johns Hopkins Javier Jimenez, Miguel P. Encinar, Alberto Vela- University; Nicolas Deshler, Washington Martin, Adrian Lozano-Duran, Technical International School; Rajat Mittal, Johns University of Madrid Hopkins University P0044. Particle deposition on an interface: trapping V0004. High speed Schlieren photography on a free vs sinking flying hawkmoth Emilie Dressaire, NYU Polytechnic School of Yun Liu, Stephen VanKooten, Xinyan Deng, Engineering; Alban Sauret, CNRS/Saint-Gobain Purdue University P0045. Exotic wakes of an oscillating cylinder in a V0005. Rotor blade tip vortices flowing soap film Michea Giuni, Richard Green, University of Wenchao Yang, Mark Stremler, Virginia Glasgow, Scotland UK; Daniele Zagaglia, Polytechnic Institute and State University Politecnico di Milano, Italy P0046. Freely falling solid and annular disks V0006. An integrated simulation of a wing-body Shashank Khurana, Cunbiao Lee, Peking combination for a hovering Drosophila University Mehmet Sahin, Ezgi Dilek, Belkis Erzincanli, Istanbul Technical University P0047. Flow stabilization by crystals Mahmoud I. Hussein, Sedat Birigen, Osama R. V0007. Fire suppression with yield-stress fluids Bilal, Alec Kucala, University of Colorado Boulder Brendan Blackwell, Athrey Nadhan, Alex Wu, Randy Ewoldt, University of Illinois at Urbana- P0048. An emerging string of fluid pearls Champaign Seong Jin Kim, Virginia Tech; Minsu Jang, Soong Ho Um, Sungkyunkwan University; V0008. The in-silico lab-on-a-chip: Catching a Sunghwan Jung, Virginia Tech needle in a flowing haystack Christian Conti, Diego Rossinelli, Dmitry P0049. The distant interaction of a drop with a Alexeev, Panagiotis Hadjidoukas, Petros liquid sheet Koumoutsakos, ETH Zurich; Kirill Lykov, USI Baptiste Neel, Emmanuel Villermaux, Aix- Marseille University V0009. Zorbubbles (producing flow regimes in air- water flow) P0050. Variable density vortex ring dynamics in Hassan Shaban, Stavros Tavoularis, University sharply stratified ambient fluids of Ottawa Roberto Camassa, UNC Joint Fluids Lab; David Holz, Leap Motion; Richard McLaughlin, UNC V0011. Genesis & evolution of barchan dunes Joint Fluids Lab; Keith Mertens, Leap Motion; Ali Khosronejad, Dionysios Angelidis, David Pierre-Yves Passaggia, UNC Joint Fluids Lab; Porter, Xiaolei Yang, Fotis Sotiropoulos, Claudio Viotti, Miravex University of Minnesota

18 Gallery of Fluid Motion

V0012. Large-eddy simulation of wind turbine V0025. Leidenfrost impacts on hot liquid baths wakes with yaw effects Laurent Maquet, Baptiste Darbois-Texier, Luis Martinez, Mike Howland, Charles Stéphane Dorbolo, GRASP, Université de Liége Meneveau, Johns Hopkins University V0026. Straight from the heart: Complex flowfields V0013. The tightrope dancer bubbles through prosthetic valves Alexis Duchesne, Charles Dubois, Université de Marco D. de Tullio, Politecnico di Bari Liège V0027. Shock wave propagation: Cavitation of V0015. Lagrangian coherent structures in the flow dodecane in a converging-diverging nozzle field of a fluidic oscillator Michael Waldrop, Flint Thomas, University of Moritz Sieber, Florian Ostermann, Kilian Notre Dame Oberleithner, C. Oliver Paschereit, Hermann- V0028. Bubble-induced turbulence study in shear/ Föttinger-Institut, Technische Universitat Berlin; homogeneous turbulent flow using DNS Rene Woszidlo, The Boeing Company with interface tracking methods V0016. Simulation of a two-layer double-gyre flow Igor A Bolotnov, Jinyong Feng, North Carolina in an ocean basin State University Bryan Kaiser, Massachusetts Institute of V0029. Instabilities and fragmentation of drops Technology - WHOI in 3D V0017. A day in the life of a fluid dynamicist Silvestre Roberto Gonzalez-Avila, Julien Rapet, Shanon Reckinger, Scott Reckinger, Mark Claus-Dieter Ohl, Nanyang Technological Owkes, Montana State University; Yenny Rua, University; Pjotr Kerssens, University of Twente Fairfield University V0031. 2D flow in suspended fluid films V0018. Self-propelled droplet removal from hydro Reza Shirsavar, Tayebe Saghaei, University of phobic fiber-based coalescers Zanjan; Mohammad Shirsavar, Shahid Beheshti Kungang Zhang, Chuan-Hua Chen, Fangjie Liu, HS; Mansoure Moeni Rizi, ASU; Ahmad Amjadi, Adam Williams, Xiaopeng Qu, Duke University; M. R. Ejtehadi, Sharif University of Technology James Feng, University of British Columbia V0032. Behavior of interfacial waves in water- V0019. LES of helical vortex core and flame lubricated flow of highly viscous Newtonian interaction in turbulent premixed swirl- and non-Newtonian fluids as core-annular stabilized combustion flow Soufien Taamallah, Ahmed F. Ghoniem, Sumit Tripathi, IITB-Monash Research Academy; Massachusetts Institute of Technology Amitabh Bhattacharya, Ramesh Singh, IIT Bombay; Rico F. Tabor, Monash University V0020. Baroclinic instability in the presence of forced convection V0033. Water entry of a sphere: splash, cavity and Jörn Callies, Massachusetts Institute of jet Technology Gong Zhaoxin, Yongliu Fang, Hua Liu, Shahghai Jiao, Tong University V0021. Generation and propagation of arterial murmurs V0034. Visualization of vortical structures in a Jung Hee Seo, Hani Bakhshaee, Chi Zhu, Rajat turbulent pipe flow at Re = 3008 Mittal, Johns Hopkins University Junsun Ahn, Jim Sung, KAIST; Gyuhyun Hwang, Sehoon Lee, Min Ah Kim, KISTI V0023. Formation of blood clots in the human heart Jung Hee Seo, Thura Abd, Richard T. Georgey, V0037. Vortex ring, fragmentation and impact Rajat Mittal, Johns Hopkins University Saeid Mollaei, Mahdi Asghari, University of Zanjan V0024. Numerical simulation of 3d gravity current moving down a uniform slope V0038. Nonsteady wind turbine loading response to Reuben Chiew, Nan Yi, Quan Wen, Chong passage of daytime atmospheric turbulence Shen Ng, Shuang Jie Zhu, Andrew Seng, Hock eddies Ooi, University of Melbourne, Australia; Sven Schmitz, Sarah Aguasvivas, Adam Lavely, Sivaramakrishnan Balachandar, Nadim Zgheib, Ganesh Vijayakumar, James Brasseur, The University of Florida Pennsylvania State University; Earl Duque, Intelligent Light

19 Gallery of Fluid Motion

V0039. Manipulation of dynamic liquid bridges by V0058. Evolution of injected air stream in granular patterned surface properties bed Morgane Grivel, David Jeon, Morteza Gharib, Prasanta Das, Ritwik Maiti, Gargi Das, IIT California Institute of Technology Kharagpur V0040. Placing Marangoni instabilities under arrest V0059. Color coding vortices to understand M. Saad Bhamla, Gerald G. Fuller, Stanford flapping wing propulsion University Thomas Mitchel, Sophie Ramananarivo, Leif Ristroph, Courant Institute, NYU V0044. Interaction of Taylor lengthscale size droplets and isotropic turbulence V0062. The molten glass sewing machine Michael Dodd, Mishaal Aleem, Antonino Pierre-Thomas Brun, Michael Stern, Chikara Ferrante, University of Washington Inamura, Daniel Lizardo, Markus Kayser, John Klein, Neri Oxman, Massachusetts Institute of V0046. Successive fragmentation of droplets in Technology; Giorgia Franchin, University of sparkling firework Padova Chihiro Inoue, The University of Tokyo V0064. Shedding light on pilot-wave phenomena V0047. The swimming of Antarctica ‘sea-butterflies’ Pierre-Thomas Brun, Dan Harris, Victor Prost, Jun Zhang, Courant Institute, NYU; Deepak Julio Quintela, John W. M. Bush, Massachu setts Adhikari, Jeannette Yen, Georgia Institute of Institute of Technology Technology V0066. Painting with flying viscous catenaries: V0050. Spreading of a droplet by a soap film Pollock’s recipe Mehran Erfani Fam, Reza Shirsavar, Mahsa Roberto Zenit, Bernardo Palacios, Sandra Sabouhi, University of Zanjan; Howard A. Stone, Zetina, Roberto Zenit, Universidad Nacional Princeton University Autonoma de Mexico; Tom Learner, Getty V0051. Primary breakup of planar coflowing gas Conservation Institute and liquid sheets V0067. Dancing jets Yue Ling, Daniel Fuster, Stephane Zaleski, Dominic Henry, Jamal Uddin, University of University of Paris 6; Gretar Tryggvason, Birmingham; Jeremy Marston, Texas Tech University of Notre Dame; Ruben Scardovelli, University; Mohammad Mansoor, Sigurdur Universita di Bologna, Italy Thoroddsen, King Abdullah University of V0052. Can a droplet hop on a rigid surface? Science and Technology Thomas Schutzius, Stefan Jung, Gustav V0069. Bacterial floc mediated rapid streamer Graeber, Tanmoy Maitra, Dimos Poulikakos, formation in creeping flows ETH-Zurich Mahtab Hassanpourfard, Zahra Nikakhtari, V0053. Blowing bubbles forever Thomas Thundat, Aloke Kumar, University of Laurent Courbin, Louis Salkin, Alexandre Schmit, Alberta; Ranajay Ghosh, Northeastern Pascal Panizza, Institut de Physique de Rennes University; Siddhartha Das, University of Maryland V0054. Bursting of free radially expanding liquid sheets of dilute emulsions V0070. Balloon explosion dynamics Christian Ligoure, Laurence Ramos, Clara Kareem Ahmed, John Royero, Jaysen Mulligan, Vernay, Laboratoire Charles Coulomb UMR & Kareem Ahmed, University of Central Florida University of Montpellier V0072. Fogged up films V0055. Forced relaminarisation in a pipe Tadd Truscott, Zhao Pan, Brigham Young Jakob Kuhnen, Philipp Maier, Björn Hof, IST University; Randy Hurd, Andrew Merritty, Austria Nathan Speirs, Utah State University V0056. A computational laboratory for the study of V0074. New modes in liquid-liquid dispersion transitional and turbulent boundary layers Jose Lopez-Herrera, A. Said Mohamed, M. A. Jin Lee, Tamer Zaki, Johns Hopkins University Herrada, A. Gañan-Calvo, Universidad de Sevilla V0057. Simulations of fully resolved turbulent bubbly flows in various geometries V0075. Wrinkling of a viscous impacting drop Jun Fang, Igor Bolotnov, North Carolina State Er Qiang Li, Sigurdur Thoroddsen, KAUST; University; Michel Rasquin, University of Daniel Beilharz, Ecole Polytechnique Colorado at Boulder 20 Gallery of Fluid Motion

V0076. Liquid crowns by water hammer V0090. Rotary fragmentation of viscoelastic liquids Akihito Kiyama, Yoshiyuki Tagawa, Tokyo Bavand Keshavarz, Gareth McKinley, University of Agriculture and Technology Massachusetts Institute of Technology V0077. Rotating Rayleigh-Taylor turbulence V0092. Movement of broad leaves Guido Boffetta, University of Torino; Andrea Laura Miller, University of North Carolina; Mazzino, University of Genova; Stefano Alexander Hoover, Tulane University Musacchio, University of Nice V0096. Laser ignition of a hydrogen jet in crossflow V0078. Turbulent flow around a wing profile, a direct Ryan Fontaine, Nick Glumac, Gregory Elliott, numerical simulation University of Illinois Philipp Schlatter, Mohammad Hosseini, Ricardo V0098. Quadrotor flow field visualization Vinuesa, Ardeshir Hanifi, Dan Henningson, Zach Barbeau, Jordan Feight, Geoff Kibble, Philipp Schlatter, KTH - Stockholm Jamey Jacob, Oklahoma State University V0079. Structure and dynamics of a deflagrated V0099. Dynamics of avian perching maneuvers flame evolution Jamey Jacob, Jonathan Mitchell, Dillon Nelson, Jessica Chambers, Michelle Otero, Kareem Oklahoma State University; Ryan Reynolds, Ahmed, Joseph McGarry, University of Central Sandia National Laboratories Florida V0101. Spreading bubbles V0080. Drop impact on flexible fiber Hélène de Maleprade, Christophe Clanet, David Emilie Dressaire, NYU Polytechnic School of Quere, Ecole Polytecnhnique - ESPCI Engineering; Alban Sauret, SVI (CNRS/Saint- Gobain); Francois Boulogne, Howard Stone, V0102. Photochromic flow visualization in silicone Princeton University oil Stephen Johnston, Devesh Ranjan, Georgia V0082. Marangoni flow during convective particle Institute of Technology; Katepalli R. Sreenivasan, assembly Enrico Fonda, New York University James Gilchrist, Kedar Joshi, Caitlyn Tzou, Michael Stever, Pisist Kumnorkaew, James V0104. Evolution and breakdown of an elliptic Gilchrist, Lehigh University vortex ring Deepak Adhikari, Georgia Institute of V0083. Gas jet impact on a ventilated cavity Technology; T.T. Lim, National University of Michael Krane, Zachary Yoas, Michael Kinzel, Singapore Michael Money, Penn State; Ivan Kirschner, Applied Physical Sciences Corp. V0105. Marangoni instabilities on rising drop interface V0085. Numerical simulation of a round jet in Makrand Khanwale, Hrushikesh Khadamkar, crossflow of a spatially developing turbulent Channamallikarjun Mathpati, Institute of boundary layer triggered by realistic Chemical Technology, Mumbai sandpaper roughness Jesse Capecelatro, Daniel Bodony, Jonathan V0106. Strangely stable sphere stacking Freund, University of Illinois Urbana-Champaign Piyush Singh, Jason Lee, Jonathan Freund, Randy Ewoldt, University of Illinois at Urbana- V0087. The merger of a bubble and a soap film Champaign Giuseppe Pucci, Daniel M. Harris, Victor Prost, Julio Quintela Casal, John W. M. Bush, V0107. Numerical simulation of hemorrhage in Massachusetts Institute of Technology human injury Kwitae Chong, Chenfanfu Jiang, Anand V0088. Turning on a dime: Asymmetric vortex forma- Santhanam, Demetri Terzopoulos, Peyman tion in hummingbird maneuvering flight Benharash, Joseph Teran, Jeff D. Eldredge, Yan Ren, Haibo Dong, University of Virginia; UCLA Xinyan Deng, Purdue University; Bret Tobalske, University of Montana V0089. Fin flexion and flow modulation in Manta’s forward swimming Geng Liu, Yan Ren, Chengyu Li, Haibo Dong, Hilary Bart-Smith, University of Virginia; Frank Fish, West Chester University

21 Exhibitors

Exhibit Hours Cambridge University Press 32 Avenue of the Americas Sunday, 22 November 07:00 – 17:00 New York, NY 10013 Monday, 23 November 07:30 – 17:00 Tel: 212-924-3900 Tuesday, 24 November 07:30 – 11:00 Web: www.cambridge.org/us/academic Convention Center, Second Level, Hall C Email: [email protected] Cambridge’s publishing in books and journals combines AIP Publishing state-of-the-art content with the highest standards of 1305 Walt Whitman Road, Suite 300 scholarship, writing and production. Visit our stand to Melville, NY 11747 browse new titles, available at a 20% discount, and to Tel: 516-576-2279 pick up sample issues of our journals. Visit our website Web: journals.aip.org to see everything we do: www.cambridge.org/us/ Physics of Fluids is published by AIP Publishing LLC academic. with the cooperation of The American Physical Society Division of Fluid Dynamics. Editors are John Kim (Uni- Comsol, Inc. versity of California, Los Angeles) and L. Gary Leal 1 New England Executive Park (University of California, Santa Barbara). The journal is Burlington, MA 01803 devoted to the publication of original theoretical, com- Tel: 781-273-3322 putational, and experimental contributions to the dy- Web: www.comsol.com namics of gases, liquids, and complex or multiphase COMSOL Multiphysics is a software environment for the fluids. Editorial content reflects the richness and simulation of any physics-based system. A particular breadth of the field of Fluid Dynamics in areas that in- strength is its ability to account for multiphysics phe- clude: Compressible Flows, Instability and Transition, nomena. Optional modules add discipline-specific tools Interfacial Flows, Viscous and Non-Newtonian Flows, for mechanical, fluid, electromagnetics, and chemical Biofluid, Mechanics, Laminar, Turbulent, and Geophysi- simulations, as well as CAD interoperability. Within the cal flows, Micro- and Nanofluid Mechanics, Particulate, field of CFD, COMSOL’s provide tools for simulating Multiphase, and Granular Flows. Journals metrics re- devices and systems that involve sophisticated fluid leased by Thomson Reuters* show Physics of Fluids flow models. It is equipped with powerful simulation (PoF) to be a highly cited journal tracked in both Fluids capabilities to model compressible, nonisothermal, non- & Plasmas Physics and Mechanics with 23,746 cita- Newtonian, two-phase, and porous media flows – all tions in 2014. within the laminar and turbulent flow regimes. *Journal Citation Reports® (Thomson Reuters, 2015) Dantec Dynamics Inc. American Physical Society 750 Blue Point Road 1 Physics Ellipse Holtsville, NY 11742 College Park, MD 20740 Tel: 631-654-1290 Tel: 301-209-3243 Web: www.dantecdynamics.com Web: journals.aps.org Email: [email protected] Founded in 1899, the American Physical Society (APS) Dantec Dynamics is a leading developer and supplier of is a non-profit membership organization working to ad- measurement systems for fluid mechanics, solid me- vance and diffuse the knowledge of physics. APS pub- chanics, microfluidics, particle/spray, and combustion lishes the world’s most widely read physics research analysis. Our systems are used in gases, liquids and and review journals: Physical Review Fluids, Physical material testing. Specifically, we measure velocity, par- Review Letters, Physical Review X, Reviews of Modern ticle size, concentration, temperature, combustion spe- Physics, Physical Review Applied, Physical Review cies, strain/stress and vibration. Dantec Dynamics has A-E, Physical Review Special Topics, and Physics. thousands of systems in operation at government re- Please stop by the APS booth to learn more about the search labs, leading universities, and industries around prestigious Physical Review collection, and learn more the world. Our more than 60 years of continuous ser- about Physical Review Fluids, our newest journal, vice to the research community along with feedback dedicated to publishing innovative research that will from our customers, has enabled us to focus on innova- significantly advance the fundamental understanding tions and improvements to our products to meet current of fluids. and future needs.

22 Exhibitors

IFS - Interactive Flow Studies innovation and quality improvement in the fields of Fluid 4730 Wyoming Avenue Research Measurement. Kanomax commercialized a Billings, MT 59106 fiber-optic LDV system in 1985 before the rest of the Tel: 612-810-2727 world. Now our proprietary Laser Doppler Velocimeter Web: www.interactiveflows.com and Hot-Wire Anemometer are widely used at educa- Email: [email protected] tional and industrial research institutions. We have also developed Bubble Master, two-phase flow measure- Our Mission is to develop innovative systems for teach- ment system, in collaboration with a university, which ing and basic research in Hemodynamics, Fluid Me- enables measurements of void rate, bubble size and chanics, Heat Transfer and Design at schools world- bubble velocity. Kanomax is proud of its unsurpassed wide by utilizing state of the art technology that enables reputation for innovative technologies, product quality deeper learning through hands on experimentation. Our and service in both industrial and academic fields. inspiration and innovation comes from our total commit- ment and belief in our mission. Setup or Upgrade your KRÜSS USA laboratory with our customizable state of the art instru- 1020 Crews Road, Suite K ments. FLOWCOACH, HEMOFLOW, THERMOFLOW, Matthews, NC 28105 ePIV, MiniPIV Systems and FLOWEX™ Software are Tel: 704-847-8933 designed to enable students acquire 21st century Web: www.krussusa.com knowledge and skills. Several interchangeable model inserts come with all the systems and the models can As the world’s leading supplier of measuring instru- also be made by students as an integrated part of the ments in the field of surface and interfacial chemistry, DESIGN-BUILD-TEST-ANALYZE educational process. KRÜSS not only provides high quality product solutions They all have attributes of research grade instruments but also offers a combination of technology and scien- and provide exceptional opportunity for students to also tific advice. These include seminars, a comprehensive participate in research. More information can be found technical service, our Customer Support Lab and our at www.interactiveflows.com Surface Science Center for professional measurement services. We have convinced many well-known compa- IOP Publishing nies and institutes with our know-how, precision and Temple Circus, Temple Way passion. With our tensiometers, instruments for contact Bristol, UK BS1 6HG angle measurement as well as foam analysis instru- Tel: +441179297481 ments, we provide support to the research and develop- Web: ioppublishing.org ment laboratories and quality control centers of count- Email: [email protected] less industries.

IOP Publishing provides a range of journals, maga- LaVision Inc. zines, books, websites and services that enable re- 211 W. Michigan Avenue, Suite 100 searchers and research organizations to reach the wid- Ypsilanti, MI 48197 est possible audience for their research. We combine Tel: 734-485-0913 the culture of a learned society with global reach and Web: www.lavision.com highly efficient and effective publishing systems and E-Mail: [email protected] processes. In the field of fluid dynamics we are pleased to publish the journal Fluid Dynamics Research in part- LaVision Inc. provides integrated imaging systems to nership with the Japan Society of Fluid Mechanics. scientific, industrial and educational markets. LaVision has extensive experience in optical techniques such as Kanomax Japan, Inc. 2-D, stereo, and tomographic particle image velocim- 2-1 Shimizu etry, gaseous and liquid laser induced fluorescence, Suita City, Osaka 565-0805, Japan shadowgraphy for multi-phase flows, digital image cor- Tel: +81-6-6877-8679 relation for deformation/strain, high-speed and ultra- Web: www.kanomax-usa.com high-speed imaging, and intensified camera systems. Email: [email protected] Kanomax has been, based on our reliable technology and 80 years of accumulated knowledge and know- how, providing the best measurement solutions in its products and services that adapt precision measurement technology, and has contributed to technological

23 Exhibitors

Litron Lasers Ltd. the miniPCS;a Mie-scattering particle sizer and counter 8 Consul Road with built-in acquisition. In addition, we offer the flowLab Rugby, Warwickshire, UK CV21 1PB table-top water tunnel for demonstrating classical fluid Tel: +44-0-1788-574444 flows visualization and measurement. Our products are Web: www.litronlasers.com in use in academic, research, and industrial facilities. Email: [email protected] Please visit our newly updated and easy to navigate website at www.MeasurementSci.com and follow us on Litron Lasers is the world’s leading manufacturer of PIV our social media platforms including Facebook, lasers. Litron’s product range covers all your PIV laser Google+, LinkedIn, and Twitter (Twitter handle: @ needs from compact, rugged pulsed Nd:YAG systems MSEminiLDV). Sign up for our newsletter and stay with 15Hz to 100Hz repetition rates through to high en- tuned for the launch of our blog. ergy modular systems up to 1.5J per pulse at 15Hz and 100mJ at 200Hz at 532nm. Our dedicated range of Di- Photron ode Pumped Nd:YLF (527nm) PIV twin head lasers in- 9520 Padgett Street, Suite 110 clude an industry leading 30mJ per pulse, 1kHz model San Diego, CA 92126 for time resolved studies giving true 24 hour operation Tel: 858-684-3555 & 800-585-2129 for demanding applications. Litron will be displaying two Web: www.photron.com new PIV models for 2015. The Plasma 75 PIV diode Email: [email protected] pumped Nd:YAG laser producing 75mJ of 532nm up to 150Hz and 60mJ at 200Hz. The LD75-G PIV intracavity Photron high-speed cameras are favored for Particle doubled Nd:YAG laser giving 75W (150W total output) Image Velocimetry (PIV) due to their short inter-frame at 532nm at 10kHz and repetition rates available up to times down to the nanosecond range (without bright 50kHz. Visit the Litron Lasers stand and learn more. pixels being repeated in subsequent frames), light sensitivity, ease of use and integration with lasers and pe- MONTFORT Laser GmbH ripherals, and proven reliability – Photron is still the only Im Holderlob 6A high-speed camera company to provide a standard two Goetzis, Austria 6840 warranty. Cameras range from multiple miniature cam- Tel: +43-660-5191260 era heads, mega pixel resolution to 21,000 frames per Web: www.montfortlaser.com second (fps) with ISO 25,000 light sensitivity, to a compact four mega-pixel system providing 1,000 frames per MONTFORT Laser presents an extremely compact and second (fps) at full resolution from 10µm square 12-bit light-weight dual-head PIV Nd:YAG laser source at APS/ CMOS sensor. DFD 2015 for weight and space-constrained applica tions. MONTFORT specializes in particularly compact Pointwise, Inc. nanosecond Nd:YAG lasers for applications including 213 S. Jennings Avenue LIBS, PIV, LIDT, etc., based on their patent pending Fort Worth, TX 76104 direct diode-pumping approach with high robustness. Tel: 817-377-2807 Web: www.pointwise.com MSE Inc. Email: [email protected] 123 W. Bellevue Drive, Suite 1 Pasadena, CA 91105 Pointwise is solving the top problem facing engineering Tel: 626-577-0566 analysts today: mesh generation for computational fluid Web: www.MeasurementSci.com dynamics (CFD). Pointwise’s meshing software gener- Email: [email protected] ates structured, unstructured, and hybrid meshes; interfaces with ANSYS FLUENT, STAR-CD, SU2 and Open- MSE, Inc. manufactures miniature laser sensors for FOAM as well as many neutral formats such as CGNS; fluid, surface, and particle velocity measurements. We runs on Windows (Intel and AMD), Linux (Intel and specialize in custom sensors built to each user’s techni- AMD), and Mac; and has a scripting language that can cal specifications. Our products include the miniLDV; automate CFD meshing. Our software is known for its the most compact LDV in the industry for measuring the high quality grids and ease of use and for the expert speed & direction of fluid flow and surfaces, the micro- technical support provided with it. More information is Pro sensor; a micro profilometer that provides near wall available on Pointwise’s web site, pointwise.com. velocity profiles and shear stress measurement, the microV; the smallest time-of-flight velocity sensor, and

24 Exhibitors

Quantel Laser TSI Inc. 601 Haggerty Lane 500 Cardigan Road Bozeman, MT 59715 Shoreview, MN 55126 Tel: 406-586-0131 Tel: 651-490-2738 Web: www.quantel-laser.com Web: www.tsi.com Email: [email protected] Email: [email protected] Quantel, founded in 1970, is a global leader in the de- For more than 50 years, TSI’s Fluid Mechanics Division sign and manufacture of high-power, solid-state lasers. has been in the forefront developing and supplying fluid With design centers in Paris and the USA (Bozeman, mechanics research instrumentation to the fluid re- MT), Quantel lasers are used in applications ranging search community. TSI provides a complete line of fluid from PIV to combustion research; spectroscopy to atom systems for gas and liquid flow measurements includ- cooling. Uniquely, Quantel offers customers very flex- ing: Particle Image Velocimetry (PIV) and Volumetric ible scientific lasers with user configurable wavelengths PIV (V3V) global measurements; PowerSight-based and performance parameters as well as “designed for Laser Doppler Velocimetry (LDV) and Phase Doppler purpose” ruggedized lasers for industrial applications. Particle Analyzer (PDPA) for velocity and size measurements of fluid flows and spray diagnostics; combustion SIAM - Society for Industrial and Applied diagnostics of flame via Planar Laser Induced Fluores- Mathematics cence (PLIF), Laser Induced Incandescence (LII) and 3600 Market Street, 6th Floor Filtered Rayleigh Scattering (FRS) systems; and Hot Philadelphia, PA 19104 Wire Anemometry (HWA). Tel: 215382-9800 Web: www.siam.org Vision Research, Inc. Email: [email protected] 100 Dey Road Wayne, New Jersey 07470 The Society for Industrial and Applied Mathematics Tel: 973-696-4500 (SIAM) is an international community of over 14,000 Web: www.visionresearch.com individual members. More than 500 academic, manu- Email: [email protected] facturing, research and development, service and con- sulting organizations, government, and military organi- Vision Research designs and manufactures high-speed zations worldwide are institutional members. SIAM fos- digital imaging systems used in applications including ters the development of applied mathematical and com- defense, automotive, engineering, science, medical re- putational methodologies needed in these various ap- search, industrial manufacturing and packaging, sports plication areas. Applied mathematics in partnership and entertainment, and digital cinematography for tele- with computational science is essential in solving many vision and movie production. The Wayne, N.J.-based real-world problems. Through publications, research, company prides itself on the unsurpassed light-sensitiv- and community, the mission of SIAM is to build coop- ity, image resolution, acquisition speed and image qual- eration between mathematics and the worlds of science ity produced by its systems, as well as robust software and technology. interfaces, reliability and versatility of its camera family – all which continue to stand as benchmarks for the Taylor and Francis high speed digital imaging industry. Known for its in- 2 & 4 Park Square, Milton Park novations in high-speed digital camera technology and Abingdon, Oxon, UK, OX14 4RN sensor design, Vision Research has received numer- Tel: 0207-017-4318 ous research and development awards and was recent- Web: www.tandfonline.com ly honored with an Emmy® Award for its revolutions in technology and engineering. Vision Research’s broad Taylor & Francis boasts a growing, wide-ranging and line of digital high-speed cameras, marketed under the high calibre journals portfolio in Engineering. Key titles Phantom® brand, add a new dimension to the sense of include Combustion Theory and Modelling, Intern sight. They are used as innovative engineering tools, ational Journal of Computational Fluid Dynamics, enabling users to visualize and analyze physical phe- Journal of Turbulence and more. Our journals are ed- nomena when it’s too fast to see, and too important not ited by some of the most prominent academics in the to™. For additional information regarding Vision Re- field. Visit us at our booth to browse our journals and search, please visit www.visionresearch.com. talk to us about publishing your work. After the confer- Vision Research is a business unit of the Materials Analysis ence, find out more at http://bit.ly/tf-fluid. Division of AMETEK Inc., a leading global manufacturer of electronic instruments and electromechanical devices.

25 Session Key

The contributed papers have been assigned a unique alpha-numeric code. For example:

Indicates the day & time of the session A1.00001

Indicates the sub-session Indicates the order in which the paper is within a session to be presented in the session

Ax Sunday 08:00 – 09:57 Bx Sunday 10:20 – 12:25 Cx Sunday 13:30 – 14:05 Dx Sunday 14:10 – 16:20 Ex Sunday 16:50 – 18:08 Gx Monday 08:00 – 10:10 Hx Monday 10:35 – 12:45 Jx Monday 13:55 – 14:30 Kx Monday 14:45 – 15:20 KPx Monday 15:20 – 16:05 Lx Monday 16:05 – 18:41 Mx Tuesday 08:00 – 10:10 Nx Tuesday 10:40 – 11:15 Px Tuesday 11:20 – 11:40 Rx Tuesday 12:50 – 15:26

26 Program Summary

Note: Session Updates will be available in the Convention Center, Second Level, Hall C, and online at https://apsdfd2015.mit.edu/program.

Sessions will be at the Convention Center (CC) or the Sheraton Hotel (SH), as noted. Sunday, 22 November 08:00 – 09:57 Concurrent Sessions A1 Porous Media Flows: Fracturing...... CC Auditorium A2 Suspensions: Rheology I...... CC 101 A3 Particle-Laden Flows: Compressibility, Heat and...... CC 102 Mass Transfer Effects A4 Particle-Laden Flows: Turbulence Modulation...... CC 103 A5 Reacting Flows: General...... CC 104 A6 Granular Flows: Force Transmission...... CC 105 A7 Acoustics I: Thermo-Acoustics...... CC 107 A8 Magnetohydrodynamics...... CC 108 A9 Flow Instability: Wakes...... CC 109 A10 Microscale Flows: Electrokinetics...... CC 110 A11 Convection and Buoyancy-Driven Flows: Plumes...... CC 111 A12 Non-Newtonian Flows: Simulation and Stability...... CC 200 A13 Free Surface Flows I: Wakes and Turbulence...... CC 201 A14 Industrial Applications I...... CC 202 A15 Flow Control: Passive...... CC 203 A16 Flow Control: Theory...... CC 204 A17 Flow Control: Separation...... CC 205 A18 Vortex Dynamics: Energy Harvesting and Atmospheric Flows...... CC 206 A19 Boundary Layers: General...... CC 207 A20 Turbulence: Thermal Flows...... CC 208 A21 Turbulence: Environmental Flows...... CC 209 A22 Turbulence: Free Shear Layers and Jets...... CC 210 A23 Biofluids: Active Fluids ...... I CC 300 A24 Biofluids: General Physiology...... CC 302 A25 Biofluids: Plant Biomechanics...... CC 304 A26 Biofluids: Flexible Swimmers I...... CC 306 A27 Biofluids: Flapping...... CC 308 A28 Biofluids: Motility in Newtonian and Non-Newtonian Fluids...... CC 309 A29 Nonlinear Dynamics: Coherent Structures I...... CC 310 A30 Geophysical Fluid Dynamics: Rotating and Stratified Convection....CC 311 A31 Drops: Surface Interactions...... CC 312 A32 Drops: Surface Tension Effects...... CC 313 A33 Drops: Evaporation...... CC Ballroom A A35 Drops: Impact and Splashing...... CC Ballroom B A36 Drops: Electric Field Effects...... CC Ballroom C A39 CFD: Reactive Flows I...... SH Back Bay Ballroom C A40 CFD: Particulate Flows...... SH Back Bay Ballroom D 09:57 – 10:20 Refreshment Break...... CC Halls C and D 10:20 – 12:25 Awards Presentation, DFD Fellowships, and Lectures B1 Presentation of Awards and DFD Fellowships followed by the...... CC Auditorium Otto Laporte Lecture given by Morteza Gharib and the Stanley Corrsin Award Lecture given by Michael Graham 12:25 – 13:30 Lunch...... on your own 12:25 – 13:30 Fluids Education Lunch Workshop...... SH Commonwealth 12:25 – 13:30 Workshop: All the Faces of Fluid Dynamics...... SH Gardner

27 Program Summary

12:25 – 13:30 Young Investigator Workshop...... SH Republic B Ballroom 13:30 – 14:05 Invited Lectures C1 Invited Session: Soap Film Dynamics and Topological Jumps...... CC Auditorium Under Continuous Deformation C34 Invited Session: Fish Locomotion: Insights from Both Simple...... CC Ballroom B/C and Complex Mechanical Models 14:05 – 14:10 Mini Break 14:10 – 16:20 Concurrent Sessions D1 Porous Media Flows: Convection and CO2 Sequestration...... CC Auditorium D2 Suspensions: Migration and Mixing...... CC 101 D3 Particle-Laden Flows: Density Effects...... CC 102 D4 Compressible Flows: Shocks...... CC 103 D5 Combustion I...... CC 104 D6 Granular Flows: Jamming and Cooling...... CC 105 D7 Acoustics II: General...... CC 107 D8 CFD: Turbulent Flows...... CC 108 D9 CFD: Computational Methods and Modeling of Multiphase Flows I. CC 109 D10 Microscale Flows: General...... CC 110 D11 Convection and Buoyancy-Driven Flows: Analytic Techniques...... CC 111 D12 Non-Newtonian Flows: Turbulence...... CC 200 D13 Free Surface Flows II: Waves...... CC 201 D14 Industrial Applications II...... CC 202 D15 General Fluid Dynamics: Viscous Flows...... CC 203 D16 Aerodynamics: Control...... CC 204 D17 Flow Control: Drag Reduction I...... CC 205 D18 Vortex Dynamics: Flow Induced Vibrations and Interactions...... CC 206 D19 Boundary Layers: Structure and Turbulence I...... CC 207 D20 Turbulence: Compressible Flows...... CC 208 D21 Turbulence: Mixing...... CC 209 D22 Turbulent Boundary Layers I...... CC 210 D23 Biofluids: Active Fluids II...... CC 300 D24 Biofluids: Biofilms I...... CC 302 D25 Biofluids: Cells in Flow and Flow in Cells...... CC 304 D26 Biofluids: Flexible Swimmers II...... CC 306 D27 Experiments: Velocity and Vorticity Measurements...... CC 308 D28 Wind Turbines: Blade Design...... CC 309 D29 Nonlinear Dynamics: Coherent Structures II...... CC 310 D30 Geophysical Fluid Dynamics: Wakes and Boundaries...... CC 311 in Stratified Flows D31 Drops: Leidenfrost Effects...... CC 312 D32 Drops: Fragmentation...... CC 313 D33 Drops: Wetting and Spreading I...... CC Ballroom A D34 Drops: Superhydrophobic Surfaces...... CC Ballroom B/C D37 Focus Session: Electro-Hydro-Dynamics of Drops, Vesicles ...... SH Back Bay Ballroom A and Membranes I D38 Flow Instability: Boundary Layers I...... SH Back Bay Ballroom B D39 Flow Instability: Richtmyer-Meshkov I...... SH Back Bay Ballroom C D40 Flow Instability: Rayleigh-Taylor I...... SH Back Bay Ballroom D 16:20 – 16:50 Refreshment Break...... CC Halls C and D 16:50 – 18:08 Concurrent Sessions E1 Porous Media Flows: Clogging and Filtration...... CC Auditorium E2 Suspensions: Rheology II...... CC 101 E3 Fluid Dynamics Outreach and Diversity...... CC 102 E4 Compressible Flows: General...... CC 103

28 Program Summary

16:50 – 18:08 Concurrent Sessions (continued) E5 Combustion II...... CC 104 E6 Reacting Flows: High Speed...... CC 105 E7 High Reynolds Number Experiments...... CC 107 E8 CFD: Turbomachinery...... CC 108 E9 CFD: Computational Methods and Modeling of Multiphase Flows II.CC 109 E10 Microscale Flows: Emulsions...... CC 110 E11 Nanoscale Flows: General...... CC 111 E12 Non-Newtonian Flows: Viscoplasticity...... CC 200 E13 Free Surface Flows III: Marangoni Flows...... CC 201 E14 General Fluid Dynamics: Drag Reduction...... CC 202 E15 Aerodynamics: Unsteady Airfoil and Wing...... CC 203 E16 Aerodynamics: Theory and Vehicles...... CC 204 E17 Flow Control: Instabilities...... CC 205 E18 Flow Control: Actuator Design and Analysis...... CC 206 E19 Boundary Layers: Structure and Turbulence II...... CC 207 E20 Turbulence: Large Eddy Simulations...... CC 208 E21 Turbulence: Planetary Boundary Layers...... CC 209 E22 Turbulent Boundary Layers: Wall Modeling...... CC 210 E23 Biofluids: Fluid-Structure Interaction...... CC 300 E24 Biofluids: Vesicles and Micelles...... CC 302 E25 Superfluids...... CC 304 E26 Experiments: Sensing and Field Measurements...... CC 306 E27 Experiments: Temperature and Velocity Measurements...... CC 308 E28 Wind Turbines: Actuator Lines/Discs...... CC 309 E29 Nonlinear Dynamics and Waves I...... CC 310 E30 Geophysical Fluid Dynamics: Rotating Flows...... CC 311 E31 Geophysical Fluid Dynamics: Atmospheres...... CC 312 E32 Drops: Impact Interactions...... CC 313 E33 Drops: Wetting and Spreading II...... CC Ballroom A E35 Drops: Complex Fluids...... CC Ballroom B E36 Drops: Condensation and Freezing...... CC Ballroom C E37 Focus Session: Electro-Hydro-Dynamics of Drops, Vesicles...... SH Back Bay Ballroom A and Membranes II E38 Flow Instability: General I...... SH Back Bay Ballroom B E39 Flow Instability: Richtmyer-Meshkov II...... SH Back Bay Ballroom C E40 Flow Instability: Vortex Flows...... SH Back Bay Ballroom D

18:15 Buses Begin Loading for APS/DFD Reception...... CC Boylston Street Entrance

19:00 – 22:00 APS/DFD Reception...... Museum of Fine Arts, Boston

Monday, 23 November 08:00 – 10:10 Concurrent Sessions G1 Porous Media Flows: Mixing, Transport and Reaction...... CC Auditorium G2 Suspensions: Gels and Soft Particles...... CC 101 G3 Particle-Laden Flows: Clustering and Dispersion I...... CC 102 G4 General Fluid Dynamics: Obstacles, Flow Constrictions,...... CC 103 Channels G5 Jets I: Mixing, Stability and Turbulence...... CC 104 G6 CFD: Lattice Boltzmann Methods...... CC 105 G7 CFD: Computational Methods and Modeling of...... CC 107 Multiphase Flows III G8 Microscale Flows: Oscillatory Fluid Dynamics...... CC 108 G9 Nanoscale Flows: Basic Flow Physics...... CC 109

29 Program Summary

08:00 – 10:10 Concurrent Sessions (continued) G10 Non-Newtonian Flows: Rheometry and Applications...... CC 110 G11 Rayleigh-Benard Convection I...... CC 111 G12 Wind Turbines: Wind Farms I...... CC 200 G13 Free Surface Flow IV: Thin Film Flow...... CC 201 G14 Electrokinetics: Nanochannels, Surface Conduction,...... CC 202 Concentration Polarization G15 Flow Control: General...... CC 203 G16 Flow Instability: General II...... CC 204 G17 Flow Instability: Nonlinear Dynamics and Global Modes...... CC 205 G18 Interfacial and Thin Films I...... CC 206 G19 Vortex Dynamics: Vortex Identification and Mechanisms...... CC 207 G20 Turbulence: Theory I...... CC 208 G21 Boundary Layers: Rough or Compliant Walls...... CC 209 G22 Turbulent Boundary Layers II...... CC 210 G23 Biofluids: Active Fluids III...... CC 300 G24 Biofluids: Biofilms II...... CC 302 G25 Biofluids: Respiratory Flows...... CC 304 G26 Biofluids: Mechanics of Smelling, Breathing and Tasting...... CC 306 G27 Biofluids: Propulsion: Interactions, Wakes and Jets...... CC 308 G28 Surface Tension Effects: Particles at Interfaces...... CC 309 G29 Nonlinear Dynamics and Waves II...... CC 310 G30 Geophysical Fluid Dynamics: Mesoscale and Submesoscale...... CC 311 G31 Drops: Electrowetting and Charge Effects...... CC 312 G32 Drops: Particle-Droplet Interactions...... CC 313 G33 Drops: Bouncing, Impact and Dynamic Surface Interactions I...... CC Ballroom A G35 Drops: Heat Transfer and Evaporation...... CC Ballroom B G36 Bubbles: Surfactants and Foams...... CC Ballroom C G37 Minisymposium: Hydraulic Fracturing...... SH Back Bay Ballroom A G38 Acoustics III: Aero-Acoustics...... SH Back Bay Ballroom B G39 Flames: Pre-Mixed Flames and Flame Instabilities...... SH Back Bay Ballroom C G40 Ignition...... SH Back Bay Ballroom D

10:10 – 10:35 Refreshment Break...... CC Halls C and D

10:35 – 12:45 Concurrent Sessions H1 Porous Media Flows: Wicking, Imbibition and Swelling...... CC Auditorium H2 Suspensions: Theory and Modeling...... CC 101 H3 Particle-Laden Flows: Particle Interactions...... CC 102 H4 Fluid Dynamics Education...... CC 103 H5 Jets II: Impinging...... CC 104 H6 CFD: Reactive Flows II...... CC 105 H7 CFD: Computational Methods and Modeling of...... CC 107 Multiphase Flows IV H8 Microscale Flows: Flow in Microchannels...... CC 108 H9 Nanoscale Flows: Membranes for Filtering and Separation...... CC 109 H10 Granular Flows: Mixing, Segregation and Separation...... CC 110 H11 Rayleigh-Benard Convection II...... CC 111 H12 Wind Turbines: Vertical Axis...... CC 200 H13 Free Surface Flows V: Jets, Hydraulic Jumps, Impact...... CC 201 H14 Electrokinetics: Particles, Semipermeable Membranes,...... CC 202 Charged Surfaces H15 Flow Control: Drag Reduction II...... CC 203 H16 Aerodynamics: Fluid-Structure Interaction I...... CC 204 H17 Flow Instability: Boundary Layers II...... CC 205 H18 Flow Instability: Interfacial and Thin Films II...... CC 206

30 Program Summary

10:35 – 12:45 Concurrent Sessions (continued) H19 Vortex Dynamics: Dipoles, Pairs and Instabilities...... CC 207 H20 Turbulent Taylor-Couette and Mixing...... CC 208 H21 Turbulence: Modeling I...... CC 209 H22 Turbulent Boundary Layers III...... CC 210 H23 Biofluids: Squirmers, Cilia and Pumping...... CC 300 H24 Biofluids: Cardiovascular Fluid Dynamics I...... CC 302 H25 Biofluids: Biflagellates and Synchronization...... CC 304 H26 Biofluids: Phonation, Speech and Airway Mechanics...... CC 306 H27 Biofluids: Biological Fluid Dynamics: Flight...... CC 308 H28 Surface Tension Effects: General...... CC 309 H29 Nonlinear Dynamics: Model Reduction...... CC 310 H30 Geophysical Fluid Dynamics: Air-Sea and Wave Interaction...... CC 311 H31 Waves: General...... CC 312 H32 Drops: Elastic Surfaces and Fibers...... CC 313 H33 Drops: Bouncing, Impact, and Dynamic Surface Interactions II...... CC Ballroom A H35 Bubbles: Heat Transfer and Boiling...... CC Ballroom B H36 Bubbles: Micro-bubbles and Nano-bubbles...... CC Ballroom C H37 Separated Flows...... SH Back Bay Ballroom A H38 Acoustics IV: Aero-Acoustics...... SH Back Bay Ballroom B H39 Flames: Premixed Flames...... SH Back Bay Ballroom C H40 Rarefied Flows and DSMC...... SH Back Bay Ballroom D 12:45 – 13:55 Lunch...... on your own 12:45 – 13:55 Student Lunch...... SH Republic Ballroom 12:45 – 13:55 Women in Fluids Networking Lunch...... Piattini Café, 226 Newbury St. 13:55 – 14:30 Invited Lectures J1 Invited Session: Microhydrodynamics of Deformable Particles:...... CC Auditorium Surprising Responses of Drops and Vesicles to Uniform Electric Field or Shear Flow J34 Invited Session: Using Optimisation to Identify the “Best” Way...... CC Ballroom B/C to Trigger Flow Transition 14:30 – 14:45 Mini Break 14:45 – 15:20 Invited Lectures K1 Invited Session: Flow Near Singular Elastic Interfaces:...... CC Auditorium Lubrication, Wetting and Cusps K34 Invited Session: Instability and Turbulence of Propagating...... CC Ballroom B/C Particulate Flows 15:20 – 16:05 Refreshment Break...... CC Halls C and D 15:20 – 16:05 Poster Sessions KP1 Technical Poster Session...... CC Exhibit Hall D (Technical ...... Poster Display Area) KP2 Student Poster Session...... CC Exhibit Hall D ...... (Student Poster Display Area) GFM Prize Annnouncement...... CC Exhibit Hall D ...... (GFM Video Display Area) 16:05 – 18:41 Concurrent Sessions L1 Porous Media Flows: General...... CC Auditorium L2 Particle-Laden Flows: Turbulence-Particle Interactions...... CC 101 L3 General Fluid Dynamics: Theory...... CC 102 L4 Stratified Boundary Layers...... CC 103 L5 Jets III: General...... CC 104 L6 CFD: Applications I...... CC 105 31 Program Summary

16:05 – 18:41 Concurrent Sessions (continued) L7 CFD: Immersed Boundary Method...... CC 107 L8 CFD: High Order and Discontinuous Galerkin Methods...... CC 108 L9 CFD: Large Eddy Simulation I...... CC 109 L10 Granular Flows: General...... CC 110 L11 Convection and Buoyancy-Driven Flows: Turbulence...... CC 111 L12 Wind Turbines: Wind Farms II...... CC 200 L13 Wind Turbines: Wakes...... CC 201 L14 Aerodynamics: Fluid-Structure Interaction II...... CC 202 L15 Flow Control: Vortices and Turbulence...... CC 203 L16 Aerodynamics: Unsteady Aerodynamics I...... CC 204 L17 Flow Instability: Richtmyer-Meshkov III...... CC 205 L18 Flow Instability: Interfacial and Thin Films III...... CC 206 L19 Vortex Dynamics: Vortex Rings...... CC 207 L20 Turbulence: Particle-Laden Flows...... CC 208 L21 Turbulence: Compressible Boundary Layers and Jets...... CC 209 L22 Turbulent Boundary Layers IV...... CC 210 L23 Biofluids: Cardiovascular Disease I: Aneurysms...... CC 300 L24 Biofluids: Cardiovascular Fluid Dynamics II...... CC 302 L25 Biofluids: Cell Interactions and Transport...... CC 304 L26 Biofluids: Complex Fluids: Locomotion and Rheology...... CC 306 L27 Biofluids: Insect Flight: Dynamics and Control...... CC 308 L28 Surface Tension Effects: Interfacial Phenomena...... CC 309 L29 Geophysical Fluid Dynamics: Internal Wave Dynamics...... CC 310 L30 Geophysical Fluid Dynamics: Stratified Turbulence...... CC 311 L31 Waves: Nonlinear Waves and Turbulence...... CC 312 L32 Experiments: General Methods...... CC 313 L33 Experiments: PIV Techniques...... CC Ballroom A L35 Drops: Pinch-off and Coalescence...... CC Ballroom B L36 Bubbles: Cavitation and Coalescence...... CC Ballroom C L37 Minisymposium: Cavitation in Soft Tissue...... SH Back Bay Ballroom A L38 Microscale Flows: Drops, Bubbles...... SH Back Bay Ballroom B L39 Microscale Flows: Particles, Orientation, Active Matter...... SH Back Bay Ballroom C and Self Assembly L40 Microscale Flows: Microfluidic Devices I...... SH Back Bay Ballroom D L41 Russell Donnelly Minisymposium...... SH Constitution Ballroom A 18:00 – 19:30 Meet the APS Journal Editors Reception...... CC Room 300 Foyer

Tuesday, 24 November 08:00 – 10:10 Concurrent Sessions M1 Industrial Applications III...... CC Auditorium M2 Flames: Non-premixed Flames...... CC 101 M3 Suspensions: General...... CC 102 M4 Particle-Laden Flows: Clustering and Dispersion II...... CC 103 M5 Nonlinear Dynamics: General...... CC 104 M6 Nonlinear Dynamics: Transition and Turbulence...... CC 105 M7 CFD: High Performance Computing...... CC 107 M8 Microscale Flows: Interfaces and Wetting...... CC 108 M9 Nanoscale Flows: Computations...... CC 109 M10 Convection and Buoyancy-Driven Flows: Rotation...... CC 110 M11 Convection and Buoyancy-Driven Flows: Numerical Studies...... CC 111 M12 Granular Flows: Shear and Drag...... CC 200 M13 Aerodynamics: Membranes and Flutter...... CC 201 M14 Vortex Dynamics: General...... CC 202 M15 Vortex Dynamics: Applications...... CC 203 32 Program Summary

08:00 – 10:10 Concurrent Sessions (continued) M16 Flow Instability: Interfacial and Thin Films IV...... CC 204 M17 Flow Instability: Multiphase Flow...... CC 205 M18 Flow Instability: Rayleigh-Taylor II...... CC 206 M19 Turbulence: Measurements...... CC 207 M20 Turbulence: Wakes and Flows Behind Grids...... CC 208 M21 Turbulence: Modeling II...... CC 209 M22 Turbulence: Multiphase Flows...... CC 210 M23 Biofluids: Undulatory Swimming in Newtonian and...... CC 300 Non-Newtonian Fluids M24 Biofluids: Cardiovascular Disease II...... CC 302 M25 Biofluids: Transport and Control...... CC 304 M26 Biofluids: Medical Devices...... CC 306 M27 Experiments: Analysis, Image Processing and Algorithms...... CC 308 M28 Experiments: Visualization, Tagging and Tracking...... CC 309 M29 Geophysical Fluid Dynamics: Cryosphere and...... CC 310 Ice-Ocean Interactions M30 Geophysical Fluid Dynamics: Gravity Currents...... CC 311 M31 Waves: Internal and Interfacial Waves...... CC 312 M32 Drops: Impact on Surfaces...... CC 313 M33 Drops: Walking Drops...... CC Ballroom A M35 Drops: General...... CC Ballroom B M36 Bubbles: Cavitation, Acoustics and Biomedical...... CC Ballroom C M39 General Fluid Dynamics: Obstacles and Boundaries...... SH Back Bay Ballroom C M40 Focus Session: Reconfiguration I...... SH Back Bay Ballroom D 10:10 – 10:40 Refreshment Break...... CC Halls C and D 10:40 – 11:15 Invited Lectures N1 Invited Session: Flows Driven by Libration, Precession and...... CC Auditorium Tides in Planetary Cores N34 Invited Session: New Methods for State Estimation and...... CC Ballroom B/C Adaptive Observation of Environmental Flow Systems Leveraging Coordinated Swarms of Sensor Vehicles 11:15 – 11:20 Mini Break 11:20 – 11:40 Invited Lectures P1 Francois N. Frenkiel Award Lecture...... CC Auditorium P34 Andreas Acrivos Dissertation Award Lecture...... CC Ballroom B/C 11:40 – 12:50 Lunch...... on your own 12:50 – 15:26 Concurrent Sessions R1 Industrial Applications IV: Marine Hydrokinetic Energy Conversion.CC Auditorium R2 Detonation and Explosion...... CC 101 R3 CFD: Large Eddy Simulation II...... CC 102 R4 CFD: Applications II...... CC 103 R5 CFD: Uncertainty Quantification...... CC 104 R6 CFD: General...... CC 105 R7 CFD: Algorithms...... CC 107 R8 Microscale Flows: Particles...... CC 108 R9 Microscale Flows: Microfluidic Devices II...... CC 109 R10 Convection and Buoyancy-Driven Flows: General...... CC 110 R11 Convection and Buoyancy-Driven Flows: Experimental Studies...... CC 111 R12 Granular Flows: Fluctuations and Instabilities...... CC 200 R13 Aerodynamics: Unsteady Aerodynamics II: Flapping and...... CC 201 Flexible Wings R14 Aerodynamics: General...... CC 202

33 Program Summary

12:50 – 15:26 Concurrent Sessions (continued) R15 Vortex Dynamics: Theory...... CC 203 R16 Flow Instability: Interfacial and Thin Films V...... CC 204 R17 Flow Instability: Transition to Turbulence...... CC 205 R18 Boundary Layers: Superhydrophobic Surfaces...... CC 206 R19 Turbulence: Theory II...... CC 207 R20 Turbulence: Theory: Wall-Bounded Flows...... CC 208 R21 Turbulence: DNS...... CC 209 R22 Turbulent Boundary Layers: Roughness...... CC 210 R23 Biofluids: Red Blood Cell Dynamics and Clotting...... CC 300 R24 Biofluids: Cardiovascular Disease III...... CC 302 R25 Multiphase Flows: Bubbly Flows, Cavitation and Ventilation...... CC 304 R26 Multiphase Flows: General...... CC 306 R27 Experiments: Particles, Drops, and Bubbles...... CC 308 R28 Geophysical Fluid Dynamics: General...... CC 309 R29 Geophysical Fluid Dynamics: Sediment Transport...... CC 310 R30 Astrophysical Fluid Dynamics...... CC 311 R31 Waves: Surface Waves...... CC 312 R32 General Fluid Dynamics: Rotating Flows and...... CC 313 Multi-Physics Phenomena R33 Drops: Wetting and Spreading III...... CC Ballroom A R35 Drops, Bubbles and Foams: Collective Dynamics...... CC Ballroom B R36 Bubbles: Dynamics...... CC Ballroom C R37 Biofluids: Swimming Animals...... SH Back Bay Ballroom A R38 Biofluids: Flexible Swimmers III...... SH Back Bay Ballroom B R39 Biofluids: Swimmer-Surface Interactions...... SH Back Bay Ballroom C R40 Focus Session: Reconfiguration II...... SH Back Bay Ballroom D R41 Minisymposium on Turbulence in Honor of John L. Lumley...... SH Constitution Ballroom A

34 68th Annual Meeting of the Division of Fluid Dynamics

22 – 24 November 2015

Schedule of Papers Sunday, 22 November 37 – 60

Monday, 23 November 61 – 98 KP1: Technical Poster Session 79 – 87 KP2: Student Poster Competition 88 – 89

Tuesday, 24 November 99 – 118

35 36 Sunday, 22 November 2015 Sessions A – E

37 Sunday Morning, 22 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 A1. Porous Media Flows: A1.01 Channelization and avalanche A1.02 Impact of ductility on hydraulic A1.03 Fluid-driven fractures in brittle A1.04 High Speed Strain A1.05 Visualizing 3D fracture A1.06 Wettability and its impact on Fracturing dynamics of sediments in a fracture fracturing in shales L. Auton, hydrogels N. O’Keeffe, P.Linden Measurements Surrounding Hydraulic morphology in granular media hydro-capillary fracturing in granular Room: Auditorium driven by fluid flow A. Kudrolli, C. MacMinn Fracture in Brittle Hydrogel M. Dalbe, R. Juanes media M. Trojer, P.deAnna, R. Juanes Chair: A. Kudrolli, Clark U. X. Clotet W. Steinhardt, S. Rubinstein A2. Suspensions: Rheology I A2.01 Rheology of dense A2.02 Shear thickening regimes of A2.03 Hydrodynamic diffusion in A2.04 A new state transition in the A2.05 Rheology and particle A2.06 Concentration and velocity Room: 101 suspensions of non colloidal spheres in non-Brownian suspensions C. Ness, non-colloidal suspensions: the role of rheology of dense suspensions dynamics near the flow-arrest measurements in non-Brownian Chair: E. Guazzelli, Aix-Marseille U. yield-stress fluids E. Guazzelli, J. Sun interparticle forces N. Hoh, R. Zia R. Maharjan, E. Brown transition: a constant stress and suspensions using ultrasonic imaging S. Dagois-Bohy, S. Hormozi, pressure approach M. Wang, J. Brady B. Saint-Michel, H. Bodiguel, O. Pouliquen S. Meeker, S. Manneville A3. Particle-Laden Flows: A3.01 Particle size distribution A3.02 Motions of particles falling A3.03 Mass transfer in a flow past a A3.04 On the effect of the particle A3.05 Numerical Simulation of A3.06 Heat Transfer and Drag of a Compressibility, Heat and effects in an irradiated turbulent under gravity in a weakly turbulent non-porous catalyst sphere B. Sun, size distribution tails in irradiated Shock Interaction with Deformable Sphere: Variable Density and Mass Transfer Effects gas-particle mixture M. Rahmani, Rayleigh-Bnard convection S. Park, S. Tenneti, S. Subramaniam turbulent gas-particle mixture Particles Using a Constrained Interface Buoyancy Effects S. Ganguli, S. Lele Room: 102 G. Geraci, G. Iaccarino, A. Mani C. Lee G. Geraci, M. Rahmani, A. Mani, Reinitialization Scheme T. Jackson, Chair: A. Mani, Stanford U. G. Iaccarino P.Sridharan, J. Zhang, S. Balachandar A4. Particle-Laden Flows: A4.01 Investigation of turbulence A4.02 Modulation to the A4.03 Particle-Resolved A4.04 Effects of finite-size particles A4.05 Fully-resolved slumping of a A4.06 Near-wall turbulence Turbulence Modulation modulation in particle-laden flows compressible homogenous turbulence Direct-Numerical Simulation of on the turbulent flows in a square duct pile of spheres in a fluid Y. Wang, modification by small, heavy particles Room: 103 using the lattice Boltzmann method. by heavy point particles: Effect of Turbulent Particle-Laden Flows Using Z. Yu, Z. Lin, X. Shao, L. Wang A. Sierakowski, A. Prosperetti in a horizontal channel flow J. Lee, Chair: K. Mahesh, U. of Minnesota C. Peng, N. Geneva, H. Min, L. Wang particles’ density Z. Xia, Y. Shi, Unstructured Overset Meshes C. Lee S. Chen W. Horne, K. Mahesh A5. Reacting Flows: General A5.01 Inside out: Speed-dependent A5.02 A Gibbs Formulation for A5.03 Propagation of symmetric and A5.04 Fluid-Plasma Coupling in A5.05 Supersonic Particle Impacts: A5.06 SPIV study of two interactive Room: 104 barriers to reactive mixing D. Kelley, Reactive Materials with Phase Change non-symmetric lean hydrogen flames Hydrogen Flames L. Massa, J. Retter, Cold Spray Deposition of Polymeric fire whirls K. Hartl, A. Smits Chair: D. Kelley, U. of Rochester T. Nevins D. Stewart in narrow channels: influence of heat N. Glumac, G. Elliot, J. Freund Material T. Bush, D. Schmidt, losses C. Jimenez, V. Kurdyumov J. Rothstein A6. Granular Flows: Force A6.01 Quantitative Comparison of A6.02 Local to global avalanches in A6.03 Avalanches and local force A6.04 Force network in a A6.05 Forces and flows during high A6.06 Fluid mechanical scaling of Transmission Experiments and Numerics in Granular sheared granular materials D. weng, evolution in a granular stick-slip three-dimensional sheared material speed impacts on a non-Newtonian impact craters in unconsolidated Room: 105 Materials J. Dijksman, J. Ren, D. Wang, T. Bertrand, J. Bares, experiment A. Abed Zadeh, J. Bares, N. Brodu, J. Bares, J. Dijksman, suspension M. Lim, J. Bares, granular materials C. Miranda, Chair: J. Dijksman, Wageningen U. R. Behringer, L. Kovalcinova, L. Kondic, B. Berhinger R. Behringer B. Behringer R. Behringer D. Dowling M. Kramar, K. Mischaikow A7. Acoustics I: A7.01 Thermomechanical Response A7.02 Modeling and analysis of A7.03 Azimuthally forced flames in A7.04 Net Effect of Work Done by A7.05 Acoustic Streaming and A7.06 Thermoacoustic instability in Thermo-Acoustics of a Gas to Spatially Resolved Power thermoacoustic instabilities in an an annular combustor N. Worth, Fluid Particles in the Taconis Thermal Instability of Flow Generated the presence of entropy waves Room: 107 Deposition Transients D. Kassoy annular combustor S. Murthy, J. Dawson, E. Mastorakos Oscillations in a Closed Cylindrical by Ultrasound in a Cylindrical undergoing advective shear dispersion Chair: D. Kassoy, U. of Colorado, T. Sayadi, V. Le Chenadec, P.Schmid Tube K. Ishii, S. Adachi, H. Hayashi, Container A. Green, D. Ma, A. Morgans, J. Li Boulder I. Menshov J. Marshall, J. Wu A8. Magnetohydrodynamics A8.01 Elevator mode convection in A8.02 Thermal convection in a A8.03 Instability of secondary flows A8.04 Longtime persistence of linear A8.05 Non-linear interactions of A8.06 Stochastic Non-Resistive Room: 108 liquid metal blankets for fusion reactors horizontal duct with strong axial in an electromagnetically forced curved dynamic in magnetoconvection magneto-Poincare and Magnetohydrodynamic System with ´ Chair: O. Zikanov, U. of Michigan - O. Zikanov, L. Liu magnetic field X. Zhang, O. Zikanov duct J. Boisson, R. Monchaux, S. Renaudiere de Vaux, R. Zamansky, magnetostrophic waves in rotating Levy Noise M. T. Mohan, S. S. Dearborn S. Aumatre W. Bergez, P.Tordjeman shallow water magnetohydrodynamic Sritharan , U. Manna A. Petrosyan, D. Klimachkov A9. Flow Instability: Wakes A9.01 Vortex pairing in the wake of A9.02 Experimental investigation of A9.03 Experimental investigation of A9.04 The effect of Reynolds A9.05 Flow instabilities behind A9.06 WITHDRAWN . Room: 109 an oscillating bubble rising in a freely falling thin disks: Transition of the elastic flag spontaneous flapping in number on the drag of a rectangular rotating bluff bodies for moderate Chair: P. Ern, IMFT thin-gap cell P.Ern, A. Filella, V. Roig three-dimensional motion from zigzag water flow Y. Jia, L. Jia, Z. Su, Y. Zhu, cylinder R. Breidenthal, J. Wai Reynolds number S. Goujon-Durand, to spiral Z. Su, C. Lee H. Yuan, C. Lee K. Gibi?ski, M. Skarysz, J. Wesfreid A10. Microscale Flows: A10.01 Energy Conversion over A10.02 Numerical Optimization A10.03 Electroconvection near the A10.04 Simultaneous Aggregation A10.05 2D Flow patterning in A10.06 Continuous-flow Electrokinetics Super-hydrophobic Surfaces H. Zhao, Strategy for Determining 3D Flow interface of ion-selective membranes and Height Bifurcation of Colloidal Hele-Shaw configurations using Electrophoretic Separation of Particles Room: 110 S. Zhai Fields in Microfluidics A. Eden, and a microchannel K. Wang, A. Mani Particles near Electrodes in Oscillatory Non-Uniform Electroosmotic Slip with Dissimilar Charge-to-Mass Ratios Chair: H. Zhao, U. of Nevada Las M. Sigurdson, I. Mezic, C. Meinhart Electric Fields S. Bukosky, E. Boyko, S. Rubin, A. Gat, via the Wall-induced Non-inertial Lift Vegas W. Ristenpart M. Bercovici C. Thomas, A. Todd, X. Lu, X. Xuan

38 Sunday Morning, 22 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 A11. Convection and A11.01 Plumes from vertical A11.02 Predicting The Intrusion A11.03 Critical modes due to A11.04 Bifurcation and Stability A11.05 Sedimentation from A11.06 Computational study of the Buoyancy-Driven Flows: buoyancy sources detrain - where does Layer From Deep Ocean Oil Spills Archimedean buoyancy and Analyses in Horizontal Convection Particle-Laden Plumes in Stratified formation and evolution of a Plumes it matter? R. Bonnebaigt, C. Caulfield, D. Wang, A. Chow, E. Adams dielectrophoretic force in a dielectric P.Passaggia, A. Scotti, B. White Fluid B. Sutherland, Y. Hong three-dimensional gravity current Room: 111 P.Linden liquid in cylindrical annulus A. Meyer, A. Ooi, S. Zhu, N. Zgheib, Chair: R. Bonnebaigt, U. of Cambridge H. Yoshikawa, O. Crumeyrolle, B. Sivaramakrishnan I. Mutabazi A12. Non-Newtonian Flows: A12.01 The primary instability of A12.02 Lopsided coatings of a A12.03 Synchronized A12.04 Origin and nature of the high A12.05 Compressible Viscoelastic A12.06 Shear alignment of lamellar Simulation and Stability viscoelastic flow through a curvilinear visco-elastic fluid on a vertical fibre Molecular-Dynamics simulation for Weissenberg number singularity and Flows Generated by Vibrating mesophase systems J. S.J., K. V. Room: 200 square–duct channel is a Hopf E. Hinch, C. McIlroy thermal lubrication of a polymeric liquid its removal via a new Boltzmann-type Nanoscale Structures in Simple Liquids Chair: C. Wagner, Saarland U. bifurcation C. Wagner between parallel plates S. Yasuda, molecular non-Hookean model J. Sader, D. Chakraborty, M. Pelton, R. Yamamoto R. Myong E. Malachosky, P.Guyot-Sionnest, K. Yu, T. Major, M. Sajini Devadas, G. Hartland A13. Free Surface Flows I: A13.01 A Reduced Order Model for A13.02 Modeling variable density A13.03 A Study of Water Wave A13.04 Footprints of turbulence over A13.05 The Turbulent Boundary A13.06 DNS of air entrainment at Wakes and Turbulence Wake Surface-Wave Interaction turbulence in the wake of an Wakes of Washington State Ferries a viscous liquid M. Rabaud, Layer Near the Air-Water Interface on a the air-water interface of a temporally Room: 201 L. Pauley, A. Mehdizadeh air-entraining transom stern B. Perfect, J. Riley, J. Thomson, E. Fay A. Paquier, F. Moisy Surface-Piercing Flat Plate developing turbulent boundary layer Chair: L. Pauley, Penn State U. K. Hendrickson, D. Yue N. Washuta, N. Masnadi, J. Duncan F. Nasiri, E. Balaras A14. Industrial Applications I A14.01 A Respiratory A14.02 A Phase-Field Method for A14.03 Shape optimisation of an A14.04 Validated Analytical Model of A14.05 Flow control of a centrifugal A14.06 The Other Source of Inducer Room: 202 Airway-Inspired Low-Pressure, Simulating Fluid-Structure Interactions underwater Bernoulli gripper T. Flint, a Pressure Compensation Drip fan in a commercial air conditioner Backflow T. Fanning, R. Lundgreen, Chair: R. Wang, MIT Self-Regulating Valve for Drip Irrigation in Multi-Phase Flow X. Zheng, M. Sellier Irrigation Emitter P.Shamshery, J. Kim, K. Bang, H. Choi, E. Seo, D. Maynes, S. Gorrell, K. Oliphant R. Wang, A. Winter G. Karniadakis R. Wang, K. Taylor, D. Tran, A. Winter Y. Kang A15. Flow Control: Passive A15.01 Passive control of a sphere A15.02 The effect of splitter plate on A15.03 Investigation and control of A15.04 Control of Vortex Shedding A15.05 Experimental investigation of A15.06 Experimental Observation of Room: 203 by complex-shaped appendages fluid flow and heat transfer dynamic stall of an aerofoil ramp up on an Airfoil using Mini Flaps at Low flow past a sphere with trip Hairy Surface Exposed in Airflow Chair: S. Bagheri, KTH S. Bagheri, U. Lacis, S. Olivieri, characteristics past various bluff-body motion M. Rosti, M. Omidyeganeh, Reynolds Number D. Oshiyama, R. Deshpande, A. Desai, V. Kanti, M. Hasegawa, H. Sakaue A. Mazzino configurations S. Soumya, K. Prakash A. Pinelli D. Numata, K. Asai S. Mittal A16. Flow Control: Theory A16.01 Real-time Estimation of the A16.02 The importance of being A16.03 Low order modelling for A16.04 Contractive control design A16.05 Control of laminar wake A16.06 A suboptimal feedback Room: 204 Gaseous Plume Using a Formation of fractional in mixing: optimal choice of feedback control of fluid flows around for Navier-Stokes systems with the flows using the Sum-of-Squares control theory based on a quadratic s Chair: M. Demetriou, Worcester Unmanned Aerial Vehicles the index s in H− norm complex geometries O. Dellar, incompressibility constraint relaxed approach D. Lasagna, O. Tutty, sensitivity and tabulation approach Polytechnic Institute M. Demetriou, T. Egorova, N. Gatsonis L. Vermach, C. Caulfield B. Jones H. Yu, P.Beyhaghi, T. Bewley D. Huang, S. Chernyshenko Y. Kim, S. Kang A17. Flow Control: A17.01 Characterization and Control A17.02 Aerodynamic Control using A17.03 Understanding the A17.04 Control of Trapped Vorticity A17.05 Aerodynamic Control of a A17.06 Fast-flap Actuation for Separation of Separated Entrance Flow in a Distributed Active Bleed J. Kearney, Response of Separated Flow over an in an Offset Diffuser T. Burrows, Dynamically Pitching Airfoil using Attenuating Gust Response M. OL, Room: 205 Branched Channel C. Peterson, A. Glezer Airfoil under a Single-pulse Actuation B. Vukasinovic, A. Glezer Transitory Pulsed Actuation Y. Tan, K. Granlund‘, A. Medina Chair: A. Glezer, Georgia Tech B. Vukasinovic, A. Glezer A. de Castro da Silva, T. Colonius T. Crittenden, A. Glezer A18. Vortex Dynamics: A18.01 Sensitivity of A18.02 Computations of flow in an A18.03 Buoyancy-Induced, A18.04 Numerical Investigation of A18.05 NonBoussinesq effects on A18.06 Flow hydrodynamics and Energy Harvesting and two-dimensional flow past transversely anchored Solar Vortex D. Min, Columnar Vortices M. Simpson, Synthetic Buoyancy-Induced Columnar vorticity and kinetic energy production contaminant transport in the flow past Atmospheric Flows oscillating cylinder to streamwise P.Fischer, A. Pearlstein A. Glezer Vortices N. Malaya, R. Stogner, S. Ravichandran, H. Dixit, a lateral square cavity C. Escauriaza, Room: 206 cylinder oscillations G. Triantafyllou, R. Moser R. Govindarajan J. Polanco, O. August, D. Bolster Chair: G. Triantafyllou, National S. Peppa Technical U. of Athens A19. Boundary Layers: A19.01 Time-resolved Tomo-PIV A19.02 Effect of viscosity A19.03 Boundary layer similarity A19.04 The effect of thin liquid films A19.05 The motion induced between A19.06 Investigation of turbulence General measurements of the interaction stratification on stability of flow driven by power-law shear over a on boundary-layer separation radial extensional plates with one or structure over impermeable and Room: 207 between a stationary held sphere and axisymmetric boundary layer nonlinearly stretching surface R. Cimpeanu, D. Papageorgiou, both plates shrinking P.Weidman, permeable rough walls with identical Chair: R. Van-Hout, Technion Israel a turbulent boundary layer. R. van N. Jayaprasad, V. Narayanan D. Kubitschek, P.Weidman M. Kravtsova, A. Ruban E. Perocco topography T. Kim, G. Blois, J. Best, Institute of Technology Hout, J. Eisma, E. Overmars, K. Christensen G. Elsinga, J. Westerweel A20. Turbulence: Thermal A20.01 The Power Law and Log-law A20.02 Connections between A20.03 Influence of wall roughness A20.04 How different is Buoyant A20.05 Skin friction field and thermal A20.06 The effect of turbulent Flows Behaviors of the Accelerated Thermal density, wall-normal velocity, and and thermal coductivity on turbulent Turbulence from Isotropic Turbulence? plume formation in turbulent convection fluctuations on the relaxation of Room: 208 Turbulent Boundary Layer L. Castillo, coherent structure in a heated turbulent natural convection P.Orlandi, J. Claret, G. Blanquart J. Schumacher, V. Bandaru, thermal non-equilibrium S. Khurshid, Chair: L. Castillo, Texas Tech U. G. Araya, F. Hussain boundary layer T. Saxton-Fox, S. Pirozzoli, M. Bernardini A. Kolchinskaya, J. Scheel, D. Donzis S. Gordeyev, A. Smith, B. McKeon K. Padberg-Gehle

39 Sunday Morning, 22 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 A21. Turbulence: A21.01 Simulations of turbulence A21.02 Flow over and within A21.03 A large-eddy simulation A21.04 LES for wind turbulence in A21.05 Entrainment Across a A21.06 Entrainment of Vertical Jets Environmental Flows and dispersion in idealized urban large-scale porous topography: Impact study on statistical attributes of canopy layer at large urban area Sheared Density Interface in High in Turbulent Cross Flow G. Freedland, Room: 209 canopies using a new kinetic scheme of surface heterogeneity on turbulence urban-like geometries relevant to T. Tamura, H. Kawai, R. Bale, K. Onishi, Richardson Number Cavity Flow K. Roberts, L. Mastin, S. Solovitz, Chair: L. Wang, U. of Delaware L. Wang, P.Huq, Z. Guo structure A. Hamed, P.Ranjan, parameterizing bulk aerodynamic M. Tsubokura, K. Kondo, T. Nozu N. Williamson, M. Kirkpartick, R. Cal M. Sadowski, H. Nepf, L. Chamorro characteristics X. Zhu, W. Anderson S. Armfield A22. Turbulence: Free Shear A22.01 Vorticity Based Intermittency A22.02 On the role of the large-scale A22.03 Surface roughness effects on A22.04 Turbulent Scalar Flux A22.05 Space-Time Correlations in A22.06 SPIV Measurements for Layers and Jets – Low Speed Side of A Single Stream gradients in the scale interactions in a vortex dynamics in turbulent impinging Modeling for Inclined Jets in Crossflow: a Turbulent Gas-Phase Jet Identifying Turbulence Structure in Room: 210 Shear Layer J. Foss, K. Bade, mixing layer D. Fiscaletti, A. Attili, jet W. Wu, R. Banyassady, U. Piomelli an Optimization Approach P.Milani, M. Papageorge, J. Sutton Swirling Jets E. DeMillard, Chair: J. Foss, Michigan State U. R. Prevost, D. Neal F. Bisetti, G. Elsinga K. Ryan, J. Eaton P.Nikoueeyan, J. Naughton A23. Biofluids: Active Fluids I A23.01 Nematic long-range ordering A23.02 The swim force as a body A23.03 Diffusion in active A23.04 Efficient Simulation of a A23.05 Biogenic mixing induced by A23.06 Collective motion of Room: 300 of topological defects in active liquid force W. Yan, J. Brady suspension of microswimmers Large Number of Microswimmers intermediate Reynolds number microswimmers in viscoelastic fluids Chair: J. Dunkel, MIT crystals J. Dunkel, A. Oza E. CLIMENT, B. DELMOTTE, Using Fast Multipole Method swimming at pycnoclines S. Wang, G. Li, A. Ardekani F. Plouraboue, E. KEAVENY, M. Rostami, S. Olson A. Ardekani M. MARTIN, S. RAFAI, P.PEYLA, E. BERTIN A24. Biofluids: General A24.01 Transcapillary Trafficking of A24.02 Transversal mixing in the A24.03 Fluid dynamic modelling of A24.04 The intestine is a blender A24.05 Fluid-solid modeling of A24.06 A model for gas and nutrient Physiology Clustered Circulating Tumor Cells gastrointestinal tract D. Vainchtein, renal pelvic pressure during P.Yang, M. LaMarca, D. Hu lymphatic valves A. Caulk, M. Ballard, exchange in the chorionic vasculature Room: 302 B. Storey, S. Au, Y. Chen, F. Sarioglu, P.Orthey, H. Parkman endoscopic stone removal A. Oratis, Z. Nepiyushchikh, B. Dixon, A. Alexeev system of the mouse placenta Chair: B. Storey, Olin College S. Javaid, D. Haber, S. Maheswaran, J. Subasic, J. Bird, B. Eisner P.Mirbod, J. Sled S. Stott, M. Toner A25. Biofluids: Plant A25.01 Scaling of phloem structure A25.02 Biophysical analysis of water A25.03 Fluid dynamics of A25.04 Leaf reconfiguration in wind A25.05 Scientific designs of pine A25.06 Switchable and Tunable Biomechanics and optimality of sugar transport in filtration phenomenon in the roots of two-dimensional pollination in Ruppia as a potential mechanism of seeds and pine cones for species Aerodynamic Drag on Cylinders Room: 304 conifer needles K. Jensen, halophytes K. Kim, S. Lee (widgeon grass) N. Musunuri, phytopathogen propagule liberation conservation K. Song, E. Yeom, M. Guttag, F. Lopez Jimenez, P.Reis Chair: K. Jensen, Technical U. of H. Ronellenfitsch, J. Liesche, D. Bunker, S. Pell, I. Fischer, P.Singh T. Gonzalinajec H. Kim, S. Lee Denmark N. Holbrook, A. Schulz, E. Katifori A26. Biofluids: Flexible A26.01 The hydrodynamics of linear A26.02 Effect of aspect ratio in A26.03 Numerical simulations of A26.04 Numerical Investigation of A26.05 3D Kinematics and A26.06 Investigation of the Role of Swimmers I accelerations in bluegill sunfish, free-swimming plunging flexible plates chordwise flexible pitching foils: are the C-start in an Elastic Plate Hydrodynamic Analysis of Freely Planform Shape and Swimming Gait in Room: 306 Lepomis macrochirus T. Wise, P.Yeh, A. Alexeev expanding or contracting forms more D. Canuto, J. Eldredge, R. Zenit Swimming Cetacean Y. Ren, Cetacean Propulsion F. Ayancik, Chair: E. Tytell, Tufts U. A. Boden, M. Schwalbe, E. Tytell efficient? K. Schneider, T. Engels, D. Sheinberg, G. Liu, H. Dong, F. Fish, F. Fish, K. Moored D. Kolomenskiy, J. Sesterhenn J. Javed A27. Biofluids: Flapping A27.01 Vortex Loop Topology During A27.02 Schooling of two tandem A27.03 “Schooling” of wing pairs in A27.04 Experimental Investigation of A27.05 Investigating the Force A27.06 Torsional spring is the Room: 308 the Stroke Reversal of a Flapping Wing flapping wings: Simulations and theory flapping flight S. Ramananarivo, the Unsteady Flow Structures of Two Production of Functionally-Graded optimal flexibility arrangement of a Chair: M. Ringuette, State U. of New M. Burge, C. Wysochanski, F. Fang, S. Ramananarivo, L. Ristroph, J. Zhang, L. Ristroph Interacting Pitching Wings M. Kurt, Flexible Wings in Flapping Wing Flight flapping wing N. Moore York at Buffalo M. Ringuette M. Shelley K. Moored D. Mudbhari, M. Erdogan, K. He, D. Bateman, R. Lipkis, K. Moored A28. Biofluids: Motility in A28.01 Motility modes of the A28.02 The fluid dynamics of the A28.03 Investigation of the A28.04 Caulobacter crescentus A28.05 Enhancement of flagellated A28.06 A fluid model for Newtonian and parasite Trypanosoma brucei ciliate Pseudotontonia sp. jumping by swimming mechanics of exploits its helical cell body to swim bacterial motility in polymer solutions Helicobacter pylori S. Reigh, E. Lauga Non-Newtonian Fluids F. Temel, Z. Qu, M. McAllaster, C. de “tail” contraction H. Jiang, Schistosoma cercariae and its role in efficiently B. Liu, M. Mendoza, W. Zhang, S. Sha, R. Pelcovits, J. Tang Room: 309 Graffenried, K. Breuer B. Gemmell, E. Buskey disease transmission J. Valenzuela Chair: F. Zeynep Temel, Brown U. D. Krishnamurthy, A. Bhargava, G. Katsikis, M. Prakash A29. Nonlinear Dynamics: A29.01 Correlating Lagrangian A29.02 A Spectral Clustering A29.03 Objective Eulerian Coherent A29.04 Variational approach to A29.05 Complexity of coherent A29.06 Laboratory experimental Coherent Structures I structures with forcing in Approach to Lagrangian Vortex Structures and their Short-Term Lagrangian vortices in 3D unsteady structures computed from braids of investigations of braid theory using the Room: 310 two-dimensional flow N. Ouellette, Detection A. Hadjighasem, Prediction M. Serra, G. Haller flows D. Oettinger, D. Blazevski, passive particles M. Budisic, rotor-oscillator flow M. Filippi, S. Atis, ˇ ´ Chair: N. Ouellette, Stanford U. C. Hogg, Y. Liao D. Karrasch, H. Teramoto, G. Haller G. Haller J. Thiffeault M. Allshouse, G. Jacobs, M. Budisic, J. Thiffeault, T. Peacock A30. Geophysical Fluid A30.01 Asymptotically reduced A30.02 Rotating Rayleigh-Benard´ A30.03 Mixing efficiency of buoyancy A30.04 Spinup of a stratified fluid in A30.05 Regimes of axisymmetric A30.06 A Laboratory Study of Dynamics: Rotating and equations for rapidly rotating and stably convection with Ekman pumping forced circulation in a rotating basin a sliced, circular cylinder M. Foster, flow in a rotating annulus with local Vortical Structures in Rotating Stratified Convection stratified flow D. Nieves, K. Julien M. Plumley, K. Julien, P.Marti, C. Vreugdenhil, B. Gayen, R. Griffiths R. Munro convective forcing H. Scolan, S. Su, Convection Plumes H. Fu, S. Sun, Room: 311 J. Aurnou, S. Stellmach R. Young, P.Read Y. Wang, B. Zhou Chair: K. Julien, U. of Colorado

40 Sunday Morning, 22 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 A31. Drops: Surface A31.01 Formation of surface A31.02 Spontaneous Pattern A31.03 Thin viscous films on rotating A31.04 How surface nanodroplets sit A31.05 Driven drops with contact A31.06 Measuring the resonant Interactions nanodroplets under controlled flow Formation of Surface Nanodroplets spheres: statics, dynamics and on a microlens I. Devic, S. Peng, line damping Y. Xia, C. Chang, vibration of a sessile droplet using Room: 312 conditions D. Lohse, X. Zhang, Z. Lu, from Competitive Growth S. Peng, instability D. Kang, M. Chugunova, H. Tan, D. Lohse, X. Zhang P.Steen MEMS based cantilevers T. Nguyen, Chair: D. Lohse, U. of Twente H. Tan, L. Bao, Y. He, C. Sun D. Lohse, X. Zhang A. Nadim K. Matsumoto, I. Shimoyama A32. Drops: Surface Tension A32.01 Surfactant-laden drops rising A32.02 Measurement of strong A32.03 The stability of a rising A32.04 Three-dimensional A32.05 Nature of hydrodynamic A32.06 Experimental study of the Effects in a stratified ambient F. Blanchette, Marangoni flow near a contact line of a droplet: an inertialess nonmodal simulations of a rising bubble in a causation of Marangoni instabilities for Marangoni flow in evaporating water Room: 313 D. Martin water droplet on hydrophobic surfaces growth mechanism G. Gallino, L. Zhu, self-rewetting fluid A. Premlata, the case of drop rising in a channel: droplet placed on vertical vibration and Chair: F. Blanchette, UC Merced J. Park, K. Breuer F. Gallaire M. Tripathi, K. Sahu, G. Karapetsas, visualisation and statistics heated hydrophobic surface C. Park, K. Sefiane, O. Matar M. Khanwale, H. Khadamkar, H. Lim C. Mathpati A33. Drops: Evaporation A33.01 Drying of a coffee drop: A33.02 Evaporation of sessile A33.03 Coffee-ring effect beyond the A33.04 Coffee ring effect resulted A33.05 Dependence of fluid flows in A33.06 Dynamics of Room: Ballroom A differences between dry and wet droplets on smooth and structured dilute limit J. Kim, S. Ryu, H. Kim, conductive nanowire patterns by an evaporating sessile droplet on the surfactant-laden evaporating droplets Chair: F. Boulogne, Princeton U. tables? F. Boulogne, F. Ingremeau, substrates P.Colinet, M. Flandroy, J. Kim, J. Park, Y. Park, J. Oh, B. Weon evaporating colloidal suspension characteristics of the substrate G. Karapetsas, K. Sahu, O. Matar H. Stone S. Dehaeck, A. Rednikov, B. Sobac, droplets without sintering process L. Barash Y. Tsoumpas X. Wang, B. Seong, H. Yudistira, D. Byun A35. Drops: Impact and A35.01 Computational comparison A35.02 The role of substrate wetting A35.03 Time-resolved interference A35.04 Splash of a liquid drop on a A35.05 Drop impact on flowing liquid A35.06 Droplet Impact onto an Splashing of high and low viscosity micro-scale and drop shape in splashing dynamics imaging of the air disc under an dry solid surface S. Mishra, films: asymmetric splashing R. Ismail, Immiscible, Floating Oil Layer: Splash Room: Ballroom B droplets splashing on a dry surface A. Latka, S. Nagel impacting drop E. Li, S. Thoroddsen S. Mandre, C. Rycroft, M. Brenner Z. Che, L. Rotkovitz, I. Adebayo, Behavior and Droplet Sizes Chair: A. Boelens, U. of Chicago A. Boelens, A. Latka, J. de Pablo O. Matar D. Murphy, C. Li, V. d’Albignac, D. Morra, J. Katz A36. Drops: Electric Field A36.01 Deformation and stability of A36.02 Water-in-oil emulsification in A36.03 Interaction between A36.04 How does electricity make A36.05 Effect of The Viscosity Ratio A36.06 Electrohydrodynamics-driven Effects surfactant - or particle - laden drop a non-uniform alternating electric field electrically charged droplets in liquid bristle? B. Khusid, E. Elele, on Equilibrium Shapes and Instability pattern formation of liquid drops Room: Ballroom C Q. Brosseau, G. Pradillo, S. Choi, A. Saveliev microgravity M. Brandenbourger, Y. Shen, D. Pettit of Liquid Drops in Electric Field A. Behjatian, A. Esmaeeli Chair: Q. Brosseau, Brown U. A. Oberlander, P.Vlahovska H. Caps, J. Hardouin, Y. Vitry, A. Esmaeeli B. Boigelot, S. Dorbolo A39. CFD: Reactive Flows I A39.01 DNS evaluation of Reynolds A39.02 Direct Numerical Simulation A39.03 Semi-implicit iterative A39.04 Effects of High-Order A39.05 LES/FMDF of turbulent jet A39.06 Computational Efficiency Room: Back Bay C stress models and Generalized of a supersonic reacting jet with methods for low Mach number Schemes and Turbulence Models on ignition in a rapid compression and Accuracy of the Two Forms of the Chair: X. Zhao, U. of Connecticut Langevin models using thermochemical nonequilibirum turbulent reacting flows J. MacArt, Supersonic Combustion of Liquid Jet in machine A. Validi, H. Schock, Rate-Controlled velocity-acceleration correlation R. Fievet,´ S. Voelkel, H. Koo, M. Mueller Cross Flow K. Alabi, F. Ladeinde, E. Toulson, F. Jaberi Constrained-Equilibrium Method X. Zhao, A. Mathioudakis P.Varghese, V. Raman W. Li F. Hadi, R. Sheikhi A40. CFD: Particulate Flows A40.01 Immersed boundary A40.02 Influence of A40.03 Comparison of Strongly A40.04 A hierarchical Cartesian A40.05 Direct numerical simulation A40.06 Numerical simulation of Room: Back Bay D methods for viscoelastic particulate Non-homogeneous Particle Coupled Diffuse and Sharp Interface method for particle-laden flows with of evaporation-induced particle motion contact line motion and particle Chair: S. Krishnan, Stanford U. flows S. Krishnan, E. Shaqfeh, Distributions on Drug Release in a Fluid-Structure Interaction Approaches conjugate heat transfer G. Brito H. Hwang, G. Son distribution in dip coating G. Son, G. Iaccarino Couette in vitro Dissolution Device for Particle-Laden Flows Gadeschi, M. Meinke, W. Schroeder J. Lee B. Jayaraman, J. Brasseur, Y. Wang F. Mohaghegh, H. Udaykumar

41 Sunday Morning, 22 November 2015 Session 09:18 09:31 09:44 9:57 A1. Porous Media Flows: A1.07 Wetting and roughness: A1.08 Modeling the Effect of Fluid A1.09 On the Study of Lifting Fracturing pattern formation in a rough fracture Flow on a Growing Network of Mechanism of a Soft Porous Media Room: Auditorium A. Pahlavan, L. Cueto-Felgueroso, Fractures in a Porous Medium under Fast Compression Q. Wu, Chair: A. Kudrolli, Clark U. G. McKinley, R. Juanes M. Alhashim, D. Koch S. Santhanam, R. Nathan A2. Suspensions: Rheology I A2.07 Rheological measurements of A2.08 Characterizing dense A2.09 Wall slip in suspensions of Room: 101 liquid-solid flows with inertia suspensions: two case studies from thermo-responsive particles T. Divoux, Chair: E. Guazzelli, Aix-Marseille U. E. Linares, M. Hunt, R. Zenit the pharmaceutical industry V. Lapeyre, V. Ravaine, S. Manneville D. Goldfarb, N. Khawaja, I. Kazakevich, H. Bhattacharjee, M. Heslinga, C. Dalton A3. Particle-Laden Flows: A3.07 Convergence of Beer’s Law for A3.08 Investigation of unsteadiness A3.09 Transient Simulation of Compressibility, Heat and Radiation Transmission in in Shock-particle cloud interaction: Accumulating Particle Deposition in Mass Transfer Effects Particle-Laden Turbulent Flows Fully resolved two-dimensional Pipe Flow J. Hewett, M. Sellier Room: 102 A. Frankel, R. Rauenzahn, simulation and one-dimensional Chair: A. Mani, Stanford U. G. Iaccarino, A. Mani modeling Z. Hosseinzadeh-Nik, J. Regele A4. Particle-Laden Flows: A4.07 Fully resolved direct numerical A4.08 Numerical flow Simulation A4.09 Particle-induced influences on Turbulence Modulation simulations of a particle in a turbulent around a flat plate during heavy rainfall the spectral TKE budget in Room: 103 channel flow A. Jebakumar, using Lagrangian Eulerian approach wall-bounded turbulence D. Richter Chair: K. Mahesh, U. of Minnesota K. Premnath, J. Abraham G. Dhir, S. Suman A5. Reacting Flows: General A5.07 System Modeling for Ammonia A5.08 Uphill diffusion and phase A5.09 Wind Tunnel Testing of a Room: 104 Synthesis Energy Recovery System separation in partially miscible Hydrogen Jet in a Turbulent Crossflow Chair: D. Kelley, U. of Rochester G. Bran Anleu, P.Kavehpour, A. Lavine multicomponent mixtures P. H e , Altered by a Dielectric Barrier

A. Raghavan, A. Ghoniem Discharge R. Fontaine, J. Retter, Break, 9:57–10:20 J. Freund, N. Glumac, G. Elliott

A6. Granular Flows: Force A6.07 Subsurface Explosions in A6.08 A theoretical study of A6.09 Resolving Two Dimensional Halls C and D Transmission Granular Media S. Lai, R. Houim, burrowing in dry soil using razor Angular Velocity within a Rotary Room: 105 E. Oran clam-inspired kinematics A. Winter, Tumbler N. Helminiak, D. Helminiak, Chair: J. Dijksman, Wageningen U. M. Isava V. Cariapa, J. Borg

Analysis of Premixed Flame Modeling of piezoelectric Suppression of Leidenfrost A7. Acoustics I: A7.07 A7.08 A7.09 Refreshment Thermo-Acoustics Response and Rayleigh Criterion energy extraction in a thermoacoustic effect via low frequency vibrations Room: 107 through a Novel Flame Transfer engine with multi-pole time-domain B. Ng, Y. Hung, M. Tan Chair: D. Kassoy, U. of Colorado, Function V. Rani, S. Rani impedance J. Lin, C. Scalo, Boulder L. Hesselink A8. Magnetohydrodynamics A8.07 Irregular A8.08 Vorticity transport in shock A8.09 Turbulence in the Heliosheath: Room: 108 magnetohydrodynamic shock refraction driven plasma flows: A comparison of spectral analysis from Voyager 1 and 2 Chair: O. Zikanov, U. of Michigan - in the presence of a normal magnetic MHD and two-fluid models D. Bond, data F. Fraternale, L. Gallana, Dearborn field V. Wheatley, P.Bilgi, V. Wheatley, D. Pullin, R. Samtaney M. Iovieno, S. Fosson, E. Magli, R. Samtaney, D. Pullin M. Opher, J. Richardson, R. Morgan, D. Tordella A9. Flow Instability: Wakes A9.07 Stability Analysis of Flow Past A9.08 Bifurcations beneath the bluff A9.09 Global stability analysis of Room: 109 a Wingtip A. Edstrand, P.Schmid, body instability modes A. Sau turbulent 3D wakes G. Rigas, D. Sipp, Chair: P. Ern, IMFT K. Taira, L. Cattafesta M. Juniper A10. Microscale Flows: A10.07 Electrothermal Flow A10.08 Control of colloid transport A10.09 The Formation of Ion Electrokinetics Enhanced Sample mixing in a Ratchet via solute gradients in dead-end Concentration Polarization Layer Room: 110 Microchannel. C. Brumme, R. Shaw, channels S. Shin, E. Um, P.Warren, Induced by Bifurcated Current Path Chair: H. Zhao, U. of Nevada Las Y. Zhou, X. Lu, X. Xuan H. Stone J. Kim, H. Lee, I. Cho, H. Kim, S. Kim Vegas

42 Sunday Morning, 22 November 2015 Session 09:18 09:31 09:44 9:57 A11. Convection and A11.07 Trajectory of a plume in a A11.08 Airborne Detection and A11.09 Direct numerical simulation Buoyancy-Driven Flows: power-law velocity profile A. Tohidi, Dynamic Modeling of Carbon Dioxide of temporal plumes for entrainment Plumes N. Kaye and Methane Plumes J. Jacob, analysis D. Krug, J. Philip, D. Chung, Room: 111 T. Mitchell, S. Whyte I. Marusic Chair: R. Bonnebaigt, U. of Cambridge A12. Non-Newtonian Flows: A12.07 An immersed boundary A12.08 Viscoelastic Flow Modelling A12.09 A computational study of Simulation and Stability method for fluid-structure interactions for Polymer Flooding S. De, two-phase viscoelastic systems in a Room: 200 in a nematic liquid crystal J. Padding, F. Peters, H. Kuipers capillary tube with a sudden Chair: C. Wagner, Saarland U. S. Spagnolie contraction/expansion M. Muradoglu, D. Izbassarov A13. Free Surface Flows I: A13.07 Micro-swimmer dynamics in A13.08 Understanding capillary Wakes and Turbulence free-surface turbulence subject to wind wave turbulence using discrete Room: 201 stress C. Marchioli, S. Lovecchio, quasi-resonant kinetic equation Chair: L. Pauley, Penn State U. A. Soldati Y. Pan, D. Yue A14. Industrial Applications I A14.07 Design tools for A14.08 Addressing heat transfer and A14.09 Massive separation around Room: 202 microstructured optical fiber fabrication uniformity of flow in the Muon g-2 bluff bodies: comparisons among Chair: R. Wang, MIT P.Buchak, D. Crowdy, Y. Stokes, tracker design N. Pohlman, G. Luo, different cfd solvers and turbulence M. Chen A. Behnke models V. Armenio, A. Fakhari, A. Petronio, R. Padovan, C. Pittaluga, G. Caprino A15. Flow Control: Passive A15.07 Phononic subsurface: Flow A15.08 Passive Flow Separation Room: 203 stabilization by crystals M. Hussein, Control Mechanism Inspired by Shark Chair: S. Bagheri, KTH S. Biringen, O. Bilal, A. Kucala Skin I. Oakley, A. Lang Break, 9:57–10:20 A16. Flow Control: Theory A16.07 Control of Quantum Fluid A16.08 Shell model of optimal A16.09 Oscillatory flow past a slip Halls C and D Room: 204 Dynamics and Adaptive Phase passive-scalar mixing C. Miles, cylindrical inclusion embedded in a Chair: M. Demetriou, Worcester Compensation for Laser Propagation in C. Doering Brinkman medium D. Palaniappan Polytechnic Institute Turbulence J. Gustafsson, S. Sritharan

Control of flow separation in Field Test Results from a 10 Performance Comparison of A17. Flow Control: A17.07 A17.08 A17.09 Refreshment Separation a turbulent boundary layer M. Cho, kW Wind Turbine with Active Flow Sweeping/Steady Jet Actuators Room: 205 S. Choi, H. Choi Control T. Rice, V. Bychkova, D. Hirsch, J. Mercier, F. Noca, Chair: A. Glezer, Georgia Tech K. Taylor, D. Clingman, M. Amitay M. Gharib A18. Vortex Dynamics: A18.07 Propulsive effects of vortex A18.08 Vortex dynamics in A18.09 Vortex dynamics and Energy Harvesting and coupling between parallel pulsed jets high-speed rarefied cavity flows flapping patterns of the inverted flag Atmospheric Flows A. Athanassiadis, D. Hart V. Venugopal, G. Sharath S with a bluff body H. Kim, J. Kim, Room: 206 D. Kim Chair: G. Triantafyllou, National Technical U. of Athens A19. Boundary Layers: A19.07 An experimental study of low A19.08 Using refractive index A19.09 The law-of-the-wall in mixed General Re cavity vortex formation embedded matching to image flow above and convection flow in a vertical channel Room: 207 in a laminar boundary layer within a highly-permeable laboratory D. Sutherland, D. Chung, A. Ooi, Chair: R. Van-Hout, Technion Israel S. Gautam, A. Lang, J. Wilroy stream bed D. Lichtner, J. Best, E. Bou-Zeid Institute of Technology G. Blois, T. Kim, K. Christensen A20. Turbulence: Thermal A20.07 Construction of a A20.08 Scaling of co-spectra in grid A20.09 DNS of evaporating droplets Flows Non-Equilibrium Thermal Boundary turbulence with a mean cross-stream in decaying isotropic turbulence Room: 208 Layer Facility D. Biles, A. Ebadi, temperature gradient C. Bahri, M. Dodd, A. Ferrante Chair: L. Castillo, Texas Tech U. A. Ma, C. White G. Arwatz, M. Hultmark, M. Mueller

43 Sunday Morning, 22 November 2015 Session 09:18 09:31 09:44 9:57 A21. Turbulence: A21.07 Development of Turbulence A21.08 Dynamic Mode A21.09 Experimental investigation of Environmental Flows Downstream of a Submerged Aquatic Decomposition of Flow Around drifting snow in a wind tunnel Room: 209 Canopy in Unidirectional and Interacting Barchan Dunes N. Bristow, P.Crivelli, E. Paterna, S. Horender, Chair: L. Wang, U. of Delaware Combined Wave-Current Flows G. Blois, T. Kim, P.Schmid, J. Best, M. Lehning F. Zarama, R. Zeller, J. Koseff K. Christensen A22. Turbulence: Free Shear A22.07 POD Mode Coupling from A22.08 Analysis of the stability of Layers and Jets Two-Plane PIV Measurements of the jets in crossflow M. Regan, K. Mahesh Room: 210 Turbulent Round Jet A. Hodzic, Chair: J. Foss, Michigan State U. C. Velte, W. George A23. Biofluids: Active Fluids I A23.07 Numerical study of the A23.08 A fast method to compute A23.09 Confinement of active Room: 300 generation of metachronal waves in triply-periodic Brinkman flows systems: trapping, swim pressure, and Chair: J. Dunkel, MIT layers of beating cilia using a Lattice H. Nguyen, K. Leiderman, S. Olson explosions S. Takatori, R. De Dier, Boltzmann method. Application to the J. Vermant, J. Brady generation of fluid motion at the cell scale. J. Mercat, Z. Li, J. Favier, U. d’Ortona, S. Poncet A24. Biofluids: General A24.07 A reduced order model for A24.08 Tear Film Dynamics Around A24.09 Microfluidic model of the Physiology fluid-structure interaction of thin shell a Rigid Model Blob C. Ketelaar, platelet-generating organ: beyond Room: 302 structures conveying fluid for L. Zhong, R. Braun, T. Driscoll, bone marrow biomimetics M. Reyssat, Chair: B. Storey, Olin College physiological applications G. Chang, P.King-Smith, C. Begley A. Blin, A. Le Goff, A. Magniez, Y. Modarres-Sadeghi S. Poirault-Chassac, B. Teste, G. Sicot, K. Nguyen, F. Hamdi, D. Baruch A25. Biofluids: Plant A25.07 The effect of porosity and A25.08 Optimal root arrangement of A25.09 Moisture-driven actuators Biomechanics flexibility on the hydrodynamics behind cereal crops Y. Jung, K. Park, H. Kim inspired by motility of plants B. Shin, Room: 304 a mangrove-like root model M. Lee, H. Kim Chair: K. Jensen, Technical U. of A. Kazemi, S. Parry, K. Van de Riet, Denmark O. Curet Break, 9:57–10:20 A26. Biofluids: Flexible A26.07 Performance of an unsteady A26.08 A robotic device with a A26.09 Dynamic Surface Morphing Swimmers I plate with a two-dimensional body passive undulating ribbon fin: of Sunfish Caudal Fin Enhances Its Halls C and D Room: 306 attached upstream R. Lisazo, T. Van kinematics and propulsive performance Propulsive Efficiency in Steady Chair: E. Tytell, Tufts U. Buren, D. Floryan, D. Hartsough, H. Liu, O. Curet Swimming G. Liu, C. Li, H. Dong, E. Oshima, C. Rowley, A. Smits G. Lauder

Flapping locomotion of a The role of tip deflection on Fanning the Optimal Breeze A27. Biofluids: Flapping A27.07 A27.08 A27.09 Refreshment Room: 308 flexible wing with heaving motion the thrust produced by rigid flapping with an Abanico G. Goon, Chair: M. Ringuette, State U. of New S. Im, H. Sung fins F. Huera-Huarte, M. Gharib J. Marthelot, P.Reis York at Buffalo A28. Biofluids: Motility in A28.07 Buckling Instabilities and A28.08 Selective control for helical A28.09 Dynamics of Buckling of an Newtonian and Complex Dynamics in a Model of microswimmers P.Katsamba, Elastic filament in a Viscous fluid Non-Newtonian Fluids Uniflagellar Bacterial Locomotion E. Lauga M. Dasgupta, A. Kudrolli Room: 309 F. Nguyen, M. Graham Chair: F. Zeynep Temel, Brown U. A29. Nonlinear Dynamics: A29.07 Lagrangian transport near A29.08 Lagrangian coherent A29.09 The domain dependence of Coherent Structures I perturbed periodic lines in structures as mesoscale transport chemotaxis in two-dimensional Room: 310 three-dimensional unsteady flows barriers in atmospheric flows S. Naik, turbulence W. Tang, K. Jones, Chair: N. Ouellette, Stanford U. M. Speetjens S. Ross P.Walker A30. Geophysical Fluid A30.07 Local Available Potential A30.08 Heat flux in a penetrative Dynamics: Rotating and Energy in Simulations of Stratified convection experiment in water Stratified Convection Turbulence with Uniform and Y. Corre, T. Alboussiere,` S. Labrosse, Room: 311 Non-uniform Ambient Density P.Odier, S. Joubaud Chair: K. Julien, U. of Colorado Gradients G. Portwood, S. de Bruyn Kops

44 Sunday Morning, 22 November 2015 Session 09:18 09:31 09:44 9:57 A31. Drops: Surface A31.07 The Stability of the Static A31.08 Numerical simulations of A31.09 Statistical analysis of Interactions Pendant Drop x. lin, L. Johns, pendant droplets C. Pena, Contact Angle Hysteresis Room: 312 R. Narayanan L. Kahouadji, O. Matar, J. Chergui, N. Janardan, M. Panchagnula Chair: D. Lohse, U. of Twente D. Juric, S. Shin A32. Drops: Surface Tension A32.07 Effect of Marangoni Flows on A32.08 Bursting of dilute A32.09 Dancing droplets: Contact Effects the Shape of Thin Sessile Droplets emulsion-based liquid sheets driven by angle, drag, and conﬁnement Room: 313 Evaporating into Air Y. Tsoumpas, a Marangoni effect C. Ligoure, A. Benusiglio, N. Cira, M. Prakash Chair: F. Blanchette, UC Merced S. Dehaeck, A. Rednikov, P.Colinet L. Ramos, C. Vernay A33. Drops: Evaporation A33.07 On thin evaporating drops: A33.08 Evaporation of a drop on a A33.09 Evaporation dynamics of 2 Room: Ballroom A when is the d -law valid? M. Saxton, periodic solid substrate with moving non-spherical sessile drops of pure J. Whiteley, D. Vella, J. Oliver contact-line A. Amini, G. Homsy ﬂuids and binary mixtures P.Saenz,

Chair: F. Boulogne, Princeton U. Break, 9:57–10:20 O. Matar, K. Seﬁane, P.Valluri, J. Kim A35. Drops: Impact and A35.07 Crown-splash by a cylinder A35.08 Numerical simulation of drop A35.09 Numerical simulation of Splashing impact J. Hasanyan, S. Gart, S. Jung impact on a thin ﬁlm: the origin of the droplet impact on interfaces Halls C and D Room: Ballroom B droplets in the splashing regime L. Kahouadji, Z. Che, O. Matar, Chair: A. Boelens, U. of Chicago Z. Xie, Z. Che, R. Ismail, C. Pain, S. Shin, J. Chergui, D. Juric O. Matar

Enhanced fog collection with Dispersion and vaporization A36. Drops: Electric Field A36.07 A36.08 Refreshment Effects electric fields M. Damak, of a spray of electrically charged Room: Ballroom C S. Mahmoudi, K. Varanasi droplets in a coflowing hot gas Chair: Q. Brosseau, Brown U. A. Perena, F. Higuera A39. CFD: Reactive Flows I A39.07 Computational Study of Fluid A39.08 LES study of intermittency in Room: Back Bay C Flow in a Rotational Chemical Vapor soot formation in a model aircraft Chair: X. Zhao, U. of Connecticut Deposition (CVD) Reactor S. Wong, combustor H. Koo, V. Raman, Y. Jaluria M. Mueller, K. Geigle A40. CFD: Particulate Flows A40.07 Clustering Instability in Room: Back Bay D Sedimenting Gas-Solid Suspensions Chair: S. Krishnan, Stanford U. and its Influence on Flow Properties. X. Li, X. Yin, G. Liu

45 46 Sunday Morning, 22 November 2015

Session B1.01: Plenary/Awards Session Followed by Otto Laporte and Stanley Corrsin Award Lectures 10:20 – 10:55, Room: Auditorium Chair: James Duncan University of Maryland Awards And Fellowship Presentation

Session B1.02: Otto Laporte Lecture 10:55 – 11:40, Room: Auditorium Chair: Mike Plesniak, George Washington University Otto Laporte Award Talk - In Light Of Fluid Mechanics Morteza Gharib, California Institute of Technology

Session B1.03: Stanley Corrsin Award Lecture 11:40 – 12:25, Room: Auditorium Chair: Paul Neitzel, Georgia Instittue of Technology Corrsin Award Talk - Collide And Conquer: Flow-induced Segregation In Blood And Other Multicomponent Suspensions Michael Graham, Univ of Wisconsin-Madison

Lunch Break, 12:25 – 13:30

Invited Session C1 13:30 – 14:05, Room: Auditorium Chair: Andrzej Herczynski, Boston College Soap Film Dynamics And Topological Jumps Under Continuous Deformation Keith Moffatt, DAMTP, University of Cambridge

Invited Session C34 13:30 – 14:05, Room: Ballroom BC Chair: Anette Hosoi, Massachusetts Institute of Technology Fish Locomotion: Insights From Both Simple And Complex Mechanical Models George Lauder, Harvard University

Mini Break, 14:05 – 14:10

47 Sunday Afternoon, 22 November 2015 Session 14:10 14:23 14:36 14:49 15:02 15:15 D1. Porous Media Flows: D1.01 Numerical study of thermally D1.02 Experimental Investigation of D1.03 Nonlinear saturation and D1.04 Pore-scale study of D1.05 Inclined porous medium D1.06 On Permeability Dynamics in Convection and CO2 stratified shear flows at the interface Dissolution-Driven Convection in secondary bifurcation in gravitationally Horton-Rogers-Lapwood convection in convection at large Rayleigh number Carbonaceous Aquifers used in Energy Sequestration between porous and pure-fluid layers Heterogeneous Porous Medium R. Ni, unstable boundary layers in porous porous media: Effect of microscale B. Wen, G. Chini Storage Applications D. Brady, Room: Auditorium M. Papalexandris, P.Antoniadis A. Salibindla, A. Masuk, J. Shen medium Z. Ghorbani, A. Riaz thermophysical heterogeneity on the B. Tilley, M. Ueckert, T. Baumann Chair: M. Papalexandris, Universit onset of convection H. Karani, catholique de Louvain C. Huber D2. Suspensions: Migration D2.01 How to Magnetically Generate D2.02 Three-dimensional collision of D2.03 Transport of particle-laden D2.04 Viscous resuspension in D2.05 Particle dispersion in D2.06 Radial distribution of neutrally and Mixing Flows in Dead-Ends with Dilute general-shaped particles in a viscous viscoelastic suspensions: tuning pressure driven confined flows of non-stationary and non-uniform buoyant spherical particles suspended Room: 101 Suspensions of Iron Particles fluid M. Daghooghi, I. Borazjani particle behavior with elasticity and suspensions A. Machado, suspension flows A. Howard, in Poiseuille flow Y. Morita, T. Itano, Chair: R. Bonnecaze, U. of Texas at R. Bonnecaze, M. Clements geometry A. Barbati, A. Robisson, H. Bodiguel, A. Colin M. Maxey, K. Yeo M. Sugihara-Seki Austin E. Dussan V., G. McKinley D3. Particle-Laden Flows: D3.01 Sedimentation of finite-size D3.02 DNS Study of D3.03 Similarity between particles D3.04 DNS with Discrete Element D3.05 Entrainment in sediment laden D3.06 Resuspension of a granular Density Effects particles in quiescent and turbulent Particle-Bed-Turbulence Interactions in and bubbles as micro-additives in Modeling of Suspended Sediment flows J. Salinas, M. Shringarpure, bed by thermal convection C. Morize, Room: 102 environments L. Brandt, W. Fornari, an Oscillatory Wall-Bounded Flow turbulent channel flow Y. Mito Particles in an Open Channel Flow M. Cantero, S. Balachandar E. Herbert, Y. D’Angelo, A. Sauret Chair: L. Brandt, Linne FLOW Center, F. Picano C. Ghodke, S. Apte P.Paksereht, S. Apte, J. Finn KTH Mechanics D4. Compressible Flows: D4.01 Numerical and Experimental D4.02 Measurements of Transient D4.03 Kinematical Compatibility D4.04 Passive Shock Wave D4.05 Mitigating Shock Waves Using D4.06 Effect of initial perturbation Shocks Investigation of Oblique Shock Wave Phenomena in a Shock Tube using Conditions for Vorticity Across Shock Attenuation by Liquid Sheets H. Jeon, Solid Obstacles with Semi-Circular amplitude on Richtmyer-Meshkov flows Room: 103 Reflection from a Water Wedge Pulse-Burst PIV J. Wagner, S. Beresh, Waves R. Baty N. Amen, V. Eliasson Grooves N. Amen, A. Cajal, induced by strong shocks Z. Dell, Chair: V. Eliasson, U. of Southern Q. Wan, H. Jeon, V. Eliasson E. DeMauro, B. Pruett, P.Farias V. Eliasson R. Stellingwerf, S. Abarzhi California D5. Combustion I D5.01 Influence of equivalence ratio D5.02 Combustion properties in D5.03 Evaporation and Combustion D5.04 LES of Mild Combustion using D5.05 LES of combustion dynamics D5.06 A Jet-Stirred Apparatus for Room: 104 on the mechanism of pressure wave multi-particulate flows with direct Characteristics of Multicomponent Pareto-efficient Combustion Adaptation near blowout in a realistic gas-turbine Turbulent Combustion Experiments Chair: M. Ihme, Stanford U. generation during knocking combustion numerical simulation L. Zhang, C. You Fuels P.Govindaraju, A. Stagni, H. Wu, M. Evans, M. Ihme combustor L. Esclapez, M. Nik, P.Ma, A. Davani, P.Ronney H. Terashima, M. Koshi M. Ihme J. O’Brien, S. Carbajal, M. Ihme D6. Granular Flows: Jamming D6.01 Unified Theory of Inertial D6.02 Effect of friction on shear D6.03 Fluctuations induced D6.04 Relaxation of densely packed D6.05 Yielding in a strongly D6.06 Experiments on Memory in a and Cooling Granular Flows and Non-Brownian jamming D. Wang, J. Bares, spontaneous jamming and unjamming gel particles under cyclic shearing aggregated colloidal gel: 2D Sheared Soft Solid N. Keim, Room: 105 Suspensions m. wyart, e. degiuli, J. Dijksman, J. Ren, H. Zheng, in a silo with multiple exit orifices J. Tsai, M. Chou, P.Huang, H. Fei, simulations and theory S. Roy, D. Wieker, L. Horowitz Chair: M. Wyart, NYU e. lerner, g. during R. Behringer A. Kunte, P.Doshi, A. Orpe J. Huang M. Tirumkudulu D7. Acoustics II: General D7.01 Schlieren imaging of the D7.02 Large eddy simulation of D7.03 Sound produced by subcritical D7.04 Eulerian Simulation of D7.05 Roles of a scatter on D7.06 Acoustic Localization with Room: 107 standing wave field in an ultrasonic trailing edge noise J. Keller, Reynolds number cylinder flow Acoustic Waves Over Long Range in boundary-layer instability and acoustic Infrasonic Signals A. Threatt, Chair: P. Rendon, Universidad acoustic levitator P.Rendon, Z. Nitzkorski, K. Mahesh Z. Nitzkorski, K. Mahesh Realistic Environments S. Chitta, radiation M. Dong, X. Wu B. Elbing Nacional Autonoma de Mexico R. Boullosa, C. Echeverria, D. Porta J. Steinhoff D8. CFD: Turbulent Flows D8.01 Data-driven RANS for D8.02 Density Effects on the D8.03 Air entrainment due to D8.04 Minimum-dissipation models D8.05 Error-measure for anisotropic D8.06 Vortex Particle-Mesh methods Room: 108 prediction of wind turbine wakes Shock-Turbulence Interaction Y. Tian, shear-flow free surface turbulence for large-eddy simulation H. Bae, grid-adaptation in turbulence-resolving for large scale LES of aircraft wakes Chair: G. Valerio Iungo, UT Dallas G. Iungo, F. Viola, U. Ciri, S. Camarri, F. Jaberi, D. Livescu, Z. Li X. Yu, D. Yue, K. Hendrickson W. Rozema, P.Moin, R. Verstappen simulations S. Toosi, J. Larsson P.Chatelain, M. Duponcheel, M. Rotea, S. Leonardi Y. Marichal, G. Winckelmans D9. CFD: Computational D9.01 Taylor bubbles at high D9.02 CFD-informed unified closure D9.03 Detached eddy simulations of D9.04 Numerical modeling of D9.05 Development of multiphase D9.06 New techniques for meshless Methods and Modeling of viscosity ratios: experiments and relation for the rise velocity of Taylor Taylor bubbles rising in stagnant liquid turbulent swirling flow in a multi-inlet Navier-Stokes simulation capability for flow simulation generalizing moving Multiphase Flows I numerical simulations bubbles in pipes E. Lizarraga-Garcia, columns H. Shaban, S. Tavoularis vortex nanoprecipitation reactor using turbulent gas flow over laminar liquid least squares N. Trask, M. Maxey Room: 109 B. Hewakandamby, A. Hasan, J. Buongiorno, E. Al-Safran, D. Lakehal dynamic DDES J. Hill, Z. Liu, R. Fox, for Cartesian grids S. Miao, Chair: F. Kummer, Technical B. Azzopardi, Z. Xie, C. Pain, O. Matar A. Passalacqua, M. Olsen K. Hendrickson, Y. Liu, H. Subramani Univiversity of Darmstadt D10. Microscale Flows: D10.01 Topological transitions in D10.02 Quasiparallel flow of a binary D10.03 Boundary integral D10.04 Elastic deformations in a D10.05 Blood Perfusion in D10.06 Imbibition of “Open General unidirectional flow of nematic liquid gas mixture: the Stefan tube revisited simulations of dissolving drops in Hele-Shaw cell driven by local Microfluidic Models of Pulmonary Capillary”: Fundamentals and Room: 110 crystal L. Cummings, T. Anderson, S. Morris segmented two-phase flows non-homogeneities of fluid properties Capillary Networks: Role of Geometry Applications M. Tani, R. Kawano, Chair: L. Cummings, New Jersey E. Mema, L. Kondic A. Ramchandran, T. Leary S. Rubin, A. Gat, M. Bercovici and Hematocrit H. Stauber, K. Kamiya, K. Okumura Institute of Technology D. Waisman, J. Sznitman

48 Sunday Afternoon, 22 November 2015 Session 14:10 14:23 14:36 14:49 15:02 15:15 D11. Convection and D11.01 How does the diffusion fish D11.02 Optimizing exit times D11.03 Drifting localized structures D11.04 Non-Boussinesq D11.05 Buoyancy effects in a wall jet D11.06 Convective dissolution in Buoyancy-Driven Flows: swim? G. Peng, N. Balmforth, J. Thiffeault, F. Marcotte, C. Doering, in doubly diffusive convection D. Lo Rayleigh-Benard linear stability over a heated horizontal plate partially miscible systems: Analytic Techniques W. Young W. Young Jacono, A. Bergeon, E. Knobloch T. Alboussiere, Y. Ricard R. Fernandez-Feria, classification of the effect of reactions Room: 111 F. Castillo-Carrasco V. Loodts, C. Thomas, L. Rongy, A. De Chair: G. Peng, DAMTP, U. of Wit Cambridge D12. Non-Newtonian Flows: D12.01 Elasto-Inertial Turbulence: D12.02 The maximum drag D12.03 Spatial-Temporal dynamics D12.04 Scaling of energy D12.05 Streak instability in D12.06 Elastic Turbulence in Parallel Turbulence From Subcritical Turbulence to reduction asymptote G. Choueiri, of Newtonian and viscoelastic amplification in the weak and strong viscoelastic Couette flow Shear Flows at Low Re B. Qin, Room: 200 Maximum Drag Reduction Y. Dubief, B. Hof turbulence S. Wang, M. Graham elastic limits of viscoelastic shear flows L. Biancofiore, L. Brandt, T. Zaki P.Arratia Chair: Y. Dubief, U. of Vermont S. Sid, R. Egan, V. Terrapon I. Hameduddin, T. Zaki, D. Gayme D13. Free Surface Flows II: D13.01 Unbounded wall flow with D13.02 Extreme Wave Impact on a D13.03 Onset of wind-wave D13.04 Experimental demonstration D13.05 A seabed-mounted diode for D13.06 WITHDRAWN . Waves free surface waves and horizontal Flexible Plate A. Abraham, A. Techet generation on a viscous liquid of epsilon-near-zero water waves unidirectional water-wave propagation Room: 201 shear G. Lapham, J. McHugh A. Paquier, M. Rabaud, F. Moisy focusing T. Bobinski, A. Eddi, L. Couston, M. Alam Chair: G. Lapham, Maine Maritime P.Petitjeans, A. Maurel, V. Pagneux Academy D14. Industrial Applications II D14.01 Effect of Fuel Additives on D14.02 Design of a Laboratory-scale D14.03 Resource Evaluation and D14.04 Numerical Simulation of D14.05 Why do Cross-Flow Turbines D14.06 Experimental Evaluation of a Room: 202 Spray Performance of Alternative Jet Marine Hydrokinetic device Energy Production Estimate for a Tidal Tethered Underwater Kites for Power Stall? R. Cavagnaro, B. Strom, Method for Turbocharging Four-Stroke, Chair: K. Kannaiyan, Texas A&M U. at Fuels K. Kannaiyan, R. Sadr U. Markovic, M. Beninati, M. Krane Energy Conversion Installation using Generation A. Ghasemi, D. Olinger, B. Polagye Single Cylinder, Internal Combustion Qatar Acoustic Flow Measurements G. Tryggvason Engines M. Buchman, A. Winter V. I. Gagnon, K. Baldwin, M. Wosnik D15. General Fluid Dynamics: D15.01 Volume effect for particles D15.02 Slow viscous flow of two D15.03 Deformation of an Elastic D15.04 Transient Dynamics of D15.05 Non-linear dynamics of D15.06 A note on the breathing Viscous Flows transported in highly viscous fluids particles in a cylindrical tube X. Yao, beam due to Viscous Flow in an Elastic Hele-Shaw Cell due to External annular creeping flow enclosed by an mode of an elastic sphere in Room: 203 L. Zhao T. Wong, -. Marcos Embedded Channel Network Y. Matia, Forces with Application to Impact elastic membrane S. Elbaz, A. Gat Newtonian and complex fluids Chair: L. Zhao, Case Western Reserve A. Gat Mitigation A. Tulchinsky, A. Gat V. Galstyan, . Pak, H. Stone U. D16. Aerodynamics: Control D16.01 The effect of acceleration on D16.02 A new plasma-driven pulsed D16.03 Large-Eddy Simulations of D16.04 Effects of actuation D16.05 Experimental Study of the D16.06 Adjoint-based optimal Room: 204 the growth and shedding of laminar jet actuator for flow control J. Bonnet, Plasma Flow Control on a GOE735 waveform shape on the performance of Effects of Blade Treatments on the Tip control of an airfoil in gusting flows Chair: S. Bhattacharya, Queen’s U. separation bubbles S. Bhattacharya, G. Acher, A. Lebedev, N. Benard, Wind Turbine Airfoil A. Czulak, pitching and heaving panels Vortex Characteristics. V. Klimchenko J. Choi, T. Colonius D. Rival E. Moreau J. Franck D. Floryan, T. Van Buren, C. Rowley, A. Smits D17. Flow Control: Drag D17.01 Experimental study of flow in D17.02 On the Analysis of Flows in D17.03 Turbulent boundary layer D17.04 Reactive Control of D17.05 Drag reduction through D17.06 Rotational Stabilization of Reduction I a channel with a periodically heated Vibrating Channels S. Zandi, control at moderate Reynolds numbers Boundary Layer Streaks Induced by wave-current interactions with a marine Cylinder Wakes Using Linear Room: 205 wall A. Inasawa, K. Taneda, J. Floryan A. Mohammadi, J. Floryan by means of uniform blowing/suction Freestream Turbulence Using Plasma hydrofoil S. Tully, I. Viola, D. Ingram Feedback Control J. Borggaard, Chair: A. Inasawa, Tokyo Metropolitan Y. Kametani, K. Fukagata, R. Orlu, Actuators K. Gouder, A. Naguib, S. Gugercin, L. Zietsman U. P.Schlatter P.Lavoie, J. Morrison D18. Vortex Dynamics: Flow D18.01 Three-dimensional flow D18.02 VIV of a Flexible Cylinder: D18.03 Regimes of flow induced D18.04 Wake–induced vibrations in D18.05 Revisiting Vortex Induced D18.06 Streamwise Oscillations of Induced Vibrations and visualization of a flexible cylinder wake Three-dimensional Response vibration for tandem, tethered cylinders Tandem Cylinders R. Mysa, R. Jaiman Vibration scaling in single degree of Freely Vibrating Circular Cylinder in the Interactions subject to VIV J. Dahl, E. Thomas, Reconstruction from Limited Localized G. Nave, M. Stremler freedom systems V. Azadeh Ranjbar, Vicinity of a Stationary Wall Room: 206 E. Gedikli Measurement Points N. ELVIN, Y. Andreopoulos R. Jaiman, D. Tham, L. Zhong, Chair: J. Dahl, U. of Rhode Island B. Seyed-Aghazadeh, P.Gurugubelli Y. Modarres-Sadeghi D19. Boundary Layers: D19.01 Large scale structures in D19.02 Competing stability modes in D19.03 The relation between skin D19.04 Study of the near field wake D19.05 Large scale motions of D19.06 Evolution of vortex-surface Structure and Turbulence I transitional pipe flow L. Hellstrom,¨ vortex structure formation S. Garrett, friction fluctuations and turbulent of trips generating an artificially thick thermal transport in a turbulent fields in the K-type temporal transition Room: 207 B. Ganapathisubramani, A. Smits J. Gostelow, A. Rona, W. McMullan fluctuating velocities in turbulent turbulent boundary layers channel S. Dharmarathne, M. Tutkun, in channel flow Y. Zhao, Y. Yang, Chair: S. Garrett, U. of Leicester boundary layers C. Diaz Daniel, E. Rodriguez Lopez, P.Bruce, G. Araya, S. Leonardi, L. Castillo S. Chen S. Laizet, J. Vassilicos O. Buxton D20. Turbulence: D20.01 Subgrid-scale backscatter D20.02 Turbulence generation D20.03 Shock-resolving direct D20.04 Lagrangian Statistics of D20.05 Bulk viscosity effect on freely D20.06 A Mesoscopic Model for the Compressible Flows after the shock-turbulence interaction through intense localized sources of numerical simulations of strong Velocity-gradient in Compressible decaying compressible homogeneous Description of Small-scale Room: 208 D. Livescu, Z. Li energy A. Maqui, D. Donzis turbulence interacting with a normal Turbulence M. Danish, S. Suman, isotropic turbulence S. Pan, Inhomogeneity in Turbulent Flows with Chair: D. Livescu, Los Alamos National shock wave C. Chen, D. Donzis B. Srinivasan E. Johnsen Thermal Nonequilibrium V. Raman, Laboratory R. Fievet, P.Clarke, P.Varghese

49 Sunday Afternoon, 22 November 2015 Session 14:10 14:23 14:36 14:49 15:02 15:15 D21. Turbulence: Mixing D21.01 Turbulence structure and D21.02 Turbulent diffusion from a D21.03 Scalar mixing in turbulence D21.04 Analysis of Cliff-Ramp D21.05 A Simple Parameterization D21.06 Space-scale unfolding Room: 209 scalar diffusion in uniformly sheared heated line source in non-equilibrium generated by multi-scale grids Structures in Homogeneous Scalar of Mixing of Passive Scalars in mechanism in canonical multi-scale Chair: S. Tavoularis, U. of Ottawa flow distorted by a grid S. Tavoularis, grid turbulence J. Nedic, S. Tavoularis B. Ganapathisubramani, R. Hearst, Turbulence by the Method of Line Turbulent Flows A. Nithianantham, flows P.Baj, P.Bruce, O. Buxton J. Nedic C. Vanderwel Segments M. Gauding, J. Goebbert, K. Venayagamoorthy N. Peters, C. Hasse D22. Turbulent Boundary D22.01 Vorticity Fluctuations D22.02 Generalized higher order D22.03 A multi-layer description of D22.04 Interaction of free-stream D22.05 The time signature of the D22.06 Internal shear layers and Layers I Require a Two-term Asymptotic two-point moments in turbulent Reynolds stresses in canonical wall turbulence with a turbulent boundary turbulent/non-turbulent interface over a interfaces in turbulent boundary layers Room: 210 Representtion R. Panton boundary layers. X. Yang, I. Marusic, bounded flows X. Chen, F. Hussain, layer R. Hearst, E. Dogan, turbulent boundary layer A. Laskari, C. de Silva, J. Philip, D. Squire, Chair: R. Panton C. Meneveau Z. She B. Ganapathisubramani R. Hearst, R. de Kat, N. Hutchins, I. Marusic B. Ganapathisubramani D23. Biofluids: Active D23.01 A turbulence-induced switch D23.02 Non-classical D23.03 Spontaneous ordering and D23.04 Subsonic to supersonic D23.05 The Force on a Boundary in D23.06 On the distribution and swim Fluids II in phytoplankton swimming behavior size-dependent particle diffusion in vortex states of active fluids in circular transition in density shocks of confined Active Matter J. Brady, W. Yan pressure of run-and-tumble particles in Room: 300 F. Carrara, A. Sengupta, R. Stocker active fluids A. Gopinath, A. Patteson, confinement M. theillard, B. Ezhilan, microswimmers A. Tsang, E. Kanso confinement R. Alonso Matilla, Chair: F. Carrara, MIT P.Arratia D. Saintillan B. Ezhilan, D. Saintillan D24. Biofluids: Biofilms I D24.01 Quasi-chemostat behavior in D24.02 Exploring the mechanisms of D24.03 Numerical Investigation of D24.04 Biofilm formation over D24.05 Tear film dynamics: D24.06 Biomechanical ordering and Room: 302 the leading edge of B. subtilis biofilms rising bubbles in marine biofouling Evolution of the Biofilm Streamers surface patterned with pico-liter oil modeling the glycocalyx as a porous buckling due to microbial growth Chair: S. Srinivasan, Harvard U. S. Srinivasan, L. Mahadevan, prevention M. Menesses, J. Belden, A. Karimi micro-drop array M. Jalali, J. Sheng medium J. Siddique, confined at oil-water interfaces S. Rubinstein N. Dickenson, J. Bird A. Mastroberardinob,, R. Braun, G. Juarez, R. Stocker D. Anderson D25. Biofluids: Cells in Flow D25.01 Characterization of D25.02 Cytoplasmic flows as D25.03 Cytoskeletal Dynamics and D25.04 Mirror-symmetry breakings D25.05 Tumbling and quasi-tumbling D25.06 Effect of cell size and shear and Flow in Cells Intracellular Streaming and Traction signatures for the mechanics of mitotic Fluid Flow in Drosophila Oocytes in human sperm rheotaxis N. Stoop, motions of E.coli over a solid surface stress on bacterium growth rate Room: 304 Forces in Migrating Physarum spindle positioning E. Nazockdast, G. De Canio, R. Goldstein, E. Lauga A. Bukatin, I. Kukhtevich, J. Dunkel, under shear flows M. Molaei, J. Sheng H. Fadlallah, M. Jarrahi, ˙ Herbert, Chair: J. Guasto, Tufts U. Plasmodia S. Zhang, O. Lewis, A. Rahimian, D. Needleman, V. Kantsler H. Peerhossaini R. Guy, J. del Alamo M. Shelley D26. Biofluids: Flexible D26.01 Simulations of elastic, D26.02 From Tadpoles to Trout: D26.03 Biofluiddynamics of D26.04 A model of a flexible D26.05 Efficient swimmers use D26.06 Swimming Performance of Swimmers II stretchable, shearable curves Scale-invariant features of optimally balistiform and gymnotiform anguilliform swimmer driven by a bending kinematics to generate low Toy Robotic Fish N. Petelina, Room: 306 interacting with a liquid M. Gazzola, efficient swimming A. Wiens, A. Hosoi locomotion: Revisited B. Sprinkle, central pattern generator with pressure regions for suction-based L. Mendelson, A. Techet Chair: M. Gazzola, Harvard U. A. McCormick, L. Mahadevan R. Bale, A. Singh, N. Chen, proprioceptive feedback C. Hamlet, swimming thrust S. Colin, M. MacIver, N. Patankar E. Tytell, K. Hoffman, L. Fauci B. Gemmell, J. Costello, J. Morgan, J. Dabiri D27. Experiments: Velocity D27.01 Boundary-Layer Resolved D27.02 Multi-plane Particle Shadow D27.03 Advances of Fluid-Structure D27.04 Current collector geometry D27.05 Holographic measurement of D27.06 Three-dimensional flow and Vorticity Measurements Measurements of a Three-Dimensional Velocimetry to Quantify Integral Length Interaction Measurements by and mixing in liquid metal electrodes wall stress distribution and 3D flow measurements in a tesla turbine rotor Room: 308 Disturbance Using Magnetic Scales J. Harris, C. Truong, S. Hinkle, Multi-Pulse Particle Image R. Ashour, D. Kelley over a surface textured by microfibers T. Fuchs, C. Schosser, R. Hain, Chair: A. Naguib, Michigan State U. Resonance Velocimetry A. Naguib, K. Sinding, T. Camp, A. Fontaine, Velocimeter/Accelerometer L. Ding, H. Bocanegra, S. Gorumlu, B. Aksak, C. Kaehler F. Wassermann, D. Freudenhammer, M. Krane, D. DeVilbiss R. Adrian, S. Gogineni L. Castillo, J. Sheng S. Grundmann D28. Wind Turbines: Blade D28.01 Instability of outer tip vortices D28.02 Experimental Study on the D28.03 Fluid-structure coupling for D28.04 Dominant mechanism of D28.05 An Aeroelastic Perspective D28.06 POD based analysis of Design for a 2.5 MW wind turbine: integrating Effects of Winglets on the Wake of a wind turbine blade analysis using load fluctuations on a wind turbine in a of Floating Offshore Wind Turbine three-dimensional stall over a pitching Room: 309 snow PIV with LES F. Sotiropoulos, Model Wind Turbine N. Tobin, OpenFOAM B. Dose, I. Herraez, realistic atmosphere through Hybrid Wake Formation and Instability wind turbine blade M. Melius, Chair: F. Sotiropoulos, U. of Minnesota X. Yang, J. Hong, M. Barone A. Hamed, L. Chamorro J. Peinke URANS-LES G. Vijayakumar, S. Rodriguez, J. Jaworski R. Bayoan Cal, K. Mulleners A. Lavely, B. Jayaraman, B. Craven, J. Brasseur D29. Nonlinear Dynamics: D29.01 Asymptotic descriptions of D29.02 Experimental Observation of D29.03 Symmetry Broken Exact D29.04 Wavebreaking of Interfacial D29.05 Frozen Fronts selection in D29.06 Experimental studies of Coherent Structures II self-sustaining processes in shear and Exact Coherent Structures in a Weakly Coherent Structures in Plane Couette Stokes Flows M. Maiden, N. Lowman, flow against self-sustained chemical reaction front barriers in a Room: 310 Langmuir turbulence: A comparative Turbulent Quasi-Two-Dimensional Flow Flow V. Gopalaswamy, D. Anderson, M. Hoefer waves T. Chevalier, D. Salin, L. Talon three-dimensional nested vortex flow Chair: G. Chini, U. of New Hampshire study G. Chini, Z. Zhang, C. Beaume, B. Suri, J. Tithof, R. Pallantla, D. Borrero-Echeverry M. Doan, K. Lilienthal, T. Solomon E. Knobloch, K. Julien R. Grigoriev, M. Schatz D30. Geophysical Fluid D30.01 Characteristics of D30.02 Dynamic mode D30.03 A numerical investigation of D30.04 Stratified Shear Flows In D30.05 Density overturns and local D30.06 Dynamics of particle laden Dynamics: Wakes and turbulent/non-turbulent interfaces in decomposition identifies internal wave the interaction between a horizontal Pipe Geometries G. Harabin, stability measures in early stratified plume in linearly stratified environment Boundaries in Stratified wakes in stably-stratified fluidsO and vortical modes in stably stratified density gradient and an oscillating R. Camassa, R. McLaughlin wakes T. Madison, P.Sellappan, H. Mirajkar, S. Balasubramanian Flows T. Watanabe, J. Riley, S. de Bruyn wakes X. Xiang, K. Chen, T. Madison, turbulent flow S. Kaptein, X. Xiang, G. Spedding Room: 311 Kops, P.Diamessis, Q. Zhou G. Spedding M. Duran-Matute, V. Armenio, Chair: J. Riley, U. of Washington F. Roman, H. Clercx

50 Sunday Afternoon, 22 November 2015 Session 14:10 14:23 14:36 14:49 15:02 15:15 D31. Drops: Leidenfrost D31.01 Direct Numerical Simulation D31.02 Leidenfrost drops on liquid D31.03 Leidenfrost drops on liquid D31.04 Vapor layer evolution during D31.05 A Leidenfrost Engine D31.06 Maximum drop radius and Effects of the Leidenfrost Effect S. Tanguy, baths : experiments L. Maquet, baths: theory B. Sobac, A. Rednikov, drop impact on a heated surface G. Wells, R. Ledesma-Aguillar, critical Weber number for splashing in Room: 312 L. Rueda Villegas B. Darbois-Texier, A. Duchesne, L. Maquet, B. Darbois-Texier, S. Lee, S. Lee, J. Lee, K. Fezzaa, J. Je G. McHale, K. Sefiane the dynamical Leidenfrost regime Chair: G. Riboux, U. de Sevilla, Spain M. Brandenbourger, S. Dorbolo, A. Duchesne, M. Brandenbourger, G. Riboux, J. Gordillo B. Sobac, A. Rednikov, P.Colinet S. Dorbolo, P. Colinet D32. Drops: Fragmentation D32.01 Droplet fragmentation on D32.02 The break-up of a viscous D32.03 Drop deformation and D32.04 Fragmentation of Newtonian D32.05 Study on Electric field D32.06 Parametric droplet ejection Room: 313 leaves shapes foliar disease dispersal liquid drop in a high Reynolds number breakup in flows with and without shear and viscoelastic liquids during rotary assisted low frequency (20 kHz) generated by oblique vibrations on a ´ Chair: L. Bourouiba, Massachusetts L. Bourouiba, T. Gilet shear flow C. Ng, A. Aliseda T. Kekesi, G. Amberg, L. Prahl Wittberg atomization B. Keshavarz, J. Moore, ultrasonic spray I. Chae, B. Seong, drop M. Costalonga, P.Brunet, Institute of Technology E. Houze, M. Koerner, G. McKinley D. Marten, D. Byun H. Peerhossaini D33. Drops: Wetting and D33.01 Low-order modelling of D33.02 Optical Imaging of Water D33.03 Dynamics of Spreading on D33.04 The spreading of a D33.05 Fast and Slow Wetting D33.06 Dynamic Wetting on Spreading I droplets on hydrophobic surfaces Condensation on Lubricant Micro-Textured Surfaces viscoplastic droplet by capillary action Dynamics on nanostructured surfaces Graphene-Coated Surface: Molecular Room: Ballroom A O. Matar, A. Wray, L. Kahouadji, Impregnated Micropillar Arrays A. Mohammad Karim, J. Rothstein, M. Jalaal, N. Balmforth, B. Stoeber D. Nandyala, A. Rahmani, T. Cubaud, Dynamics Investigation S. Hung, Chair: O. Matar, Imperial College S. Davis T. Kajiya, F. Schellenberger, P.Kavehpour C. Colosqui J. Shiomi London P.Papadopoulos, D. Vollmer, H. Butt D34. Drops: D34.01 Self-Propelled Sweeping D34.02 Wenzel to Cassie transition D34.03 Droplets on inclined super D34.04 Drop impact dynamics on D34.05 Anti-fogging surfaces D34.06 Orientation Dependence of Superhydrophobic Surfaces Removal of Dropwise Condensate on for droplet impingement C. Clavijo, hydrophobic substrates: between liquid-infused superhydrophobic T. Mouterde, A. Checco, C. Black, Jumping Droplet Condensation Room: Ballroom BC Two-Tier Superhydrophobic Surfaces J. Crockett, D. Maynes “sandwich,” free sliding and jumping surfaces J. Kim, J. Rothstein A. Rahman, C. Clanet, D. Qur A. Berrier, J. Boreyko Chair: J. Boreyko, Virginia Tech J. Boreyko, X. Qu, F. Liu, R. Agapov, J. Martinez Mercado, C. Ohl N. Lavrik, S. Retterer, J. Feng, P.Collier, C. Chen D37. Focus Session: D37.01 The fate of electrospray D37.02 Electro-rotation of drops at D37.03 Electrohydrodynamic D37.04 The relaxation of a prolate D37.05 Nonlinear D37.06 Simulations of particle Electro-Hydro-Dynamics of drops O. Basaran, R. Collins, large electric Reynolds numbers deformation of drops and bubbles at leaky dielectric drop in a uniform DC electrohydrodynamics of leaky structuring driven by electric fields Drops, Vesicles and K. Sambath, M. Harris E. Yariv, I. Frankel large Reynolds numbers O. Schnitzer electric field A. Khair, J. Lanauze, dielectric drops in the Quincke regime: Y. Hu, P.Vlahovska, M. Miksis Membranes I L. Walker Numerical simulations D. Das, Room: Back Bay A D. Saintillan Chair: D. Saintillan, U. of California - San Diego D38. Flow Instability: D38.01 Experimental Study of D38.02 Biglobal stability analysis of D38.03 On linear instability of a D38.04 Wind tunnel experiments on D38.05 Bypass transition of the D38.06 Numerical simulations and Boundary Layers I Leading Edge Receptivity to spatially developing axisymmetric flared cone at Ma 6 X. Chen, Y. Zhu, two blunt cones at Ma6 Y. Zhang, bottom boundary layer under solitary linear stability analysis of a boundary Room: Back Bay B Freestream Local Disturbance boundary layers V. Narayanan, C. Lee C. Li wave M. Sadek, P.Diamessis, layer developed on wavy surfaces Chair: Y. Nishio, Tohoku U. Y. Nishio, T. Oka, S. Izawa, Y. Fukunishi R. Bhoraniya L. Parras, P.Liu L. Siconolfi, S. Camarri, J. Fransson D39. Flow Instability: D39.01 A Comparative Study of D39.02 Richtmyer-Meshkov mixing: D39.03 Experimental study of Mach D39.04 Comparison of the Effects of D39.05 Numerical Simulations of the D39.06 Numerical, Dimensional, and Richtmyer-Meshkov I Two-, Three- and Four-Equation experiments on the effect of initial number effects on the evolution of Mach Number on the Spatiotemporal turbulent Richtmyer-Meshkov instability Computational considerations in Large Room: Back Bay C Multicomponent Reynolds-Averaged conditions S. Craig, R. Mejia-Alvarez, Richtmyer-Meshkov instabilities Evolution of Turbulence and Mixing in in a spherically convergent geometry Eddy Simulations of the Chair: O. Schilling, Lawrence Navier-Stokes Model Predictions of B. Wilson, K. Prestridge R. Mejia-Alvarez, B. Wilson, A. Craig, Reshocked Richtmyer-Meshkov I. Djibrilla Boureima, P.Ramaprabhu Richtmyer-Meshkov Instability Livermore National Laboratory Turbulent Mixing in Reshocked K. Prestridge Instability T. Moran-Lopez, O. Schilling B. Olson Richtmyer-Meshkov Instability O. Schilling D40. Flow Instability: D40.01 Lessons Learned from D40.02 Exploring elastic and plastic D40.03 Reynolds and Atwood D40.04 Understanding the D40.05 Direct Numerical Simulations D40.06 DSMC Simulations of the Rayleigh-Taylor I Numerical Simulations of Interfacial regimes of Rayleigh-Taylor instability in Numbers Effects on Homogeneous Rayleigh-Taylor instability through 1D of Immiscible Rayleigh-Taylor Instability Rayleigh-Taylor Instability in Gases Room: Back Bay D Instabilities A. Cook solids R. Polavarapu, A. Banerjee Rayleigh Taylor Instability D. Aslangil, and 3D simulations M. Mikhaeil, Z. Li, D. Livescu M. Gallis, T. Koehler, J. Torczynski, Chair: A. Cook, Lawrence Livermore D. Livescu, A. Banerjee N. Denissen, D. Ranjan S. Plimpton National Laboratory

51 Sunday Afternoon, 22 November 2015 Session 15:28 15:41 15:54 16:07 16:20 D1. Porous Media Flows: D1.07 Experimental study of pattern D1.08 Modeling the Dynamics of D1.09 Micro-PIV Study of D1.10 Micro-PIV measurements of Convection and CO2 formation during carbon dioxide Remobilized CO2 within the Geologic Supercritical CO2-Water Interactions multiphase flow of water and liquid Sequestration mineralization G. Schuszter, F. Brau, Subsurface E. Huber, D. Koch, in Porous Micromodels F. Kazemifar, CO2 in 2D homogeneous and Room: Auditorium A. De Wit A. Stroock G. Blois, K. Christensen heterogeneous porous micromodels Chair: M. Papalexandris, Universit Y. Li, F. Kazemifar, G. Blois, catholique de Louvain K. Christensen D2. Suspensions: Migration D2.07 The motion of a light particle D2.08 Mixing in sheared D2.09 Suspension Dynamics of D2.10 Flow of a suspension over an and Mixing in a rotating Stokes flow T. Mullin, suspensions M. Souzy, N. Abid, Liquefied Lignocellulosic Biomass in obstacle: revisiting an old problem in a Room: 101 T. Sauma Perez, Y. Li E. Villermaux, B. Metzger Pipeflow using Echo Particle Image new context J. Morris, H. Haddadi, Chair: R. Bonnecaze, U. of Texas at Velocimetry N. DeMarchi, C. White S. Shojaei-Zadeh, K. Connington Austin D3. Particle-Laden Flows: D3.07 Study of interactions between D3.08 Simultaneous Measurement of D3.09 Effect of particle size D3.10 Particle-driven gravity currents Density Effects sediment particles in sheet flow using Fluid and Particle Motion in Shear distribution on the hydrodynamics of in non-rectangular cross-section Room: 102 CFD–DEM R. Sun, H. Xiao Induced Erosion P.Krueger, Z. An dense CFB risers A. Bakshi, channels T. Zemach Chair: L. Brandt, Linne FLOW Center, S. Khanna, R. Venuturumilli, KTH Mechanics C. Altantzis, A. Ghoniem D4. Compressible Flows: D4.07 Numerical modeling of an D4.08 Experimental Investigation of D4.09 Reflections Over Coupled D4.10 Shock Wave Boundary Layer Shocks experimental shock tube for traumatic the Interaction of Blast Waves Surfaces by Means of a High Interaction Mechanism on a Double Room: 103 brain injury studies M. Phillips, Generated by Exploding Wires using Resolution Setup M. Geva, O. Ram, Wedge Geometry B. Celik, Chair: V. Eliasson, U. of Southern J. Regele Background Oriented Schlieren O. Sadot M. Barada, A. Durna California J. Gross, V. Eliasson D5. Combustion I D5.07 Simulation of High-Pressure D5.08 Analysis of Fuel Injection and D5.09 Multiscale Interactions and D5.10 A single-fluid multiphase Room: 104 Methane Hydrate Combustion Atomization of a Hybrid Air-Blast Backscatter in Premixed Combustion formulation for diffuse-interface Chair: M. Ihme, Stanford U. P.Popov, W. Sirignano Atomizer. P.Ma, L. Esclape, P.Hamlington, C. Towery, J. O’Brien, modeling of high-pressure liquid-fueled

T. Buschhagen, S. Naik, J. Gore, A. Poludnenko, J. Urzay, M. Ihme transcritical mixing layers L. Jofre, Break, 16:20–16:50 R. Lucht, M. Ihme J. Urzay, A. Mani, P.Moin

D6. Granular Flows: Jamming D6.07 Controlling the shear proﬁle of D6.08 Self organization and jamming D6.09 Granular ﬂow and clog in silo D6.10 Shear-induced dynamical Halls C and D and Cooling highly strained granular materials in magnetic photoelastic particles with moving outlet K. To, H. Tai phase-transitions in a granular system Room: 105 J. Bares, B. Behringer M. Cox, J. Bares, D. Wang, J. Zhang, Y. Wang, H. Tang Chair: M. Wyart, NYU R. Behringer

Nozzleless Spray Cooling Tunable Acoustic Attenuation Dynamic vortex interactions Development of a Transient D7. Acoustics II: General D7.07 D7.08 D7.09 D7.10 Refreshment Room: 107 Using Surface Acoustic Waves by Dilute Suspensions of with flexible fibers and edges for Acoustic Boundary Element Method to Chair: P. Rendon, Universidad K. Ang, L. Yeo, J. Friend, Y. Hung, Oblate-Spheroidal Ferromagnetic prediction of owl noise suppression Predict the Noise Signature of Nacional Autonoma de Mexico M. Tan Particles Under an External Magnetic S. Korykora, J. Jaworski Swimming Fish N. Wagenhoffer, Field: An Experimental Study K. Moored, J. Jaworski W. Yuan, J. Shan, L. Liu D8. CFD: Turbulent Flows D8.07 Sensitivity Analysis of Chaotic D8.08 Slow transition of the Osborne Room: 108 Flow around Two-Dimensional Airfoil Reynolds pipe flow: A direct numerical Chair: G. Valerio Iungo, UT Dallas P.Blonigan, Q. Wang, E. Nielsen, simulation study. X. Wu, P.Moin, B. Diskin R. Adrian, J. Baltzer D9. CFD: Computational D9.07 Methods to Prescribe Particle D9.08 A balanced-force conservative D9.09 High-Order Discontinuous D9.10 High-order accurate Methods and Modeling of Motion to Minimize Quadrature Error in volume-of-fluid method for simulating Galerkin Level Set Method for Interface multi-phase simulations: building Multiphase Flows I Meshfree Methods J. Templeton, two-phase flows on unstructured grids Tracking and Re-Distancing on blocks and whats tricky about them Room: 109 L. Erickson, K. Morris, D. Poliakoff C. Ivey, P.Moin Unstructured Meshes P.Greene, F. Kummer Chair: F. Kummer, Technical R. Nourgaliev, S. Schofield Univiversity of Darmstadt D10. Microscale Flows: D10.07 Experimental investigation of D10.08 Destabilization of highly D10.09 The motion of long drops in D10.10 Broadband light based General non-Newtonian/Newtonian liquid-liquid viscous fluid threads in complex rectangular capillaries at low capillary optoelectric tweezers A. Mishra, Room: 110 flow in microchannel E. Roumpea, microgeometries T. Cubaud numbers H. Wong, S. Rao K. Clayton, S. Wereley Chair: L. Cummings, New Jersey W. Weheliye, M. Chinaud, P.Angeli Institute of Technology

52 Sunday Afternoon, 22 November 2015 Session 15:28 15:41 15:54 16:07 16:20 D11. Convection and D11.07 Nonlinear convection in D11.08 Pattern selection in ternary D11.09 Using Covariant Lyapunov D11.10 Near-optimal source Buoyancy-Driven Flows: unbounded vertical channels mushy layers P.Guba, D. Anderson Vectors to Build a Physical placement in forced convection Analytic Techniques R. Shahmurov, L. Hadji Understanding of Spatiotemporal P.Grover, S. Nabi Room: 111 Chaos in Rayleigh-Benard´ Convection Chair: G. Peng, DAMTP, U. of M. Xu, M. Paul Cambridge D12. Non-Newtonian Flows: D12.07 Transition to asymmetry in D12.08 Investigation of the required D12.09 Natural transition to D12.10 Energy transfer and drag Turbulence pipe flow of shear-thinning fluids: a length for fully developed pipe flow with turbulence in polymeric channel flow reduction in elasto-inertial turbulence Room: 200 linear instability? D. Dennis, C. Wen, drag-reducing polymer solutions S. Lee, T. Zaki laden with elongated contravariant and Chair: Y. Dubief, U. of Vermont R. Poole Y. Farsiani, B. Elbing covariant polymers K. Horiuti D13. Free Surface Flows II: D13.07 Reconstruction of arbitrary D13.08 Numerical simulation of the D13.09 Variational modelling of D13.10 Instability of propagating Waves surface wave fields by refraction global resonantly excited capillary-gravity nonlinear water waves A. Kalogirou, axial symmetric waves generated by a Room: 201 method in a wave tank H. Garcia, waves H. Hanazaki, M. Hirata, O. Bokhove vertically oscillating sphere M. Shen, Chair: G. Lapham, Maine Maritime A. Ludu S. Okino Y. Liu Academy D14. Industrial Applications II D14.07 Numerical study of crude oil D14.08 A new framework to increase D14.09 Direct Numerical Simulation D14.10 Numerical Investigation of Room: 202 fouling in a Taylor-Couette-type reactor the efficiency of large-scale solar of A Shaped Hole Film Cooling Flow the effect of adiabatic section location Chair: K. Kannaiyan, Texas A&M U. at M. Crastes, L. Lagkaditi, J. Ball, power plants. S. Alimohammadi, T. Oliver, R. Moser on thermal performance of a heat pipe Qatar J. Yang, F. Coletti, S. Macchietto, J. Kleissl network with the application in thermal O. Matar energy storage systems M. Mahdavi, S. Tiari, S. Qiu D15. General Fluid Dynamics: D15.07 Dragging cylinders in slow D15.08 Slender Ribbon Theory D15.09 Temperature Variations in D15.10 Reflections on Lorentz: Viscous Flows viscous flows E. Luca, D. Crowdy L. Koens, E. Lauga Lubricating Films Induced by Viscous revisiting image systems for Stokes Room: 203 Dissipation F. Mozaffari, R. Metcalfe flows in a half-space W. Mitchell, Chair: L. Zhao, Case Western Reserve S. Spagnolie Break, 16:20–16:50 U. Halls C and D D16. Aerodynamics: Control D16.07 Aerodynamics of ski jumping D16.08 Aerodynamics of ski jumping D16.09 Parametric Study of D16.10 Numerical Investigation of Room: 204 flight and its control: I. Experiments flight and its control: II. Simulations Synthetic-Jet-Based Flow Control on a Bending-Body Projectile Aerodynamics Chair: S. Bhattacharya, Queen’s U. D. Jung, K. Bang, H. Kim, E. Ahn, J. Lee, H. Lee, W. Kim, H. Choi Vertical Tail Model M. Monastero, for Maneuver Control E. Youn, H. Choi A. Lindstrom, M. Beyar, M. Amitay S. Silton

Blunt-body drag reduction Power loss minimizing Feedback Control of a Simulation, Modeling and D17. Flow Control: Drag D17.07 D17.08 D17.09 D17.10 Refreshment Reduction I through base cavity shape optimization blowing and suction profiles for drag Square-Back Ahmed Body Flow for Feedback Control of the flow around a Room: 205 M. Lorite-DIez,´ J. Jimenez-Gonz´ alez,´ reduction on a circular cylinder P.Giri, Form-Drag Reduction O. Evstafyeva, Square-Back Bluff Body L. Dalla Chair: A. Inasawa, Tokyo Metropolitan C. Gutierrez-Montes,´ R. Shukla A. Morgans Longa, A. Morgans U. C. MartInez-Baz´ an´ D18. Vortex Dynamics: Flow D18.07 Hysteretic memory and end D18.08 Flow-induced oscillations of D18.09 Two-Dimensional D18.10 Two-dimensional wakes of Induced Vibrations and plate effects on the response of a a prism with triangular cross-section Vortex-Induced Vibration of a Curved oscillating and tandem cylinders at low Interactions flexible cylinder undergoing placed in water D. Carlson, Cylinder L. Bouchard, D. Carlson, Reynolds number W. Yang, Room: 206 Vortex-Induced Vibrations (VIV) B. Seyed-Aghazadeh, B. Seyed-Aghazadeh, M. Stremler Chair: J. Dahl, U. of Rhode Island E. Gedikli, J. Dahl Y. Modarres-Sadeghi Y. Modarres-Sadeghi D19. Boundary Layers: D19.07 Unified concepts in internal D19.08 Multi-scale geometric D19.09 Spatial organisation of large D19.10 Stress Boundary layer Structure and Turbulence I and external wall-turbulence Y. Kwon, analysis of evolving Lagrangian scale structures in turbulent boundary Development in Planar flow of Room: 207 C. Chin, N. Hutchins, J. Monty structures in the compressible layers F. Eich, N. Reuther, M. Bross, Viscoelastic Fluids N. Ashrafi, Chair: S. Garrett, U. of Leicester transitional boundary layer at C. Kaehler M. Mohamadali Ma =0.7 W. Zheng, Y. Yang, S. Chen D20. Turbulence: D20.07 Compressible turbulent D20.08 On the effect of finite-time D20.09 Dynamics of Strongly D20.10 LES prediction and analysis Compressible Flows mixing: Effects of compressibility and correlations on the turbulent mixing in Compressible Turbulence C. Tower y, of the aero-optical environment around Room: 208 Schmidt number Q. Ni smooth chaotic compressible velocity A. Poludnenko, P.Hamlington a 3-D turret E. Mathews, K. Wang, Chair: D. Livescu, Los Alamos National fields S. Ainsaar, J. Kalda M. Wang, E. Jumper Laboratory

53 Sunday Afternoon, 22 November 2015 Session 15:28 15:41 15:54 16:07 16:20 D21. Turbulence: Mixing D21.07 Turbulent mixing by D21.08 Structural Composition and D21.09 Wave propagation in D21.10 Probability density function Room: 209 buoyancy-driven flows in long tubes Turbulent Mixing Mechanisms of a inhomogeneous media as turbulent of a puff dispersing from the wall of a Chair: S. Tavoularis, U. of Ottawa S. Dalziel, L. Zou Subsonic Boundary Layer P.Bechlars, mixing in six-dimensional turbulent channel Q. Nguyen, R. Sandberg incompressible flow J. Kalda, M. Kree D. Papavassiliou D22. Turbulent Boundary D22.07 WITHDRAWN . D22.08 On the development of D22.09 Restricted nonlinear D22.10 Direct numerical simulation Layers I turbulent boundary layer with wall large-eddy simulations of of the incompressible temporally Room: 210 transpiration M. Ferro, R. Downs III, wall-turbulence D. Gayme, developing turbulent boundary layer Chair: R. Panton B. Fallenius, J. Fransson J. Bretheim, C. Meneveau M. Kozul, D. Chung, J. Monty D23. Biofluids: Active D23.07 Inertia changes the stability D23.08 Fluctuation spectra underlie D23.09 Dynamics and structure of D23.10 Fluctuations of Fluids II of synchronized states in the behaviour of non-equilibrium simple suspensions of active dipoles Bacteria-laden Microbeads in a Liquid Room: 300 hydrodynamically coupled oscillators systems A. Lee, D. Vella, J. Wettlaufer T. Gao, M. Betterton, A. Jhang, V. Kara, C. Lissandrello, J. O’Connor, Chair: F. Carrara, MIT S. Jiang, L. Fauci M. Shelley J. Romero Rodriguez, L. Li, K. Ekinci D24. Biofluids: Biofilms I D24.07 A non-destructive method for D24.08 PIV measurements of D24.09 Modeling Tear Film D24.10 We need wrinkle on the skin Room: 302 characterizing phenotypes and growth hydrodynamic interactions between Evaporation and Breakup with Duplex S. Ahn, S. Lee Chair: S. Srinivasan, Harvard U. of a Bacillus subtilis biofilm using biofilms and flow K. Christensen, Films M. Stapf, R. Braun, C. Begley, fluorescence microscopy S. Koehler, F. Kazemifar, M. Aybar, T. Driscoll, P.King-Smith X. Wang, J. Wilking, D. Weitz P.Perez-Calleja, R. Nerenberg, S. Sinha, R. Hardy, J. Best, G. Sambrook Smith D25. Biofluids: Cells in Flow D25.07 Laboratory and Field D25.08 Rheotaxy induced D25.09 Invariant manifolds as D25.10 Imaging of microscale mixing and Flow in Cells Observations of localisation of E-coli in Poiseuille flow barriers to the motion of bacteria in in biological suspensions K. Son, Room: 304 Microcystis aeruginosa in nearly H. AURADOU, M. Lopez, C. Douarche, vortex flows K. Lilienthal, D. Minh, R. Stocker homogeneous turbulent flows E. Clment T. Solomon

Chair: J. Guasto, Tufts U. Break, 16:20–16:50 A. Wilkinson, M. Hondzo, M. Guala D26. Bioﬂuids: Flexible D26.07 A bioinspired aquatic robot D26.08 CFD Study of Pectoral Fins D26.09 Scaling the Thrust D26.10 Jumping hoops on water Halls C and D Swimmers II propelled by an internal rotor of Larval Zebraﬁsh: Effect of Reynolds Production and Energetics of Inviscid E. Yang, H. Kim Room: 306 P.Tallapragada, B. Pollard Number and Fin Bending in Fluid Intermittent Swimming E. Akoz, Chair: M. Gazzola, Harvard U. Structures and Transport T. Islam, K. Moored O. Curet

Evaluation of performance of A novel time-to-space Turbulence power and kinetic D27. Experiments: Velocity D27.07 D27.08 D27.09 Refreshment and Vorticity Measurements multi-sensors hot-wire probes using conversion method bypassing the energy spectra measured by a Room: 308 Neural-Networks in-situ calibration problems with Taylor’s hypothesis temporal-to-spatial record conversion Chair: A. Naguib, Michigan State U. D. Liberzon, E. Kit caused by fluctuating convection P.Buchhave, C. Velte velocities C. Velte, P.Buchhave D28. Wind Turbines: Blade D28.07 Reduced-order FSI D28.08 Turbulent Potential Model D28.09 Dynamics of a wind turbine D28.10 Effect of blade loading and Design simulation of NREL 5 MW wind turbine Predictions of High Re Flow Around airfoil in turbulent inflow rotor speed on the optimal Room: 309 in atmospheric boundary layer the S809 Airfoil N. DeVelder H. Heisselmann, J. Peinke, M. Hoelling aerodynamic performance of wind Chair: F. Sotiropoulos, U. of Minnesota turbulence J. Motta-Mena, turbine blades C. Bryson, F. Hussain, R. Campbell, A. Lavely, P.Jha A. Barhorst D29. Nonlinear Dynamics: D29.07 Experimental studies of D29.08 Vertically localized D29.09 Exact localized free-stream D29.10 Exact laminar solutions for Coherent Structures II pinned and unpinned reaction fronts in equilibrium solutions in the large eddy coherent structures in a parallel flows in channels with sinusoidal walls Room: 310 two-dimensional, vortex-dominated simulation of homogeneous shear flow boundary layer T. Schneider, S. Vadarevu, A. Sharma, Chair: G. Chini, U. of New Hampshire flows L. Skinner, J. Simons, A. Sekimoto, J. Jimenez J. Gibson, T. Kreilos B. Ganapathisubramani T. Solomon D30. Geophysical Fluid D30.07 Interaction of two spheres D30.08 Internal hydraulic jumps with D30.09 Measurement of High D30.10 Internal gravity waves in Dynamics: Wakes and settling in a linearly stratified fluid large upstream shear K. Ogden, Reynolds Number Near-Field Turbulent stratified turbulent flow past a towed Boundaries in Stratified M. Mercier, C. Toupoint, P.Ern K. Helfrich Sphere Wakes under Stratified sphere at Re = 3700 A. Pal, Flows Conditions K. Kalumuck, A. Brandt, S. Sarkar Room: 311 K. Decker, K. Shipley Chair: J. Riley, U. of Washington

54 Sunday Afternoon, 22 November 2015 Session 15:28 15:41 15:54 16:07 16:20 D31. Drops: Leidenfrost D31.07 Relevant time- and length D31.08 Pool impacts of Leidenfrost D31.09 “Cold” Leidenfrost effect D31.10 Does buoyancy matter in the Effects scale of touch-down for drops drop B. Darbois Texier, P.Bourrianne, C. Clanet, D. Quere melting dynamics of ice? J. Guo, Room: 312 impacting on a heated surface M. van E. Dehandschoewercker, Z. Pan, M. Ordu, S. Basu, J. Bird Chair: G. Riboux, U. de Sevilla, Spain Limbeek, M. Shirota, C. Sun, T. Truscott A. Prosperetti, D. Lohse D32. Drops: Fragmentation D32.07 Fragment size distribution in D32.08 Experimental investigation of D32.09 Drop shaping and D32.10 Compressibility effects in Room: 313 viscous bag breakup of a drop the breakup of a round liquid jet in a fragmentation by laser-pulse impact droplets impacted by a laser pulse Chair: L. Bourouiba, Massachusetts V. Kulkarni, K. Bulusu, M. Plesniak, shock-induced crossflow J. Olles, A. Klein, W. Bouwhuis, C. Visser, S. Reijers, F. Toschi, D. Lohse, Institute of Technology P.Sojka D. Guildenbecher, J. Wagner, H. Lhuissier, J. Snoeijer, E. Villermaux, J. Snoeijer, H. Gelderblom E. DeMauro, P.Farias, T. Grasser, D. Lohse, H. Gelderblom P.Sojka D33. Drops: Wetting and D33.07 Wenzel Wetting on Slippery D33.08 Droplet spreading and D33.09 A boundary condition for D33.10 Phase-field simulations of Spreading I Rough Surfaces B. Stogin, X. Dai, absorption on rough, permeable fluid/fluid flow at the solid interface contact-line dynamics on rough Room: Ballroom A T. Wong substrates L. Espin, S. Kumar S. Afkhami, S. Zaleski, A. Guion, surfaces F. Yang, P.Yue, X. Chen Chair: O. Matar, Imperial College J. Buongiorno London D34. Drops: D34.07 On the origin of surface D34.08 Layers of Porous D34.09 A computational study of the D34.10 Transferring heat during a Superhydrophobic Surfaces fraction scaling for receding contact Superhydrophobic Surfaces for Robust impingement of water droplets onto bounce S. Shiri, J. Bird Room: Ballroom BC angles on textured superhydrophobic Water Repellency F. Ahmadi, freezing superhydrophobic surfaces Chair: J. Boreyko, Virginia Tech surfaces E. Barthel, J. Teisseire, J. Boreyko W. JIN, B. Amirzadeh, M. Tootkaboni, M. Rivetti M. Raessi D37. Focus Session: D37.07 Electrohydrodynamic D37.08 Fluctuation and dynamics of D37.09 Shape fluctuations of a giant Electro-Hydro-Dynamics of Displacement of Polarizable Liquid a lipid bilayer membrane under an lipid vesicle in an external electric field Break, 16:20–16:50 Drops, Vesicles and Interfaces in an Alternating Current electric field Y. Young, M. Miksis, N. Fricke, P.Vlahovska Membranes I Electric Field Z. Gagnon P.Vlahovska Halls C and D Room: Back Bay A Chair: D. Saintillan, U. of California - San Diego

Effect of a 3D surface Mixed mode transition in Numerical modeling of the Transitional regime and D38. Flow Instability: D38.07 D38.08 D38.09 D38.10 Refreshment Boundary Layers I depression on boundary layer zero and adverse pressure gradient transitional boundary layer over a flat laminarturbulent coexistence in the Room: Back Bay B transition H. Xu, S. Mughal, boundary layers R. Bose, P.Durbin plate D. Ivanov, A. Chorny asymptotic suction boundary layer Chair: Y. Nishio, Tohoku U. S. Sherwin T. Khapko, P.Schlatter, Y. Duguet, D. Henningson D39. Flow Instability: D39.07 Linear Stability Analysis of D39.08 Suppression of the D39.09 Multiphase Instabilities in D39.10 Numerical Simulation of Richtmyer-Meshkov I Magnetohydrodynamic spherically converging Explosive Dispersal of Particles Multi-Material Mixing in an Inclined Room: Back Bay C Richtmyer-Meshkov Instability in magnetohydrodynamic B. Rollin, F. Ouellet, S. Annamalai, Interface Richtmyer-Meshkov Instability Chair: O. Schilling, Lawrence Cyindrical Geometry A. Bakhsh, Richtmyer-Meshkov instablity in an S. Balachandar A. Subramaniam, S. Lele Livermore National Laboratory R. Samtaney octahedrally symmetric seed magnetic field W. Mostert, V. Wheatley, D. Pullin, R. Samtaney D40. Flow Instability: D40.07 Evolution of Rayleigh-Taylor D40.08 The Compressible D40.09 Rayleigh-Taylor Instability in D40.10 RANS Simulations of Rocket Rayleigh-Taylor I growth following an initial Rayleigh-Taylor Instability and Vortex non-premixed reacting flames. Rig Experiments: Capturing the Effects Room: Back Bay D Richtmyer-Meshkov instability Dynamics in Stratified Media N. Attal, P.Ramaprabhu of the Rayleigh- Taylor Instability Chair: A. Cook, Lawrence Livermore J. Melvin, B. Cheng, J. Glimm, S. Wieland, D. Livescu, O. Vasilyev, Subject to a Changing Body Force National Laboratory D. Sharp S. Reckinger R. Bertsch, R. Gore

55 Sunday Afternoon, 22 November 2015 Session 16:50 17:03 17:16 17:29 17:42 17:55 E1. Porous Media Flows: E1.01 How gradients in porosity can E1.02 Gravity filtration of E1.03 Flow and fouling in membrane E1.04 Permeability modification in E1.05 DEM Simulation of Particle E1.06 Effect of long-range Clogging and Filtration make a better filter I. Griffiths, suspensions: permeability effects filters: Effects of membrane 3D porous media due to polymer Clogging in Fiber Filtration R. Tao, electrostatic interaction on pore Room: Auditorium M. Bruna, M. Dalwadi T. Soori, M. Wang, T. Ward morphology P.Sanaei, L. Cummings retention S. Parsa, H. Sizaret, M. Yang, S. Li clogging in viscous particle flow Chair: I. Griffiths, U. of Oxford D. Weitz S. Chen, M. Yang, S. Li E2. Suspensions: Rheology II E2.01 Direct visualization of particle E2.02 Active microrheology of E2.03 Using Shear Reversal and E2.04 Non-equilibrium depletion E2.05 Effect of confinement induced E2.06 Brownian Particles Under Room: 101 scale internal stresses in a colloidal Brownian suspensions via Accelerated Biaxial Shear Flows to Investigate interactions: first things attract, then structures on suspension rheology Shear: Rheology & Microstructure Chair: I. Cohen, Cornell U. glass I. Cohen, N. Lin, M. Bierbaum, Stokesian Dynamics simulations Anisotropic Shear Thickening in they repel B. Dolata, R. Zia M. Ramaswamy, B. Leahy, Y. Lin, S. Farhadi, M. Gurjar, N. Keim, J. Sethna H. Chu, Y. Su, K. Gu, N. Hoh, R. Zia Colloidal Suspensions N. Lin, B. Guy, I. Cohen P.Arratia M. Hermes, C. Ness, J. Sun, W. Poon, I. Cohen E3. Fluid Dynamics Outreach E3.01 Indicators of Student E3.02 Do we need more famous fluid E3.03 F*** Yeah Fluid Dynamics: On E3.04 APS Education and Diversity E3.05 Engineering education E3.06 STEM for Females goes from and Diversity Engagement in Fluid Mechanics dynamicists? S. Reckinger, science outreach and appealing to Efforts K. Prestridge, T. Hodapp research: Impacts of an international a Ripple to a Wave R. Roy Room: 102 J. Hertzberg, K. Goodman B. Brinkman, R. Fenner, M. London broad audiences N. Sharp network of female engineers on the Chair: J. Hertzberg, U. of Colorado, persistence of Liberian undergraduate Boulder women studying engineering S. Rimer, S. Reddivari, A. Cotel E4. Compressible Flows: E4.01 Group Invariance Properties of E4.02 Asymptotic Solutions of E4.03 Similarity Solutions of the E4.04 Effects of Segmented Slot E4.05 Viscous Shear Layers Formed General the Inviscid Compressible Flow Detonation Propagation in a 2D Compressible Flow Equations for a Blowing at the Leading Edge of a Finite by Non-Bifurcating Shock Waves in Room: 103 Equations for a Modified Tait Equation Circular Arc. M. Short, C. Meyer, General Equation of State Z. Boyd, Span Cavity in Supersonic Flow Shock-Tubes K. Grogan, M. Ihme Chair: R. Baty, Los Alamos National of State S. Ramsey, R. Baty J. Quirk S. Ramsey, R. Baty B. George, L. Ukeiley, L. Cattafesta, Laboratory K. Taira E5. Combustion II E5.01 Localized structures in E5.02 Direct numerical simulations of E5.03 Experimental and Numerical E5.04 3-Dimensional Aerospike E5.05 High-Energy X-ray Absorption E5.06 Electric field effects on droplet Room: 104 gaseous combustion E. Knobloch, evaporating droplets in turbulence Investigation of Vortical Structures in Nozzle Design B. Stevens, R. Branam Diagnostics as an Experimental burning A. Patyal, D. Kyritsis, Chair: E. Knobloch, U. of California at D. Lo Jacono, A. Bergeon J. Palmore, O. Desjardins Lean Premixed Swirl-Stabilized Combustion Technique J. Dunnmon, M. Matalon Berkeley Combustion S. Taamallah, S. Sobhani, W. Hinshaw, R. Fahrig, N. Chakroun, S. Shanbhogue, M. Ihme G. Kewlani, A. Ghoniem E6. Reacting Flows: High E6.01 Model Scramjet Inlet Unstart E6.02 Linear stability analysis of E6.03 Application of Filtered E6.04 Vibrational nonequilibrium in E6.05 In Search of Reaction Rate E6.06 Optimizing Simplified Speed Induced by Mass Addition and Heat scramjet unstart I. Jang, J. Nichols, Spherical Harmonics Radiation chain branching reactions of hydrogen Scaling Law for Supersonic One-Step Chemical Models for High Room: 105 Release S. Im, D. Baccarella, P.Moin Transport to High-Speed Reactive Flow combustion using quasi-classical Combustion F. Ladeinde, Z. Lou, W. Li Speed Reacting Flows A. Ozgen, Chair: S. Im, Worcester Polytechnic B. McGann, Q. Liu, L. Wermer, H. Do R. Houim, E. Oran trajectory analysis S. Voelkel, R. Houim, E. Oran Institute V. Raman, P.Varghese E7. High Reynolds Number E7.01 Investigation of the influence E7.02 Experimental studies of E7.03 Turbulent Deflagrated Flame E7.04 Variable-Density Co-Flowing E7.05 Experimental study of Experiments of the subgrid-scale stress on vorticity in externally driven flows using Interaction with a Fluidic Jet Flow for Jet Simulations with BHR D. Israel interfacial structure of a falling liquid Room: 107 non-intrusive spatial pressure electron plasmas N. Hurst, Deflagration-to-Detonation Flame film in a vertical pipe A. Hasan, Chair: C. Surko, U. of California San measurement using an isotropic J. Danielson, C. Surko Acceleration J. Chambers, J. Mcgarry, B. Azzopardi, B. Hewakandamby Diego turbulence database K. Ahmed S. Siddle-Mitchell, X. Liu, J. Katz E8. CFD: Turbomachinery E8.01 Computational study of a High E8.02 Impact of tip-gap size and E8.03 Application of dynamic slip E8.04 Turbulence Model Evaluation E8.05 Compressible DNS of E8.06 Unsteady adjoint of a gas Room: 108 Pressure Turbine Nozzle/Blade periodicity on turbulent transition wall modeling to a turbine nozzle guide on a High Pressure Turbine Stage 1 transitional and turbulent flow in a low turbine inlet guide vane C. Talnikar, Chair: Interaction J. Kopriva, G. Laskowski, A. Pogorelov, M. Meinke, W. Schroeder vane S. Bose, C. Talnikar, P.Blonigan, Vane M. Osusky, S. Rostami, pressure turbine cascade R. Ranjan, Q. Wang R. Sheikhi Q. Wang A. Shabbir S. Deshpande, R. Narasimha E9. CFD: Computational E9.01 Detailed modeling of sloshing E9.02 Structures in the Oscillatory E9.03 Aref’s chaotic orbits tracked by E9.04 Modeling electrokinetic flow by E9.05 Numerical study on influence E9.06 A 3D MPI-Parallel Methods and Modeling of in satellites tank at low Bond numbers regime of RLDCC flow a general ellipsoid using 3D numerical Lagrangian particle-based method of electric Reynolds and Peclet GPU-accelerated framework for Multiphase Flows II M. Lepilliez, S. Tanguy N. Panchapakesan simulations P.Shui, S. Popinet, W. Pan, K. Kim, M. Perego, number’s on electrohydrodynamic simulating ocean wave energy Room: 109 R. Govindarajan, P.Valluri A. Tartakovsky, M. Parks assisted atomization P.Sheehy, converters A. Pathak, M. Raessi Chair: M. Lepilliez, U. of Toulouse M. Owkes E10. Microscale Flows: E10.01 Rearrangement dynamics of E10.02 A simple and low-cost E10.03 Continuous Microfluidic E10.04 Changing Emulsion E10.05 A scalable platform for E10.06 Fluid entrainment in confined Emulsions concentrated emulsions in a tapered 3d-printed emulsion generator Fabrication of Synthetic Asymmetric Dynamics with Heterogeneous Surface functional emulsions J. Feng, colloid-polymer mixtures R. Ledesma Room: 110 micro-channel Y. Gai, C. Stan, S. Tang J. Zhang, A. Aguirre-Pablo, E. Li, Vesicles for Membrane Biology Studies Wettability P.Tsai, Q. Meng, Y. Zhang, J. Nunes, S. Shin, J. Yan, Y. Kong, Aguilar, S. Setu, R. Dullens, Chair: S. Tang, Stanford U. S. Thoroddsen L. Lu, J. Schertzer, P.Chiarot J. Li, R. Lammertink, H. Chen R. Prud’homme, L. Arnaudov, A. Hernandez Machado, S. Stoyanov, H. Stone I. Pagonabarraga, D. Aarts

56 Sunday Afternoon, 22 November 2015 Session 16:50 17:03 17:16 17:29 17:42 17:55 E11. Nanoscale Flows: E11.01 Measurement of the E11.02 The deposition of gold E11.03 Experimental demonstration E11.04 The near wall TIRFM E11.05 Nanodroplet Depinning E11.06 Formation of parallel General near-wall velocity profile for a nanofluid nanoparticles in MWCNT forests F. d e of scaling behavior for ionic transport measurement of nano-tracer’s Dynamics of from Nanoparticles two-phase flow in nanochannel and Room: 111 flow inside a microchannel Jong, A. Buffet, M. Schlueter and its fluctuations in individual carbon statistical intensity distribution (SID) F. Leong, L. Qi, Z. Aabdin, U. Anand, application to solvent extraction Chair: A. Kanjirakat, Texas A&M U. at A. Kanjirakat, R. Sadr nanotube L. Bocquet, E. Secchi, and determining the base intensity I0 T. Quang, U. Mirsaidov Y. Kazoe, T. Ugajin, R. Ohta, Qatar A. Nigues, A. Siria X. Zheng K. Mawatari, T. Kitamori E12. Non-Newtonian Flows: E12.01 Viscoplastic flow in a E12.02 Channelization of E12.03 Yield stress fluid flow in E12.04 The transverse mobility of E12.05 Does Carbopol Elasticity E12.06 Insights on the local Viscoplasticity Hele-Shaw cell N. Balmforth, viscoplastic flow in a rough Hele-Shaw model porous media J. Paiola, yield-stress fluids in fibrous media affect its Yielding Dynamics? A study dynamics during transient flows of Room: 200 D. Hewitt cell D. Hewitt, N. Balmforth H. Bodiguel, H. Auradou S. Shahsavari, G. McKinley based on the Settling of a Particle in waxy crude oils M. Geri, Chair: N. Balmforth, U. of British “Plastic” materials D. Fraggedakis, B. Saint-Michel, T. Divoux, Columbia Y. Dimakopoulos, J. Tsamopoulos S. Manneville, G. McKinley E13. Free Surface Flows III: E13.01 Polygonal instability of E13.02 Vibrational instabilities of a E13.03 The Effect of Non-Uniform E13.04 Enhancing Liquid E13.05 A New Contact Line E13.06 When Marangoni meets Marangoni Flows Marangoni flows M. Roche,´ nonisothermal liquid layer with Wetting Properties on Contact Line Micro-volume Mixing with Structure for Surfactant-Driven Savart: The distant interaction of a Room: 201 M. Labousse, B. El Hadj Maiga, L. Nya, insoluble surfactant A. Mikishev, Dynamics M. Grivel, D. Jeon, Wettability-Patterned Surfaces Superspreading Phenomenon H. Wei drop with a liquid sheet B. Neel,´ Chair: M. Roche,´ Universit Paris S. Le Roux, I. Cantat, A. Saint-Jalmes A. Nepomnyashchy M. Gharib J. Morrissette, P.Sinha Mahapatraa, E. Villermaux Diderot, CNRS R. Ganguly, C. Megaridis E14. General Fluid Dynamics: E14.01 Investigations of Air E14.02 A priori models for predicting E14.03 Sustained Drag Reduction in E14.04 Drag reduction over E14.05 Drag Coefficient of Thin E14.06 Geometry Mediated Drag Drag Reduction Perfusion through Porous Media and drag reduction for flow over Turbulent Taylor-Couette Flows liquid-infused surfaces in turbulent Flexible Cylinder C. Subramanian, Reduction in Taylor-Couette Flows Room: 202 Super-Hydrophobic Surface Active Gas heterogeneous slip boundaries Enabled by Low-Temperature Taylor-Couette flow T. Van Buren, H. Gurram S. Raayai, G. McKinley Chair: M. Perlin, U. of Michigan Replenishment M. Perlin, J. Gose, M. Heck, D. Papavassiliou Leidenfrost Effect D. Saranadhi, B. Rosenberg, A. Smits K. Golovin, S. Ceccio, A. Tuteja D. Chen, J. Kleingartner, S. Srinivasan, R. Cohen, G. McKinley E15. Aerodynamics: E15.01 Modeling intermittent E15.02 Assessment of Control E15.03 Analytic State Space Model E15.04 The Development of the E15.05 Evolution and Control of the E15.06 Streamwise Oscillation of Unsteady Airfoil and Wing leading-edge vortex shedding in Volume Estimation of Thrust for a for an Unsteady Finite-Span Wing Vorticity Field Downstream of a Leading Edge Vortex on an Unsteady Airfoils into Reverse Flow Room: 203 unsteady airfoil flows with Sinusoidally Pitching Airfoil at Low J. Izraelevitz, Q. Zhu, M. Triantafyllou NACA0012 Airfoil Undergoing Small Wing J. Akkala, J. Buchholz K. Granlund, A. Jones, M. Ol Chair: A. Gopalarathnam, North reduced-count discrete vortices Reynolds Number P.Hammer, Amplitude Sinusoidal Oscillation Carolina State U. A. Gopalarathnam, K. Ramesh, A. Naguib, M. Koochesfahani C. Stutz, P.Hammer, D. Bohl, A. Suresh Babu M. Koochesfahani E16. Aerodynamics: Theory E16.01 Flow Structures within a E16.02 A Hybrid Vortex Sheet / Point E16.03 On Entropy Trail S. Farokhi, E16.04 Performance Evaluation of E16.05 Steady and Unsteady E16.06 The leading-edge stall of and Vehicles Helicopter Rotor Hub Wake B. Elbing, Vortex Model for Unsteady Separated R. Taghavi, S. Keshmiri Leading Edge Slats on Rigid Wing Sail Aerodynamics of Thin Airfoils with airfoils with various nose shapes Room: 204 D. Reich, S. Schmitz Flows D. Darakananda, J. Eldredge, Catamarans C. Johnson, C. O’Neill Porosity Gradients R. Hajian, M. Kraljic, Z. Rusak, S. Wang Chair: B. Elbing, Oklahoma State U. T. Colonius, D. Williams J. Jaworski E17. Flow Control: E17.01 Experimental sensitivity E17.02 Tollmien-Schlichting wave E17.03 Controlling Spatiotemporal E17.04 Stabilization of flow past a E17.05 Adjoint sensitivity analysis of E17.06 An investigation of natural Instabilities analysis and control of thermoacoustic cancellation by feedback control Chaos in Active Dissipative-Dispersive cylinder with rounded corners hydrodynamic stability in cyclonic flows and forced transition in a laminar Room: 205 systems M. Juniper, N. Jamieson, H. Vemuri, J. Morrison, E. Kerrigan Nonlinear Systems S. Gomes, W. Zhang, R. Samtaney J. Guzman Inigo, M. Juniper separation bubble via time-resolved Chair: M. Juniper, U. of Cambridge L. Li, G. Rigas M. Pradas, S. Kalliadasis, Particle Image Velocimetry J. Kurelek, D. Papageorgiou, G. Pavliotis S. Yarusevych E18. Flow Control: Actuator E18.01 Supersonic cavity flow E18.02 LES-based characterization E18.03 Modeling of a zero-net mass E18.04 Vectoring of parallel E18.05 Manipulation of Turbulent Design and Analysis control using plasma actuators of a suction and oscillatory blowing flux actuator for aqueous media synthetic jets T. Berk, Boundary Layers Using Synthetic Jets Room: 206 N. Webb, D. Omari, M. Samimy fluidic actuator J. Kim, P.Moin B. Ayers, C. Henoch, H. Johari B. Ganapathisubramani, G. Gomit Z. Berger, G. Gomit, P.Lavoie, Chair: N. Webb, Ohio State U. B. Ganapathisubramani E19. Boundary Layers: E19.01 The relationship between E19.02 Coinciding Features in a E19.03 An improved method to E19.04 Long structures in a turbulent E19.05 Large-scale motions in a E19.06 Large scale structures in a Structure and Turbulence II amplitude modulation, coherent Turbulent Boundary Layer via characterise the modulation of boundary layer with a rod-roughened plane wall jet E. Gnanamanickam, turbulent boundary layer and their Room: 207 structure and critical layers in wall Lagrangian Coherent Structures, small-scale turbulent by large-scale wall J. Kim, J. Lee L. Jonathan, B. Shibani imprint on wall shear stress R. Pabon, Chair: B. McKeon, California Institute turbulence B. McKeon Dynamic Mode Decomposition and structures L. Agostini, M. Leschziner, C. Barnard, L. Ukeiley, M. Sheplak of Technology Proper Orthogonal Decomposition D. Gaitonde N. Ali, M. Tutkun, R. Cal E20. Turbulence: Large Eddy E20.01 Computations of turbulent E20.02 A metric for assessing the E20.03 Discrete dynamical system E20.04 Autonomic Closure for Large E20.05 Temporal characterization of E20.06 Study of dealiasing schemes Simulations channel flow using the nested-LES dynamic content of large-eddy approximation to the Boltzmann Eddy Simulation R. King, turbulence and coherent structures in a in pseudo-spectral methods for Room: 208 approach R. Akhavan, Y. Tang simulations G. Nastac, M. Ihme equation for eddy-viscosity-free LES P.Hamlington, W. Dahm recirculating flow J. Ramirez-Pastran, Large-Eddy Simulations of Chair: R. Akhavan, U. of Michigan modeling of transitional flow C. Duque-Daza, D. Lockerby incompressible flows F. Margairaz, J. McDonough, H. Yu M. Giometto, M. Parlange, M. Calaf

57 Sunday Afternoon, 22 November 2015 Session 16:50 17:03 17:16 17:29 17:42 17:55 E21. Turbulence: Planetary E21.01 Nonequilibrium Response of E21.02 Towards a Subgrid Model of E21.03 Investigation of the E21.04 Adjustment of mean velocity E21.05 Aerodynamic surface stress E21.06 Large-eddy simulations of Boundary Layers the Daytime Atmospheric Boundary Planetary Boundary Layers Based on pressure-strain-rate correlation in the and turbulence due to a finite-size wind intermittency and conditionally mean and turbulence dynamics in Room: 209 Layer to Mesoscale Forcing Direct Statistical Simulation J. Skitka, convective atmospheric surface layer farm in a neutral ABL - A LES study averaged turbulence statistics unsteady Ekman boundary layers Chair: J. Brasseur, Penn. State U. J. Brasseur, B. Jayaraman, S. Haupt, B. Fox-Kemper, B. Marston K. Nguyen, S. Liu, M. Otte, C. Tong V. Sharma, M. B. Parlange, M. Calaf W. Anderson, D. Lanigan M. Momen, E. Bou-Zeid J. Lee E22. Turbulent Boundary E22.01 Inviscid Wall-Modeled Large E22.02 Application of the Integral E22.03 Multiple-relaxation-time E22.04 Assesment of turbulence E22.05 Investigation of pressure E22.06 Improved engineering Layers: Wall Modeling Eddy Simulations for Improved Length-Scale Approximation to Wall lattice Boltzmann simulations of models for boundary layers with gradient aware wall modeling in LES models for turbulent wall flows Z. She, Room: 210 Efficiency K. Aikens, K. Craft, Modelled LES A. Rouhi, U. Piomelli, turbulent channel and pipe flows. pressure gradient and roughness O. Thiry, G. Winckelmans, X. Chen, H. Zou, F. Hussain Chair: K. Aikens, Houghton College A. Redman A. Silva-Lopes H. Opadrishta, C. Peng, L. Wang R. Dutta, U. Piomelli M. Duponcheel E23. Biofluids: E23.01 Stretch-coil transition of a E23.02 Elastohydrodynamics of E23.03 Dynamics and topology of a E23.04 Flow-Induced Stiffness E23.05 Self-propulsion of a heaving E23.06 Fluid-Structure Interaction Fluid-Structure Interaction semiflexible filament in extensional flow contact in adherent sheets flexible chain: knots in steady shear Enables Torsional Oscillations in a and pitching flexible flag B. Kim, Study on a Pre-Buckled Deformable Room: 300 H. Manikantan, D. Saintillan A. Carlson, S. Mandre, L. Mahadevan flow A. Slowicka, S. Kuei, Two-Degree-of-Freedom, S. Park, H. Sung Flat Ribbon L. Fovargue, E. Shams, Chair: H. Manikantan, UCSD M. Ekiel-Jezewska, E. Wajnryb, Flexibly-Mounted and Free-to-Rotate A. Watterson, D. Corson, B. Filardo, H. Stone Rigid Plate P.Pourazarm, D. Zimmerman, B. Shan, A. Oberai Y. Modarres-Sadeghi E24. Biofluids: Vesicles and E24.01 The dynamics of inextensible E24.02 Off-plane motion of an oblate E24.03 Quantifying mixing in vesicle E24.04 Hydrodynamic and E24.05 Multiscale modeling of E24.06 Resolving lubrication layers Micelles capsules in shear flow under the effect capsule in simple shear flow suspensions using numerical macromolecules induced clusters of mechanosensing channels on vesicles in immersed boundary method Room: 302 of the natural state T. Pan, X. Niu, A. Salsac, C. Dupont, F. Delahaye, simulations in two dimensions red blood cells in microcapillary flow and cell membranes in 3D constricted simulations of vesicular transport in Chair: T. Pan, U. of Houston R. Glowinski D. Barthes-Biesel G. Kabacaoglu, G. Biros, B. Quaife V. Claveira, O. Aouane, G. Coupier, flows and shear flows Z. Peng, dendritic spines T. Fai, R. Kusters, C. Misbah, M. Abkarian, C. Wagner O. Pak, Y. Young, A. Liu, H. Stone C. Rycroft E25. Superfluids E25.01 Nonlinear Binormal Flow of E25.02 Three Dimensional Vortex E25.03 Vortex knottiness in E25.04 Hydrodynamic Decay of Room: 304 Vortex Filaments S. Strong, L. Carr Reconnection Dynamics in Superfluid superfluids H. Kedia, D. Kleckner, Decorated Quantum Vortex Rings Chair: S. Strong, Colorado School of Helium P.Megson, D. Meichle, D. Proment, W. Irvine L. Moriconi Mines D. Lathrop E26. Experiments: Sensing E26.01 Expandable and retractable E26.02 High-resolution compact E26.03 Bio-Inspired Pressure E26.04 Daylight Operable PIV for E26.05 Adapting unmanned aerial E26.06 Characterization of floating and Field Measurements self-rolled structures based on shear stress sensor for direct Sensitive Foam Arrays for use in Use in the Field L. Brock, J. Sheng vehicles for turbulence measurement element balance for field panel testing Room: 306 metal/polymer thin film for flow sensing measurement of skin friction in fluid Hydrodynamic Sensing Applications B. Witte, J. Helvey, J. Mullen, J. Hunsucker, H. Gardner, G. Swain Chair: J. Zhu, Univeristy of Virginia J. Zhu, C. White, M. Saadat, flow M. Xu, C. Kim J. Dusek, M. Triantafyllou, J. Lang M. Thamann, S. Bailey H. Bart-Smith E27. Experiments: E27.01 Multi-photon Molecular E27.02 Development of a E27.03 Development of a 3-wire E27.04 PIV as a temperature E27.05 A Composition-Independent E27.06 Preparation and Application Temperature and Velocity Tagging Thermometry with time-resolved luminescent imaging probe for the simultaneous measurement tool G. Oweis Thermometry Technique for Gaseous of Temperature Sensitive Paintings Measurements Femtosecond Excitation (FemtoMTT) technique for unsteady temperature measurement of turbulent velocity, Mixtures in Reacting Environments C. Li Room: 308 S. Pouya, A. van Rhijn, A. Safaripour, measurement in thermal fluid concentration and temperature fields D. Zelenak, V. Narayanaswamy, Chair: S. Pouya, Michigan State U. M. Dantus, M. Koochesfahani phenomena K. Kobayashi, H. Sakaue A. HEWES, L. MYDLARSKI W. Sealy E28. Wind Turbines: Actuator E28.01 Predictive simulation of wind E28.02 A new class of actuator E28.03 Simulating wind and marine E28.04 Determining the optimal E28.05 Enhanced Actuator Line E28.06 Development of an advanced Lines/Discs turbine wake interaction with an surface models incorporating wind hydrokinetic turbines with actuator smoothing length scale for actuator line Simulation of a Wind Turbine by actuator disk model for Large-Eddy Room: 309 adaptive lattice Boltzmann method for turbine blade and nacelle geometry lines in RANS and LES P.Bachant, models of wind turbine blades including the Conservative Load at the Simulation of wind farms M. Moens, Chair: R. Deiterding, U. of moving boundaries R. Deiterding, effects X. Yang, F. Sotiropoulos M. Wosnik L. Martinez, C. Meneveau Blade Tip I. Herraez, D. Micallef, M. Duponcheel, G. Winckelmans, Southampton S. Wood G. van Kuik, J. Peinke P.Chatelain E29. Nonlinear Dynamics and E29.01 Motion of multiple helical E29.02 The Method of E29.03 Spectral analysis of E29.04 Pattern formation in thin film Waves I vortices O. Velasco Fuentes Decomposition in Invariant Structures: approximations of Dirichlet-Neumann evolution equations for complex fluids Room: 310 Exact Solutions for N Internal Waves in operators and nonlocal shallow water M. Wilczek, S. Gurevich, U. Thiele Chair: O. Velasco Fuentes, CICESE Three Dimensions V. Miroshnikov wave models R. Vargas-Magaa, P.Panayotaros E30. Geophysical Fluid E30.01 Zonal Flow Velocimetry in E30.02 Shear secondary instability E30.03 Turbulent Flows Driven by E30.04 Influence of the multipole E30.05 Do inertial wave interactions Dynamics: Rotating Flows Spherical Couette Flow using Acoustic in a precessing cylinder flow the Mechanical Forcing of an order of the source on the decay of an control the rate of energy dissipation of Room: 311 Modes M. Adams, A. Mautino, W. Mouhali, T. Lehner Ellipsoidal Container B. Favier, M. Le inertial wave beam in a rotating fluid rotating turbulence? P.Cortet, Chair: E. Meiberg, U. of California, D. Stone, S. Triana, V. Lekic, D. Lathrop Bars, A. Grannan, A. Ribeiro, J. Aurnou N. Machicoane, P.Cortet, B. Voisin, A. Campagne, N. Machicoane, Santa Barbara F. Moisy B. Gallet, F. Moisy

58 Sunday Afternoon, 22 November 2015 Session 16:50 17:03 17:16 17:29 17:42 17:55 E31. Geophysical Fluid E31.01 Direct Statistical Simulation E31.02 Gravity wave emission in an E31.03 Multiscale asymptotics for E31.04 Mean flow and anisotropic E31.05 Convectively and E31.06 Advection-condensation of Dynamics: Atmospheres of Geophysical Flows B. Marston, atmosphere-like configuration of the Madden-Julian Oscillations and cascades in decaying 2D turbulence Orographically Forced Mesoscale water vapor with coherent stirring: a Room: 312 G. Chini, S. Tobias differentially heated rotating annulus Tropical–Extratropical Interactions C. Liu, R. Cerbus, G. Gioia, Flows in a Stably Stratified Atmosphere stochastic approach Y. Tsang, Chair: B. Marston, Brown U. experiment U. Achatz, S. Borchert, S. Chen, A. Majda, S. Stechmann P.Chakraborty J. Seo, J. Baik J. Vanneste, G. Vallis M. Fruman, S. Hien, J. Rolland E32. Drops: Impact E32.01 Modeling drop impacts on E32.02 Experimental study of drop E32.03 Large bubble entrainment in E32.04 Droplet impact on a liquid E32.05 Drainage of the air film E32.06 Ripple Dynamics of Water Interactions inclined flowing soap films S. Basu, impacts on soap films A. Yawar, drop impact M. Thoraval, Y. Li, pool and bubble entrainment for low during drop impact on flowing liquid Entry after Pinch Off A. Mituniewicz, Room: 313 A. Yawar, A. Concha, M. Bandi S. Basu, A. Concha, M. Bandi S. Thoroddsen Bond numbers P.Sleutel, P.Tsai, films Z. Che, O. Matar B. Chang, M. Crosson, S. Jung Chair: M. Bandi, Okinawa Institute of W. Bouwhuis, M. Thoraval, C. Visser, Science and Technology A. Wang, M. Versluis, D. Lohse E33. Drops: Wetting and E33.01 Drop stability in wind: theory E33.02 Drop stability in wind: effect E33.03 Simulations of contact angle E33.04 Superspreading: molecular E33.05 Thermocapillary flow of E33.06 Dancing droplets: Chemical Spreading II S. Lee of solid protrusion A. Hooshanginejad, induced pearling for sliding drops dynamics simulations and droplets: gravity and disjoining space, substrates, and control Room: Ballroom A B. Wilcox, E. White, S. Lee S. McCue, L. Mayo, T. Moroney experimental results P.Theodorakis, potential effects J. Gomba, J. Mac N. Cira, A. Benusiglio, M. Prakash Chair: S. Lee, Texas A&M U. N. Kovalchuk, V. Starov, E. Muller, Intyre, C. Perazzo R. Craster, O. Matar E35. Drops: Complex Fluids E35.01 Gel-like double-emulsion E35.02 Yield-stress fluid drop impact E35.03 A Computational Study of E35.04 Simulation of Droplet E35.05 Multiple phenomena E35.06 Coalescence avalanches in Room: Ballroom B droplets J. Guzowski, P.Korczyk, on heated surfaces B. Blackwell, the Rheology and Structure of Generation in a Non-Newtonian Dense triggered by surfactant solutions on 2D emulsions: a stochastic approach Chair: J. Guzowski, Princeton U. P.Garstecki, H. Stone A. Wu, R. Ewoldt Surfactant Covered Droplets J. Maia, Granular Suspension G. Mrtensson, liquid pools X. WANG D. Masila, R. Rengaswamy A. Boromand, S. Jamali M. Svensson, A. Mark, F. Edelvik E36. Drops: Condensation E36.01 Instant freezing of impacting E36.02 Spatial Control of E36.03 Can Ice Prevent Frost E36.04 Freezing Behavior of a E36.05 Dry Zones Around Frozen E36.06 Ice Formation Delay on and Freezing wax drops A. Ponomarenko, E. Virot, Condensation using Chemical Growth? S. Nath, R. Hansen, Supercooled Water Droplet Impacting Droplets C. Bisbano, S. Nath, Penguin Feathers E. Alizadehbirjandi, Room: Ballroom C S. Rubinstein Micropatterns K. Murphy, R. Hansen, K. Murphy, S. Retterer, P.Collier, on Surface Using Dual-Luminescent J. Boreyko F. Tavakoli-Dastjerdi, J. St. Leger, Chair: A. Ponomarenko, Harvard U. S. Nath, S. Retterer, P.Collier, J. Boreyko Imaging Technique M. Tanaka, S. Davis, J. Rothstein, H. Kavehpour J. Boreyko K. Morita, M. Yamamoto, H. Sakaue E37. Focus Session: E37.01 Ellipsoidal relaxation of E37.02 Computational algorithms for E37.03 Electrohydrodynamics Of E37.04 Magnetohydrodynamics of E37.05 Stretching surfactant- or E37.06 Electrohydrodynamic Electro-Hydro-Dynamics of electrodeformed vesicles M. Yu, vesicle electrohydrodynamics Multicomponent Vesicles P.Gera, Vesicles D. Salac protein-coated droplets in a high Printing on Flat and Uneven Surfaces Drops, Vesicles and H. Lin, R. Lira, R. Dimova, K. Riske S. Veerapaneni D. Salac frequency electric field G. Randall S. Maktabi, P.Chiarot Membranes II Room: Back Bay A Chair: D. Saintillan, U. of California - San Diego E38. Flow Instability: E38.01 Analyzing stability of E38.02 Effect of Prandtl number on E38.03 Criteria for instability of E38.04 Three-dimensional E38.05 Inertial instability of miscible E38.06 Optimal Free-Stream Vortical General I compressible, swirling pipe flows using the linear stability of compressible helical disturbances in inviscid, swirling instabilities in a rapidly counter-rotating fluid stratifications in square Disturbances M. Hack Room: Back Bay B disturbance energy mechanisms Couette flow K. Sinha, flows C. Douglas, B. Emerson, split cylinder P.Gutierrez-Castillo, microchannels X. Hu, T. Cubaud Chair: J.J. Hack, Stanford U. A. Samanta A. Ramachandran, B. Saikia, T. Lieuwen J. Lopez R. Govindarajan E39. Flow Instability: E39.01 Flow morphologies after E39.02 Structure functions of E39.03 Progress on Simultaneous E39.04 Evaluation of a Two-Length E39.05 Shock Wave Interactions in E39.06 Comparison of hydrodynamic Richtmyer-Meshkov II oblique shock acceelration of a passive scalar: evolution in fully 3D PLIF/PIV Measurements for a Scale Turbulence Model with Multi-Phase Particle Systems simulations with two-shockwave drive Room: Back Bay C cylindrical density interface P.Wayne, shock-driven transition to turbulence Turbulent Complex Fluid Interface Experiments on Shock-Driven Characterized by Various Interfaces target experiments V. Karkhanis, Chair: P. Vorobieff, U. of New Mexico D. Simons, D. Olmstead, C. Truman, P.Vorobieff, D. Olmstead, D. Simons, D. Reilly, M. Mohaghar, J. Carter, Turbulent Mixing J. Carter, R. Gore, W. Black, N. Denissen, J. Mcfarland P.Ramaprabhu, W. Buttler P.Vorobieff, S. Kumar P.Wayne, C. Truman, S. Kumar J. McFarland, D. Ranjan D. Ranjan E40. Flow Instability: Vortex E40.01 Towards an understanding of E40.02 Viscoelastic Fluid-Structure E40.03 Azimuthal instability of vortex E40.04 Liner stability analysis of the E40.05 Vorticity amplification and its E40.06 Sensitivity of Flows vortex shedding frequency in Interactions A. Dey, J. Rothstein, rings generated by an oscillating disk two-dimensional Taylor-Green vortices effects on flow separation from vortex-shedding in unsteady wake Room: Back Bay D conventional and Y. Modarres-Sadeghi J. Deng, C. Caulfield in a stratified flow S. Suzuki, simplified landing gear wheels based on a self-consistent model Chair: P. Fontana, Seattle U. quasi-two-dimensional flows. M. Hirota, Y. Hattori P.McCarthy, G. Feltham, A. Ekmekci P.Meliga, E. Boujo, F. Gallaire P.Fontana

59 60 Monday, 23 November 2015 Sessions G – L

61 Monday Morning, 23 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 G1. Porous Media Flows: G1.01 Reactive mixing in G1.02 Predicting anomalous G1.03 Simulating Anomalous G1.04 Dispersion properties in G1.05 Diffusion in random networks G1.06 Coupling micro-CT with Mixing, Transport and heterogeneous porous media flows: diffusion rates of Stokes flow in porous Dispersion and Multiphase porous media: application to Redox J. Padrino, D. Zhang computer simulations to analyze Reaction scalar gradient distribution, spatial media B. Quaife, P.de Anna, G. Biros, Segregation in Porous Media with the Flow Battery electrodes F. Picano, dispersion in porous media Room: Auditorium intermittency and temporal scaling of R. Juanes Lattice Boltzmann Method R. Matin, D. Maggiolo, A. Marion, M. Guarnieri S. Sobhani, J. Dunnmon, M. Werer Chair: T. Le Borgne, U. de Rennes effective reaction kinetics T. Le M. K. Misztal, A. Hernandez-Garcia, Borgne, M. Dentz, E. Villermaux J. Mathiesen G2. Suspensions: Gels and G2.01 A parsimonious hydrodynamic G2.02 Delayed yield in reversible G2.03 WITHDRAWN . G2.04 Transient yield in reversible G2.05 Deformation of G2.06 Soft particles at a fluid Soft Particles model for colloidal gelation Z. Varga, colloidal gels: a micro- mechanical colloidal gels: a micro-mechanical ovalbumin-alginate capsules in a interface H. Mehrabian, J. Harting, Room: 101 J. Swan perspective R. Zia, B. Landrum, perspective L. Johnson, B. Landrum, T-Junction E. Haner,¨ A. Juel J. Snoeijer Chair: J. Swan, MIT W. Russel R. Zia G3. Particle-Laden Flows: G3.01 Inertial Particle Relative G3.02 Turbulent particle clustering in G3.03 An asymptotic analysis of G3.04 Fully resolved simulations of G3.05 Numerical Investigation of the G3.06 Particle dispersion in an Clustering and Dispersion I Velocity in a High-Reynolds-Number a fully developed square channel flow. particle clustering in turbulent flows 2,000 fluidized particles D. Willen, Preferential Concentration Instability of inhomogeneous turbulent flow Room: 102 Homogeneous and Isotropic L. Villafane, A. Banko, C. Elkins, M. Esmaily Moghadam, A. Mani A. Sierakowski, A. Prosperetti Particle Laden Homogeneous Shear P.Huck, R. Volk Chair: L. Collins, Cornell U. Turbulence Chamber Z. Dou, et al. J. Eaton M. Kasbaoui, D. Koch, O. Desjardins G4. General Fluid Dynamics: G4.01 Effect of Local Junction G4.02 Wakes from submerged G4.03 The effect of a large upstream G4.04 Optimal design of artificial G4.05 Physics in water slides G4.06 Direct Numerical Simulation of Obstacles, Flow Losses in the Optimization of T-shaped obstacles in an open channel flow bluff body on the flow through and reefs for sturgeon C. Yarbrough, J. Thomazo, E. Reyssat, M. Fermigier two superposed viscous fluids in a Constrictions, Channels Flow Channels S. Kosaraju G. Smith, G. Marmorino, C. Dong, around an array of cylinders A. Cotel, A. Kleinheksel rough channel: effect of the position of Room: 103 W. Miller, R. Mied C. Klettner the interface I. Arenas, S. Leonardi Chair: S. Kosaraju, N. Arizona U. G5. Jets I: Mixing, Stability G5.01 Generation of a flapping G5.02 Mapping the Interactions G5.03 Jet-mixing of initially stratified G5.04 CFD simulation of boundary G5.05 Entrainment in a Free Surface G5.06 The development of a and Turbulence motion in a two-dimensional jet at low between Shocks and Mixing Layers in flows S. Wright, C. Markides, O. Matar effects on closely spaced jets Plunging Jet S. Hassan, P.P.Vlachos turbulent jet issuing from an annular Room: 104 Reynolds numbers A. Muramatsu, a 3-Stream Supersonic Jet J. Lewalle, I. Shrivastava, E. Adams source with an open centre Chair: A. Muramatsu, Nihon U. H. Tsuchiya C. Ruscher, P.Kan, A. Tenney, S. Padhani, T. Jukes, G. Hunt S. Gogineni, B. Kiel G6. CFD: Lattice Boltzmann G6.01 Simulation of immersed G6.02 Evaluation of the unstructured G6.03 A Three-Dimensional G6.04 Effects of viscoelasticity on G6.05 ANFIS modeling for prediction G6.06 Reduction of the temperature Methods moving porous bodies using a coupled lattice Boltzmann method in porous Multi-Mesh Lattice Boltzmann Model droplet dynamics and break-up in of particle motions in fluid flows jump in the immersed Room: 105 Immersed Boundary - Lattice flow simulations M. Misztal, R. Matin, for Multiphysics Simulations microchannels : a Lattice Boltzmann A. Safdari, K. Kim boundary-thermal lattice Boltzmann Chair: J. Favier, Aix Marseille U. Boltzmann method. Application to the A. Hernandez, J. Mathiesen A. Hashemi, M. Eshraghi, S. Felicelli study A. Gupta method T. Seta, K. Hayashi, control of flow separation around bluff A. Tomiyama bodies. M. Pepona, J. Favier G7. CFD: Computational G7.01 A new Control Volume Finite G7.02 Collocated approximations on G7.03 Multi-resolution flow G7.04 The effect of density G7.05 Advection Scheme for G7.06 Simulations of Coalescence Methods and Modeling of Element Method with Discontinuous unstructured grids: a comparison simulations by smoothed particle estimation on the conservativeness in Phase-changing Porous Media Flow of and Breakup of Interfaces Using a 3D Multiphase Flows III Pressure Representation for between General Finite Differences hydrodynamics via domain Smoothed Particle Hydrodynamics Fluids with Large Density Ratio Front-tracking Method J. Lu, Room: 107 Multi-phase Flow with Implicit Adaptive (GFD), Moving Least Squares (MLS), decomposition X. Bian, Z. Li, Y. Tang, P.Suresh, S. Kumar, B. Patnaik D. Zhang, J. Padrino G. Tryggvason Chair: P. Salinas, Imperial College time Integration and Dynamic and Smoothed Particle Hydrodynamics G. Karniadakis London Unstructured mesh Optimization (SPH) Y. Vasyliv, A. Alexeev P.Salinas, D. Pavlidis, J. Percival, A. Adam, Z. Xie, C. Pain, M. Jackson G8. Microscale Flows: G8.01 The Fluid Coupled Dynamics G8.02 Effects of Length Scale and G8.03 Measuring the Size and Slip G8.04 Dynamic Wetting at MHz G8.05 Resonance and streaming of G8.06 Very long range vortices Oscillatory Fluid Dynamics of Small Oscillating Elastic Objects Frequency in Oscillatory Flows Lengths of Individual Nanoparticles Vibration: Simple and Complex Liquid armored microbubbles T. Spelman, around microfluidic bubbles under Room: 108 M. Paul Induced by Micro- and using Suspended Microchannel Films on an Ultrasonic Actuator N. Bertin, O. Stephen, P.Marmottant, ultrasound P.Marmottant, Chair: M. Paul, Virginia Tech Nano-mechanical Resonators Resonators J. Collis, J. Sader, O. Manor, G. Althshuler, S. Mhatre, E. Lauga F. Mekki-Berrada, T. Combriat, K. Ekinci, V. Kara, V. Yakhot S. Olcum, S. Manalis L. Abezgauz P.Thibault G9. Nanoscale Flows: Basic G9.01 Continuum Navier-Stokes G9.02 Nanofluidic Brownian Ratchet G9.03 Modeling anomalous diffusion G9.04 Water transport in graphene G9.05 Flow enhancement of water G9.06 Experimental Study of Water Flow Physics modelling of water flow past fullerene via atomically-stepped surfaces of dense fluids in carbon nanotubes nano-channels E. Wagemann, flow through silica slit pores with Transport through Hydrophilic Room: 109 molecules J. Walther, A. Popadic, A. Rahmani, C. Colosqui G. Wang, N. Hadjiconstantinou E. Oyarzua, J. Walther, H. Zambrano graphene-coated walls H. Zambrano, Nanochannels M. Alibakhshi, Q. Xie, Chair: J. Walther, Tech. U. Denmark P.Koumoutsakos, M. Praprotnik E. Wagemann, E. Oyarzua, J. Walther Y. Li, C. Duan G10. Non-Newtonian Flows: G10.01 Characterizing Printability of G10.02 The importance of flow G10.03 Physical gelation of a G10.04 Extensional Relaxation G10.05 Spray Formation of G10.06 Phase diagram of vorticity Rheometry and Applications Complex Fluids using history in mixed shear and extensional microfiber suspension. A. Perazzo, Times and Pinch-off Dynamics of Herschel–Bulkley Fluids using response to surface waviness in Room: 110 Dripping-Onto-Substrate Extensional flows C. Wagner, G. McKinley J. Nunes, S. Guido, H. Stone Dilute Polymer Solutions J. Dinic, Impinging Jets N. Rodrigues, J. Gao, viscoelastic Couette flow J. Page, Chair: V. Sharma, U. of Illinois - Rheometry V. Sharma, J. Dinic, Y. Zhang, L. Jimenez, V. Sharma J. Chen, P.Sojka T. Zaki Chicago L. Jimenez, M. Biagioli, A. Estrada

62 Monday Morning, 23 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 G11. Rayleigh-Benard G11.01 Traveling Waves in G11.02 Main Modes of Heat G11.03 Prandtl number dependence G11.04 Global and local statistics in G11.05 Turbulent structures in G11.06 Penetrative internally heated Convection I Natural-convection Flow Around an Transport in Rayleigh-Benard´ of heat and mass transfer in horizontal turbulent convection at low Prandtl convection from a heated sidewall in a convection in two and three dimensions Room: 111 Array of Heated Cylinders H. Babaee, Convection Analyzed by a POD convection O. Shishkina numbers J. Scheel, J. Schumacher stratified fluid K. Burns, A. Wells, D. Goluskin, E. van der Poel Chair: H. Babaee, MIT F. Xie, C. Chryssostomidis, approach J. Luelff G. Flierl G. Karniadakis G12. Wind Turbines: Wind G12.01 Wind Turbine Box - energy G12.02 Mean kinetic energy budget G12.03 Proper orthogonal G12.04 Effects of Turbine Spacing in G12.05 LES studies of wind farms G12.06 Shifted periodic boundary Farms I fluxes around a characteristic wind of wakes within an array of model wind decomposition of wakes within a model Very Large Wind Farms S. Andersen, including wide turbine spacings and conditions for large-eddy simulation of Room: 200 turbine M. Calaf, G. Cortina, turbines and porous discs R. Cal, wind turbine array and a matched array J. SØrensen, R. Mikkelsen comparisons with the CWBL wind farms W. Munters, C. Meneveau, Chair: M. Calaf, U. of Utah V. Sharma E. Camp of porous discs E. Camp, R. Cal engineering model R. Stevens, J. Meyers D. Gayme, J. Meyers, C. Meneveau G13. Free Surface Flow IV: G13.01 Critical inclination for G13.02 Rayleigh-Plateau instabilities G13.03 Thin liquid film in polymer G13.04 Stability of Liquid Films on G13.05 Inviscid instability of two-fluid G13.06 Gravity-driven liquid flow Thin Film Flow absolute dripping in falling films subject on Drop on Demand Jetting tubing : dynamics and dewetting in Strings V. Nair, I. Sharma, V. Shankar free surface flow down an incline over a flexible beam H. Kim, Room: 201 to Rayleigh-Taylor instability C. Rodriguez-Rivero, J. Castrejon-Pita, partial wetting condition P.Hayoun, S. Ghosh, R. Usha, R. Govindarajan, P.Howell, M. Popova, H. Stone Chair: B. Scheid, U. Libre de Bruxelles B. Scheid, W. Rohlfs I. Hutchings A. Letailleur, J. Teisseire, E. Verneuil, O. Tammisola F. Lequeux, E. Barthel G14. Electrokinetics: G14.01 Resolving Overlimiting G14.02 Chronopotentiometric G14.03 Electrokinetic Transport in G14.04 Ion Transport in 2-D G14.05 Ion transport and G14.06 Geometric effects on Nanochannels, Surface Current Mechanisms in response of non-ideal ion selective Nanochannels Grafted with Graphene Nanochannels Q. Xie, rectification in a charged nanoscale electrocapillarity in nanochannels Conduction, Concentration Microchannel-Nanochannel Interface microchannel-nanochannel interface Polyelectrolyte Brushes with E. Foo, C. Duan cone F. Yang, L. Zhang, Q. Mao, J. Lee, I. Kang Polarization Devices G. Yossifon, N. Leibowitz, device N. Leibowitz, J. Schiffbauer, End-Charging S. Das, G. Chen H. Stone Room: 202 U. Liel, J. Schiffbauer , S. Park S. Park, G. Yossifon Chair: J. Schiffbauer, Technion - Israel Institute of Technology G15. Flow Control: General G15.01 Taming a flow with a string G15.02 Active flow control for a G15.03 The Flow Field Downstream G15.04 Solution to Shape G15.05 Limitations of Adjoint-Based G15.06 Input-output dynamic mode Room: 203 S. Dorbolo, N. Vandewalle, NACA-0012 profile H. Oualli, of a Dynamic Low Aspect Ratio Identification of Steady-state Viscous Optimization for Separated Flows decomposition J. Annoni, Chair: S. Dorbolo, U. of Lige GRASP B. Darbois-Texier M. Mekadem, M. Boukrif, S. Saad, Circular Cylinder: A Parametric Study Flow Fields to Prescribe Flow Velocity J. Otero, A. Sharma, R. Sandberg M. Jovanovic, J. Nichols, P.Seiler A. Bouabdallah, M. Gad-el-Hak S. Gildersleeve, C. Dan, M. Amitay Distribution E. Katamine, R. Kanai G16. Flow Instability: G16.01 Algorithm for spatio-temporal G16.02 Perturbation Enstrophy G16.03 Instabilities and transient G16.04 Interfacial instabilities and G16.05 Variational approach to G16.06 Nonlinear evolution of an General II analysis of the signaling problem Decay in Poiseuille and Couette Flows growths of the Taylor-Couette flow in Kapitsa pendula M. Krieger stability boundary for the isolated disturbance at two-phase flow Room: 204 N. Barlow, B. Helenbrook, S. Weinstein according to Synge’s Method stratified fluids J. Park, P.Billant, Taylor-Goldstein equation M. Hirota, interface G. Coppola, F. Capuano, Chair: N. Barlow, Rochester Institute of L. Domenicale, F. Fraternale, J. Baik P.Morrison L. de Luca Technology G. Staffilani, D. Tordella G17. Flow Instability: G17.01 A weakly nonlinear model G17.02 Nonlinear dynamics in G17.03 Finite-amplitude solutions in G17.04 Nonlinear interaction of G17.05 Non-linear state selection of G17.06 Empirical resolvent mode Nonlinear Dynamics and with exact coefficients for the fluttering eccentric Taylor–Couette–Poiseuille rotating Hagen-Poiseuille flow B. Pier, stationary and travelling crossflow axially confined viscous liquid jets decomposition A. Towne, T. Colonius, Global Modes and spiraling motions of flow B. Pier, C. Caulfield A. Kumar, R. Govindarajan modes with a common critical layer A. Sevilla, A. Mart´ınez-Calvo, O. Schmidt Room: 205 buoyancy-driven bodies A. Amos, X. Wu M. Rubio-Rubio Chair: J. Magnaudet, CNRS/IMFT J. Magnaudet, J. Tchoufag, D. Fabre G18. Interfacial and Thin G18.01 Linear Stability Analysis of G18.02 Experiments on G18.03 Low-order modelling of films G18.04 Dynamic measurement of G18.05 Mathematical modelling of G18.06 Rupture of thin films of Films I Convective Flow in a Confined Layer of elastohydrodynamics of a free particle over arbitrary, highly curved substrates the evolving mechanical properties of swelling-induced surface instabilities in power law fluids on a substrate Room: 206 Volatile Liquid Driven by a Horizontal on a soft substrate B. Saintyves, A. Wray, D. Papageorgiou, O. Matar thin drying films via induced wrinkling deformable porous media V. Garg, S. Thete, O. Basaran Chair: R. Grigoriev, Georgia Institute of Temperature Gradient R. Grigoriev, T. Jules, T. Salez, L. Mahadevan M. Nania, G. Ferretti, O. Matar, M. Hennessy, A. Vitale, J. Cabral, Technology T. Qin J. Cabral O. Matar G19. Vortex Dynamics: Vortex G19.01 Information geometry and G19.02 Analysis of Vortex Line G19.03 Hairpin Vortex Regeneration G19.04 A Mathematical Proof of the G19.05 Swirling flow states in G19.06 Twist Helicity in Classical Identification and phase transitions of fluids with global Cutting and Reconnection by a Blade Threshold D. Sabatino, R. Maharjan Vortex Shedding Mechanism diverging or contracting pipes Vortices M. Scheeler, H. Kedia, Mechanisms anomalies P.Surowka C. Saunders, J. Marshall M. Boghosian, K. Cassel Z. Rusak, Y. Zhang, H. Li, S. Wang D. Kleckner, W. Irvine Room: 207 Chair: P. Surowka, Harvard U. G20. Turbulence: Theory I G20.01 Deriving statistical closure G20.02 Backward two-particle G20.03 A Multiscale Morphing G20.04 Dynamics of the G20.05 Realizable Closure Model for G20.06 Filtering on the Sphere Room: 208 from dynamical optimization dispersion in turbulence: asymptotic Continuum Description for Turbulence tetrad-based velocity gradient in the Reynolds Stress in Rotating H. Aluie, M. Hecht, G. Vallis Chair: B. Turkington, U. of B. Turkington behaviors at high Reynolds number J. Chen, L. Wonnell turbulent flows H. Xu, A. Pumir, Frames C. Petty, A. Benard Massachusetts Amherst P.Yeung, D. Buaria, B. Sawford E. Bodenschatz

63 Monday Morning, 23 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 G21. Boundary Layers: G21.01 A numerical investigation of G21.02 Near surface flow structure G21.03 Most-Critical Transient G21.04 Bypass transition of G21.05 Turbulence in soft-walled G21.06 Correlations of Surface Rough or Compliant Walls the impact of surface topology on over a dimpled surface with blowing Disturbances in an Incompressible low-speed boundary layers using micro-channels S. Srinivas, Deformation and 3D Flow Field in a Room: 209 laminar boundary layers N. Beratlis, C. Borchetta, A. Martin, S. Bailey Flat-Plate Boundary Layer realistic sandpaper roughness V. Kumaran Compliant Wall Turbulent Channel Chair: N. Beratlis, Arizona State U. K. Squires, E. Balaras J. Monschke, E. White J. Capecelatro, W. Zhang, R. Fontaine, Flow. J. Wang, C. Zhang, J. Katz G. Elliot, D. Bodony, J. Freund G22. Turbulent Boundary G22.01 On the scaling of velocity G22.02 Turbulent inertia and the G22.03 Role of large scale motion in G22.04 Experiments on low G22.05 Structural organization of G22.06 Multiscale dynamics of the Layers II and vorticity variances in turbulent onset of log region in pipe flows high Re channel flow M. Lee, Reynolds number turbulent flow uniform momentum core in turbulent strain and enstrophy in turbulent Room: 210 channel flow A. Leonard J. Philip, C. Chin , J. Klewicki, A. Ooi , R. Moser through a square duct B. Owolabi, channel flow J. Yang, J. Hwang, channels A. Lozano-Duran, Chair: A. Leonard, California Institute I. Marusic R. Poole, D. Dennis H. Sung M. Holzner, J. Jimenez of Technology G23. Biofluids: Active G23.01 Emergent dynamics and G23.02 Stability of localized G23.03 Symmetry-breaking G23.04 Flock on a chip D. Bartolo, G23.05 Using a stochastic field G23.06 Hydrodynamic analysis and Fluids III phase behavior of interacting ellipsoid bioconvection patterns of Euglena phase-transitions in highly N. Desreumaux theory to understand group behavior in mechanisms of ciliary beating Room: 300 micro-swimmers E. Lushi suspensions M. Iima, T. Yamaguchi concentrated semen F. Plourabou, microswimmer suspensions A. Sangani, K. Foster Chair: E. Lushi, Brown U. A. Creppy, O. Praud, X. Druart, P.Underhill, Y. Qian, P.Kramer S. Cazin, H. Yu, P.Degond G24. Biofluids: Biofilms II G24.01 Flows around bacterial G24.02 Bacterial floc mediated rapid G24.03 Exploration of fluid dynamic G24.04 A Model Problem for G24.05 Bulk flow coupled to a G24.06 Fibrillization kinetics of Room: 302 swarms J. Dauparas, E. Lauga streamer formation in creeping flows indicators/causative factors in the Blob-Driven Tear Film Breakup (TBU) viscous interfacial film sheared by a insulin solution in an interfacial Chair: J. Dauparas, U. of Cambridge M. Hassanpourfard, Z. Nikakhtari, formation of tower structures in L. Zhong, C. Ketelaar, R. Braun, rotating knife edge A. Raghunandan, shearing flow V. Balaraj, S. McBride, R. Ghosh, S. Das, T. Thundat, staphylococci bacteria bio-films T. Driscoll, P.King-Smith, C. Begley F. Rasheed, A. Hirsa, J. Lopez A. Hirsa, J. Lopez A. Kumar E. Sherman, M. Derek, K. Bayles, T. Wei G25. Biofluids: Respiratory G25.01 3D Spray Droplet G25.02 A computational model that G25.03 Effect of kinematics and G25.04 Investigation of mucus G25.05 A Computational Approach G25.06 Role of Topological Flows Distributions in Sneezes A. Techet, simulates mucociliary clearance in the flexibility on the pumping dynamics of transport in an idealized lung airway for Capturing Topological Changes Heterogeneity on the Fate of Inhaled Room: 304 B. Scharfman, L. Bourouiba bronchial tree, and a concomitant an array of oscillating plates model using multiphase CFD analysis during the Splitting of Liquid Plug by a Aerosols in the Pulmonary Acinus Chair: A. Techet, MIT study on energetics and optimality F. Saffaraval, K. Kiger R. Rajendran, A. Banerjee Pulmonary Bifurcation B. Vaughan, P.Hofemeier, K. Koshiyama, S. Wada, M. Manolidis, D. Isabey, B. Louis, J. Grotberg J. Sznitman J. Grotberg, M. Filoche G26. Biofluids: Mechanics of G26.01 Shape of the human nasal G26.02 How do mice follow odor G26.03 Moths smell with their G26.04 A model for insect tracheolar G26.05 Fluid Mechanics of Taste G26.06 Liquid-feeding strategy of the Smelling, Breathing and cavity promotes retronasal smell trails? D. Zwicker, S. Trastour, antennae T. Spencer, M. Ballard, flow A. Staples, K. Chatterjee A. Noel, N. Bhatia, T. Carter, D. Hu proboscis of butterflies S. Lee, S. Lee Tasting S. Trastour, S. Melchionna, S. Mishra, S. Mishra, A. Mathis, V. Murthy, A. Alexeev, D. Hu Room: 306 D. Zwicker, D. Lieberman, E. Kaxiras, M. Brenner Chair: D. Zwicker, Harvard U. M. Brenner G27. Biofluids: Propulsion: G27.01 Application of a discretized G27.02 Experimental study of G27.03 Size matters: the interplay G27.04 Synchronized Swimming of G27.05 A dynamical system for G27.06 Vortex interaction between Interactions, Wakes and Jets vortex impulse framework to fish Strouhal number effects on the wake between sensing and size in aquatic Two Fish P.Koumoutsakos, G. Novati, interacting flapping swimmers A. Oza, two tandem flexible propulsors Room: 308 maneuvering L. Mendelson, A. Techet produced by a trapezoidal pitching environments N. Wadhwa, G. Abbati, B. Hejazialhosseini, W. van S. Ramananarivo, L. Ristroph, S. Park, H. Sung Chair: L. Mendelson, MIT panel J. King, M. Green E. Martens, C. Lindemann, Rees M. Shelley N. Jacobsen, K. Andersen, A. Visser G28. Surface Tension Effects: G28.01 Hydrodynamics of a fixed G28.02 Hydrodynamics of a G28.03 PIV measurements of the G28.04 Particle-laden interfaces: G28.05 Marangoni-Driven Flow G28.06 Evaporation effects in Particles at Interfaces camphor boat at the air-water interface self-propelled camphor boat at the streaming fluid flow due to the direct calculation of interfacial stress Oscillations during the Dissolution of elastocapillary aggregation D. Vella, Room: 309 D. Singh, S. Akella, R. Singh, air-water interface S. Akella, D. Singh, adsorption of particles H. Patel, from a discrete particle simulation of a Surfactant Powders O. Shardt, A. Hadjittofis, K. Singh, J. Lister Chair: S. Mandre, Brown U. S. Mandre, M. Bandi R. Singh, M. Bandi N. Musunuri, E. Amah, I. Fischer, pendant drop C. Gu, L. Botto H. Kim, H. Masoud, H. Stone P.Singh G29. Nonlinear Dynamics and G29.01 Hydroelastic waves on G29.02 New Exact Coherent States G29.03 Bifurcation Analysis of 1D G29.04 Local analysis and G29.05 bifurcations of driven cavity G29.06 Koopman decompositions of Waves II elastic cells and fluid sheets E. Parau, in Channel Flow M. Nagata, D. Wall Steady States of the Benard´ Problem topological bifurcations of free surfaces flow and their implications for mixing periodically forced Hopf bifurcation Room: 310 M. Blyth in the Long Wavelength Limit C. Zhou, N. Suramlishvili, J. Eggers H. Arbabi, I. Mezic flows and application to dynamic stall Chair: E. Parau, UEA S. Troian B. Glaz, S. Loire, M. Fonoberova, I. Mezic G30. Geophysical Fluid G30.01 Numerical simulations of G30.02 Nonlinear evolution of a G30.03 Submesoscale baroclinic G30.04 Coupled evolution of G30.05 Lagrangian and Eulerian G30.06 Flow dynamics at a river Dynamics: Mesoscale and turbulence and mixing induced by baroclinic wave and imbalanced instability and the Balance Equations near-inertial waves and Statistics of Vorticity Dynamics in confluence on Mississippi River: field Submesoscale submesoscale instabilities dissipation B. Nadiga I. Grooms quasigeostrophic flow G. Wagner, Turbulent Stratified Shear Flows measurement and large eddy Room: 311 M. Stamper, J. Taylor W. Young F. Jacobitz, K. Schneider, M. Farge simulation T. Le, A. Khosronejad, Chair: B. Fox-Kemper, Brown U. N. Bartelt, S. Woldeamlak, B. Peterson, P.DeWall, F. Sotiropoulos

64 Monday Morning, 23 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 G31. Drops: Electrowetting G31.01 Ion adsorption-induced G31.02 Liquid bridges in complex G31.03 Spreading of thin droplets of G31.04 Dynamic electrowetting on G31.05 Analysis of the triple contact G31.06 Oscillating dynamics of a and Charge Effects wetting transition in oil-water-mineral geometries: Equilibrium shape perfect and leaky dielectric liquids on microstructured surfaces S. Nita, point in electrowetting S. Brzezicki, bubble immersed in an electrical fie Room: 312 systems B. Bera, A. Cavalli, D. van metamorphosis using electrowetting inclined surfaces A. Corbett, B. Ryu, J. Wang, M. Do-Quang, Y. Chen, D. Crowdy, E. Louca H. Caps, J. Hardouin Chair: W. Ristenpart, U.C. Davis den Ende, F. Mugele D. Baratian, A. Cavalli, D. van den S. Lee, S. Kumar Y. Suzuki, G. Amberg, J. Shiomi Ende, F. Mugele G32. Drops: Particle-Droplet G32.01 ALE-Phase-field simulations G32.02 Capillary Thinning of G32.03 Drop floating on a granular G32.04 Ring formation on an G32.05 Capillary and elastic failure G32.06 Electro-induced Interactions of floating particles P. Yu e Particle-laden Drops B. Wagoner, raft E. Jambon-Puillet, C. Josserand, inclined surface R. Deegan, X. Du of particle-stabilized droplets manipulations of liquid marbles for Room: 313 S. Thete, M. Jahns, P.Doshi, S. Protiere N. Samudrala, R. Sarfati, J. Nam, chemical reactions Z. Liu, X. Fu, Chair: P. Yue, Virginia Tech O. Basaran E. Dufresne B. Binks, H. Shum G33. Drops: Bouncing, G33.01 Enhanced Downward G33.02 Drop impact on thin liquid G33.03 Surface topography G33.04 Uncertainty Quantification G33.05 Settling of a sphere through G33.06 High Velocity Droplet Impact and Dynamic Surface Acceleration of a Bouncing Droplet films using TIRM M. Pack measurements for pilot-wave on Entrapped Air in Droplet Impact a fluid-fluid interface: influence of the Rebound On Liquid Pools W. Doak, Interactions I Due to the Lubrication Force hydrodynamics A. Damiano, D. Harris, Events S. Mirjalili, G. Iaccarino, Reynolds number J. Pierson, D. Laiacona, P.Chiarot, G. German Room: Ballroom A D. Chappell, M. Cessna, A. Nadim P.Brun, J. Bush A. Mani J. Magnaudet Chair: D. Chappell, Claremont Graduate U. G35. Drops: Heat Transfer G35.01 Impact of internal transport G35.02 Droplet evaporation on a G35.03 Evaporation of G35.04 Numerical simulations of G35.05 Evaporation dynamics of G35.06 Nanoscale gutter and Evaporation on the convective mass transfer from a soluble substrate A. Mailleur, C. Pirat, multi-component mixtures and shell evaporative instabilities in sessile femtoliter water capillary bridges hydrodynamics: asymmetric vanishing Room: Ballroom B droplet into a submerging falling film J. Colombani formation in spray dried droplets drops of ethanol on heated substrates K. Cho, I. Hwang, Y. Kim, S. Lim, lifetime of identical twin nanodroplets Chair: J. Landel, U. of Cambridge J. Landel, A. Thomas, H. McEvoy, P.Valente, ˙ Duarte, T. Porfirio, S. SEMENOV, F. CARLE, M. MEDALE, J. Lim, J. Kim, B. Gim, J. Kim, B. Weon D. Tiwari, M. Dijkstra, J. Eijkel, S. Dalziel M. Temtem D. BRUTIN H. Gardeniers, L. Mercury, N. Tas, S. Vanapalli G36. Bubbles: Surfactants G36.01 Microstructural effects in G36.02 Patterns, Instabilities, G36.03 Domain growth kinetics in G36.04 Gravitational Drainage of G36.05 Coupling thermocapillary G36.06 Disorder growth in a and Foams foam fracture P.Stewart, S. Davis, Colors, and Flows in Vertical Foam stratifying foam films Y. Zhang, Foam: Planar Films, Stability and and solutocapillary stress in 2D monodisperse foam in microfluidics Room: Ballroom C S. Hilgenfeldt Films S. Yilixiati, E. Wojcik, Y. Zhang, V. Sharma Foamability S. Sett, R. Sahu, A. Yarin micro-foam drainage M. Jullien, N. Taccoen, B. Dollet, C. Baroud Chair: P. Stewart, U. of Glasgow K. Shah, V. Sharma V. Miralles, E. Rio, I. Cantat G37. Minisymposium: G37.01 An Experimental Study of Penny-shaped Fluid-driven Cracks in an G37.02 Engineering Fracking Fluids with Computer Simulation G37.03 Subcontinuum mass transport of hydrocarbons in nanoporous Hydraulic Fracturing Elastic Matrix H. Stone E. Shaqfeh media and long-time kinetics of recovery from unconventional reservoirs Room: Back Bay A L. Bocquet Chair: S. Lee, TAMU G38. Acoustics III: G38.01 Effect of an Adjacent Plate G38.02 Large-Eddy Simulations of G38.03 Numerical Simulations of G38.04 Numerical Simulations of G38.05 Flow Structures and Noise G38.06 The effects of heating on Aero-Acoustics on Supersonic Jet Noise E. Gutmark, Noise Generation in Supersonic Jets at Noise Generated by Supersonic Noise Generated by Supersonic Produced by a Heated Rectangular instability waves and noise in subsonic Room: Back Bay B P.Mora, F. Baier, K. Kailasanath, Realistic Engine Temperatures J. Liu, Rectangular Jets. Part One: Validation. Rectangular Jets Part 2: Frequency Nozzle with a Third Stream and Aft jets Z. Wan, H. Yang, X. Zhang, Chair: E. Gutmark, U. of Cincinnati R. Johnson, K. Viswanath A. Corrigan, K. Kailasanath, B. Taylor K. Viswanath, R. Johnson, A. Corrigan, Band Analysis of Far-field Noise Deck C. Ruscher, S. Gogineni, B. Kiel D. Sun K. Kailasanath, P.Sanchez, F. Baier, R. Johnson, K. Viswanath, E. Gutmark K. kailasanath G39. Flames: Pre-Mixed G39.01 Experimental observations G39.02 Filtered chemical source G39.03 Bluff-body stabilized flame G39.04 Highly enhanced flame G39.05 Continuous Diffusion Flames G39.06 An Improved Flames and Flame of the development and growth of term modeling for LES of high Karlovitz dynamics of lean premixed syngas propagation by turbulence through and Flame Streets in Micro-Channels Flamelet-Based Model for Instabilities flame instabilities formed during vented number premixed flames S. Lapointe, combustion H. Im, Y. Kim, B. Lee differential diffusion S. Yang, A. Saha, S. Mohan, M. Matalon Non-Premixed Supersonic Combustion Room: Back Bay C deflagrations C. Bauwens, G. Blanquart F.Wu,C.Law Z. Lou, F. Ladeinde, W. Li Chair: C. Regis Bauwens, FM Global, J. Bergthorson, S. Dorofeev Research Division G40. Ignition G40.01 Mach Number Effects on G40.02 Shock induced ignition and G40.03 Diffusion-flame ignition by G40.04 Acoustic timescale G40.05 Prediction of strong and G40.06 Numerical investigation of Room: Back Bay D Ignition and Mixing Processes in a DDT in the presence of mechanically shock-wave impingement on a characterization of hot spot ignition in weak ignition regimes in turbulent kinetic energy dynamics during Chair: S. Hickel, Delft U. of Technology Reacting Shock-Bubble Interaction driven fluctuations W. Wang, supersonic mixing layer A. Sanchez, thermally stratified mixtures reacting flows with temperature autoignition of n-heptane/air mixture S. Hickel, F. Diegelmann, V. Tritschler J. McDonald, M. Radulescu C. Huete, F. Williams, J. Urzay F. Reinbacher, J. Regele fluctuations: A direct numerical P.Lucena Kreppel Paes, J. Brasseur, simulation study P.Pal, M. Valorani, Y. Xuan H. Im, M. Wooldridge

65 Monday Morning, 23 November 2015 Session 09:18 09:31 09:44 09:57 10:10 G1. Porous Media Flows: G1.07 Particle dispersion and G1.08 Effective reaction rates for G1.09 Targeted delivery by smart G1.10 Transport and Aggregation of Mixing, Transport and deposition in porous media: a transport of particles to heterogeneous capsules for controlling two-phase flow Nanoparticles in Packed Beds: Effects Reaction computational perspective reactive (or porous) surfaces under in porous media J. Fan, of Pore Velocity and Initially-Fed Room: Auditorium G. Boccardo, E. Crevacore, R. Sethi, shear. P.Shah, E. Shaqfeh A. Abbaspourrad, D. Weitz Particle Size on Transient Particle Size Chair: T. Le Borgne, U. de Rennes D. Marchisio Distributions N. Pham, D. Papavassiliou G2. Suspensions: Gels and G2.07 Interplay of microdynamics G2.08 Buckling and its effect on the G2.09 Theory of margination in G2.10 Simulations of the dynamics Soft Particles and macrorheology in a suspension of confined flow of a model capsule confined multicomponent suspensions of soft particles of different shapes Room: 101 fluid-filled soft particles B. Kaoui suspension S. Bryngelson, J. Freund R. Henriquez Rivera, K. Sinha, suspended in liquids under shear flow. Chair: J. Swan, MIT M. Graham M. Villone, G. D’Avino, M. Hulsen, P.Maffettone G3. Particle-Laden Flows: G3.07 Laboratory measurement of G3.08 Visualization of Air Particle G3.09 Phoresis-induced clustering of G3.10 Clustering and relative Clustering and Dispersion I non-spherical particle rotation in Dynamics in an Engine Inertial Particle particles in turbulence L. Schmidt, velocity of heavy particles under Room: 102 turbulence: analysis in lab and local Separator J. Wolf, W. Zhang I. Fouxon, D. Krug, M. van Reeuwijk, gravitational settling in isotropic Chair: L. Collins, Cornell U. reference frames A. Bordoloi, M. Holzner turbulent flows G. Jin, G. He E. Variano G4. General Fluid Dynamics: G4.07 Geometric Skewness in the G4.08 Experimental Analysis of the G4.09 Experimental Investigation of G4.10 Asymptotic scalings of Obstacles, Flow Passive Tracer Problem M. Aminian, Diffusion of a Passive Scalar Subject to Spatially-Periodic Scalar Patterns in an developing curved pipe flow J. Ault, Constrictions, Channels F. Bernardi, R. Camassa, Steady Flow in a Circular Pipe Inline Mixer O. Baskan, M. Speetjens, K. Chen, H. Stone Room: 103 R. McLaughlin F. Bernardi, M. Aminian, S. Burnett, H. Clercx Chair: S. Kosaraju, N. Arizona U. R. Camassa, R. McLaughlin G5. Jets I: Mixing, Stability G5.07 Large Eddy Simulations and G5.08 Modal and non-modal G5.09 Numerical simulation of and Turbulence an Analysis of the Flow Field of a evolution of perturbations for parallel air-blast atomization of a liquid layer Room: 104 Radially Lobed Nozzle N. Amini, round jets J. Jimenez-Gonzalez, G. Agbaglah, J. McCaslin, Chair: A. Muramatsu, Nihon U. A. Sekaran P.Brancher, C. Martinez-Bazan O. Desjardins Break, 10:10–10:35 G6. CFD: Lattice Boltzmann G6.07 Immersed boundary method G6.08 Different Scalable G6.09 Two-dimensional plastic flow Halls C and D Methods implemented in lattice Boltzmann GPU Implementations of Collision and of foams and emulsions in a channel: Room: 105 code B. DeVincentis, K. Smith, Streaming for Optimal Computational experiments and simulations Chair: J. Favier, Aix Marseille U. J. Thomas Performance of Lattice Boltzmann M. Sbragaglia Simulations. N. Geneva, L. Wang

Addressing the Numerical An inviscid regularization Modeling of Two-Phase A low Mach number G7. CFD: Computational G7.07 G7.08 G7.09 G7.10 Refreshment Methods and Modeling of Challenges Associated With technique for two-phase flows with Immiscible Flow with Moving Contact preconditioned scheme for a Multiphase Flows III Laser-Induced Melt Convection shocks and turbulence K. Mohseni, Lines M. Abu AlSaud, C. Soulaine, two-phase liquid-gas compressible flow Room: 107 B. Weston, R. Nourgaliev, T. Li A. Riaz, H. Tchelepi model M. Pelanti Chair: P. Salinas, Imperial College J. Delplanque, A. Anderson London G8. Microscale Flows: G8.07 Oscillatory Motion of a G8.08 Fluttering instabilities of G8.09 Formation of inverse Chladni G8.10 The acoustic radiation force Oscillatory Fluid Dynamics Bi-Phasic Slug in a Teflon Reactor cylinder in a Hele Shaw cell patterns at microscale by acoustic on a small thermoviscous or Room: 108 M. Abolhasani, K. Jensen H. Auradou, J. Hulin, B. Semin, streaming on a silicon membrane thermoelastic particle suspended in a Chair: M. Paul, Virginia Tech M. Cachile, M. D’Angelo immersed in a liquid C. Poulain, viscous and heat-conducting fluid G. Vuillermet, F. Casset J. Karlsen, H. Bruus G9. Nanoscale Flows: Basic G9.07 Kinetic Limited Water G9.08 Insights from plants: tunable G9.09 Landau-Squire jet as a G9.10 Second-order Knudsen-layer Flow Physics Evaporation in Hydrophilic Nanofluidic nano-flows induced by drying versatile probe to measure flow rate analysis for the generalized slip-flow Room: 109 Channels Y. Li, M. Alibakhshi, Q. Xie, O. Vincent, A. Robin, A. Szenicer, through individual nanochannel and theory: Boundary curvature effects Chair: J. Walther, Tech. U. Denmark C. Duan A. Stroock nanotubes E. Secchi, S. Marbach, M. Hattori, S. Takata A. Siria, L. Bocquet G10. Non-Newtonian Flows: G10.07 Surface textures and G10.08 Experimental and G10.09 Shape-based Particle G10.10 Friction factors of colloidal Rheometry and Applications Non-Newtonian fluids for decreased computational fluid dynamic studies of Separation via Elasto-Inertia Pinched suspension containing silicon dioxide Room: 110 friction J. Schuh, R. Ewoldt mixing for complex oral health products Flow Fractionation (eiPFF) X. Lu, nanoparticles in water C. Tang, Chair: V. Sharma, U. of Illinois - M. Garcia, L. Mazzei, P.Angeli X. Xuan S. Pant, M. Sharif Chicago

66 Monday Morning, 23 November 2015 Session 09:18 09:31 09:44 09:57 10:10 G11. Rayleigh-Benard G11.07 Mixed insulating and G11.08 High Rayleigh number G11.09 Thermal boundary layer Convection I conducting boundary conditions in simulations in a slender laterally profiles in turbulent Rayleigh-Benard Room: 111 Rayleigh-Benard´ convection periodic domain R. Verzicco, E. van convection P.Tong, Y. Wang, X. He ´ Chair: H. Babaee, MIT D. Bakhuis, R. Ostilla Monico, E. van der Poel, D. Lohse der Poel, R. Verzicco, D. Lohse G12. Wind Turbines: Wind G12.07 Effects of subgrid-scale G12.08 Structure Function Scaling G12.09 Inverse structure functions in G12.10 Wind Turbine Experiments at Farms I modeling on wind turbines flows Exponent and Intermittency in the the canonical wind turbine array Full Dynamic Similarity M. Miller, Room: 200 U. Ciri, M. Salvetti, S. Leonardi Wake of a Wind Turbine Array boundary layer B. Viggiano, M. Gion, J. Kiefer, C. Westergaard, M. Hultmark Chair: M. Calaf, U. of Utah A. Aseyev, N. Ali, R. Cal N. Ali, M. Tutkun, R. Cal G13. Free Surface Flow IV: G13.07 A model for liquid film in G13.08 Healing Capillary Films G13.09 Viscoelastic Liquid Curtain G13.10 Cracking the chocolate egg Thin Film Flow steam turbine A. Simon, M. Marcelet, Z. Zheng, M. Fontelos, S. Shin, L. Lebon, L. Limat, A. Gaillard, problem: polymeric films coated on Room: 201 J. Herard, J. Dorey, M. Lance H. Stone J. Beaumont, H. Lhuissier curved substrates P.Brun, A. Lee, Chair: B. Scheid, U. Libre de Bruxelles J. Marthelot, G. Balestra, F. Gallaire, P.Reis G14. Electrokinetics: G14.07 Experimental study on G14.08 Modelling nanofluidic field G14.09 The dominant role of surface G14.10 Primary, Secondary and Nanochannels, Surface polydisperse nanochannel system with amplified sample stacking with conduction in electro-osmotic flows Tertiary Vortex Formation in the Ion Conduction, Concentration dispersity and voltage variation L. Li, inhomogeneous surface charge through periodically varying narrow Concentration Polarization F. Diez, Polarization D. Kim C. McCallum, S. Pennathur channels L. Ludar, E. Yariv S. Hanasoge Room: 202 Chair: J. Schiffbauer, Technion - Israel Institute of Technology G15. Flow Control: General G15.07 A novel control strategy for a G15.08 Controlling turbulence G15.09 Modification of shear layer G15.10 Coupled Modification of Room: 203 Taylor–Couette flow A. Bouabdallah, J. Khnen, B. Hof characteristics using local periodic Body-Wake Flow on an Axisymmetric Chair: S. Dorbolo, U. of Lige GRASP H. Oualli, M. Mekadem, M. Boukrif, heating C. Yeh, P.Munday, K. Taira Moving Platform T. Lambert,

S. Saad, M. Gad-el-Hak B. Vukasinovic, A. Glezer Break, 10:10–10:35 G16. Flow Instability: G16.07 The effect of compressibility G16.08 Kelvin-Helmholtz Instability G16.09 New approach of a G16.10 Bifurcations in Flow through General II on magnetohydrodynamic jets and in Compressible Flows and Mixing traditional analysis for predicting a Wavy Walled Channel Z. Mills, Halls C and D Room: 204 Kelvin-Helmholtz instability D. Praturi, Inhibition M. Karimi, S. Girimaji near-exit jet liquid instabilities W. Sup Song, A. Alexeev Chair: N. Barlow, Rochester Institute of S. Girimaji G. Jaramillo, S. Collicott Technology

Linear global modes in a Secondary instability of Stability sensitivity to gravity Bi-global Stability Analysis of G17. Flow Instability: G17.07 G17.08 G17.09 G17.10 Refreshment Nonlinear Dynamics and high Reynolds number Mach 0.9 laminar separation bubbles in the and base flow density modifications Compressible Open Cavity Flows Global Modes turbulent jet O. Schmidt, A. Towne, absence of external disturbances K. Chen, G. Spedding Y. Sun, K. Taira, L. Cattafesta, Room: 205 T. Colonius D. Rodriguez, E. Gennaro, L. Souza L. Ukeiley Chair: J. Magnaudet, CNRS/IMFT G18. Interfacial and Thin G18.07 Modeling of liquid electrolyte G18.08 Experimental free-surface G18.09 Long wave evolution of a G18.10 Dynamics of a flowing liquid Films I films on non-uniformly charged solid instability growth in gravity-driven film two-fluid channel flow with surfactant column with an immiscible reactive Room: 206 substrates M. Jutley, V. Ajaev flows of Newtonian and non-Newtonian and gravity D. Halpern, A. Frenkel micellar interface Z. Niroobakhsh, Chair: R. Grigoriev, Georgia Institute of liquids J. Olander, R. Camassa, A. Belmonte Technology M. Forest, H. Ogrosky G19. Vortex Dynamics: Vortex G19.07 Hollow vortices in weakly G19.08 Sadovskii vortex in strain G19.09 Correlating Velocity G19.10 Helical vortex systems: Identification and compressible flows V. Krishnamurthy, D. Freilich, S. Llewellyn Smith Information in the Vicinity of linear instability analysis and nonlinear Mechanisms D. Crowdy Lagrangian Saddle Points to the dynamics C. Seluk Room: 207 Spatially and Temporally Resolved Chair: P. Surowka, Harvard U. Static Pressure Distribution on a Circular Cylinder M. Rockwood, M. Green G20. Turbulence: Theory I G20.07 Turbulent Particle Pair G20.08 Electrokinetic turbulence in a G20.09 Universality at low Reynolds G20.10 Optimal Energy Dissipation Room: 208 Diffusion Using Kinematic Simulations microchannel at low Reynolds number numbers and the emergence of Bounds for 2D and 3D Stress-Driven Chair: B. Turkington, U. of N. Malik W. Zhao, F. Yang, G. Wang intermittent behavior in isotropic Shear Flows G. Fantuzzi, A. Wynn Massachusetts Amherst turbulence D. Donzis, V. Yakhot, K. Sreenivasan

67 Monday Morning, 23 November 2015 Session 09:18 09:31 09:44 09:57 10:10 G21. Boundary Layers: G21.07 Experimental investigation of G21.08 Experimental Investigation G21.09 Internal Structure and G21.10 Analysis of velocity and Rough or Compliant Walls compliant wall deformation under a on Near-wall Turbulent Flow Structures Interaction Within Turbulent Boundary thermal structures in a transitionally Room: 209 fully developed turbulent channel flow over Deformable Roughness Layers Following a Change in Surface rough turbulent boundary layer Chair: N. Beratlis, Arizona State U. using tomographic PIV and M. Toloui, N. John, J. Hong Roughness R. Hanson, A. Doosttalab, S. Dharmarathne, Mach-Zehnder interferometry B. Ganapathisubramani G. Araya, M. Tutkun, R. Adrian, C. Zhang, J. Wang, J. Katz L. Castillo G22. Turbulent Boundary G22.07 Role of large-scale motions G22.08 The inertial subrange in G22.09 Amplitude modulation of G22.10 Fully developed turbulence Layers II to turbulent inertia in turbulent pipe and turbulent pipe flow: centre line vorticity and dissipation by large-scale in slugs of pipe flows R. Cerbus, Room: 210 channel flows J. Hwang, J. Lee, J. Morrison, M. Vallikivi, A. Smits motions in turbulent channel flow C. Liu, J. Sakakibara, G. Gioia, Chair: A. Leonard, California Institute H. Sung Y. Yao, B. Deng, W. Huang, C. Xu P.Chakraborty of Technology G23. Biofluids: Active G23.07 Emergence of collective G23.08 Aerotactic Cell Density G23.09 A Rules-Based Simulation of G23.10 Numerical study of the Fluids III motion in suspensions of swimming Variations in Bacterial Turbulence Bacterial Turbulence M. Mikel-Stites, hydrodynamic interactions in an E-coli Room: 300 cells M. Roffin, P.Denissenko, V. Fernandez, S. Smriga, A. Staples suspension X. Xu Chair: E. Lushi, Brown U. V. Kantsler F. Menolascina, R. Rusconi, R. Stocker G24. Biofluids: Biofilms II G24.07 Interaction of bacterial wall G24.08 Solute Dynamics and G24.09 Characteristics of turbulent G24.10 Impact of Diatomaceous Room: 302 with electrically charged solid substrate Imaging in the Tear Film on an boundary layer flow over algal biofilm Biofilms on the Frictional Drag of Ship Chair: J. Dauparas, U. of Cambridge V. Ajaev Eye-shaped Domain R. Braun, L. Li, E. Murphy, J. Barros, M. Schultz, Hull Coatings M. Schultz, J. Walker, W. Henshaw, T. Driscoll, P.King-Smith C. Steppe, K. Flack, M. Reidenbach C. Steppe, K. Flack G25. Biofluids: Respiratory G25.07 Experimental evolution of G25.08 3D Model of Surfactant G25.09 Aerosol transport and G25.10 Respiratory flows during Flows sprays in a lung model J. Burguete, Replacement Therapy. J. Grotberg, deposition efficiency in the respiratory early childhood: Computational models Room: 304 A. Aliseda C. Tai, M. Filoche airways L. Nicolaou, T. Zaki to examine therapeutic aerosols in the Chair: A. Techet, MIT developing airways. J. Tenenbaum-Katan, P.Hofemeier,

J. Sznitman Break, 10:10–10:35 G26. Biofluids: Mechanics of G26.07 Modeling of Transient Nectar G26.08 How dogs lap: open G26.09 A musculo-mechanical Smelling, Breathing and Flow in Hummingbird Tongues pumping driven by acceleration model of esophageal transport based Halls C and D Tasting A. Rico-Guevara, T. Fan, M. Rubega S. Gart, J. Socha, P.Vlachos, S. Jung on an immersed boundary-finite Room: 306 element approach W. Kou, B. Griffith, Chair: D. Zwicker, Harvard U. J. Pandolfino, P.Kahrilas, N. Patankar

Locomotion gaits of a Bio-inspired Propulsion with Jet vectoring through nozzle Multi-jet propulsion G27. Bioﬂuids: Propulsion: G27.07 G27.08 G27.09 G27.10 Refreshment Interactions, Wakes and Jets rotating cylinder pair W. van Rees, Functionally Graded Materials asymmetry C. Roh, A. Rosakis, organized by clonal development in a Room: 308 G. Novati, P.Koumoutsakos, W. Schleicher, D. Floryan, T. Van M. Gharib colonial siphonophore J. Costello, Chair: L. Mendelson, MIT L. Mahadevan Buren, A. Smits, K. Moored S. Colin, B. Gemmell, J. Dabiri, K. Sutherland G28. Surface Tension Effects: G28.07 Elastocapillary-mediated G28.08 Stokesian Dynamic G28.09 Tilting and tumbling of Janus G28.10 Surface Tension Mediated Particles at Interfaces interfacial assembly A. Evans Simulations of Colloid Assembly at a nanoparticles at sheared interfaces Under-Water Adhesion of Rigid Room: 309 Fluid Interface A. Dani, C. Maldarelli S. Shojaei-Zadeh, H. Rezvantalab Spheres on Soft, Charged Surfaces Chair: S. Mandre, Brown U. S. Sinha, S. Das G29. Nonlinear Dynamics and G29.07 Inverse energy cascade in G29.08 Lagrangian coherent G29.09 Chaotic advection in 2D G29.10 Controlling the Dynamics of Waves II non-local helical shell-models of structures in the wake of a streamwise anisotropic porous media the Five-Mode Truncation System of Room: 310 turbulence D. Massimo, L. Biferale, oscillating cylinder N. Cagney, S. Varghese, M. Speetjens, R. Trieling, the 2-d Navier-Stokes Equations Chair: E. Parau, UEA G. Sahoo, A. Mailybaev S. Balabani F. Toschi N. Smaoui, M. Zribi G30. Geophysical Fluid G30.07 Anisotropic shear dispersion G30.08 Mesoscale Ocean Large G30.09 SOMAR-LES for multiscale G30.10 Baroclinic mixed layer Dynamics: Mesoscale and parameterization for ocean eddy Eddy Simulations B. Pearson, modeling of internal tide generation instability in the presence of convection Submesoscale transport S. Reckinger, B. Fox-Kemper, S. Bachman, F. Bryan V. Chalamalla, E. Santilli, M. Jalali, J. Callies, R. Ferrari Room: 311 B. Fox-Kemper A. Scotti, S. Sarkar Chair: B. Fox-Kemper, Brown U.

68 Monday Morning, 23 November 2015 Session 09:18 09:31 09:44 09:57 10:10 G31. Drops: Electrowetting G31.07 Nano-crater Formation on G31.08 Interfacial Charge Effects on G31.09 The effect of electric ﬁeld on G31.10 Launching droplets from a and Charge Effects Electrodes during the Electrical Sticky Bubble Morphology in a the stability and breakup of liquid super-hydrophobic surface using Room: 312 Charging of Aqueous Droplets Microchannel J. Hui, P.Huang nano-thread. D. Bhuptani, S. Sathian electrowetting Z. Wang, D. Ende, Chair: W. Ristenpart, U.C. Davis E. Elton, E. Rosenberg, W. Ristenpart A. Cavalli, D. Wijnperle, F. Mugele G32. Drops: Particle-Droplet G32.07 Lattice Boltzmann Method G32.08 Colloidal Drop Deposition on G32.09 Does a particle Interactions for Liquid-Gas-Particle Systems with Porous Substrates Y. Sun, M. Pack, encapsulated in a droplet always Room: 313 Compact Discretization T. Lee, H. Hu, D. Kim, X. Yang migrate towards its center? L. Zhu, Chair: P. Yue, Virginia Tech S. Farokhirad F. Gallaire G33. Drops: Bouncing, G33.07 Leave the seat down: The G33.08 A model for bouncing G33.09 Nonmonotonic Response of G33.10 Deceleration of Impact and Dynamic Surface physics of droplet streams impacting a droplets: effects of obstacles and Drop Impacting Liquid Film X. Tang, noncoalescing droplets J. Hale Interactions I free surface N. Speirs, R. Hurd, conﬁnements A. Kasimov, L. Faria A. Saha, D. Zhu, C. Sun, C. Law Room: Ballroom A J. Belden, T. Truscott Chair: D. Chappell, Claremont Graduate U. G35. Drops: Heat Transfer G35.07 Droplet Impingement Boiling G35.08 Enhanced condensation G35.09 Microgrooves improve dew G35.10 Directional droplet transport and Evaporation on Heated Superhydrophobic Surfaces heat transfer with wettability patterning collection P.BINTEIN, H. LHUISSIER, at high temperature mediated by J. Crockett, C. Clavijo, D. Maynes P.Sinha Mahapatra, A. Ghosh, L. ROYON, C. MANGENEY, structural topography J. Li, Y. Hou,

Room: Ballroom B Break, 10:10–10:35 Chair: J. Landel, U. of Cambridge R. Ganguly, C. Megaridis A. MONGRUEL, D. BEYSENS M. Chaudhury, S. Yao, Z. Wang

G36. Bubbles: Surfactants G36.07 Modeling Coarsening G36.08 Flow of foams in G36.09 Foam-Driven Fractures of an G36.10 Enhanced dissolution of Halls C and D and Foams Induced Foam Drainage Using the two-dimensional disordered porous Elastic Matrix C. Lai, S. Smiddy , particle-stabilized bubbles by cooling Room: Ballroom C Arbitrary Lagrangian Eulerian Method media B. Dollet, B. Geraud, S. Jones, H. Stone V. Poulichet, V. Garbin Chair: P. Stewart, U. of Glasgow A. Brandon, R. Ananth Y. Meheust, I. Cantat

Fracturing in granular media: the role of capillarity, wetting, and Particle laden fluids in hydraulic fracturing G37. Minisymposium: G37.04 G37.05 B. Lecampion Refreshment Hydraulic Fracturing disorder R. Juanes Room: Back Bay A Chair: S. Lee, TAMU G38. Acoustics III: G38.07 Sensitivity of wavepackets in G38.08 Reduction of aerodynamic G38.09 Large Eddy Simulation of G38.10 Acoustic Scattering by a Aero-Acoustics jets to non-linear effects: the role of the sound generated in a flow past an Airfoil Self-Noise at High Reynolds Vortex Dipole Z. Zheng, J. Zhang Room: Back Bay B critical layer G. Tissot, M. Zhang, oscillating and a fixed cylinder in Number J. Kocheemoolayil, S. Lele Chair: E. Gutmark, U. of Cincinnati F. Lajus´ Jr., A. Cavalieri, P.Jordan, tandem Y. Hattori T. Colonius G39. Flames: Pre-Mixed G39.07 An Investigation of a Hybrid G39.08 Large Eddy Simulation of G39.09 Lagrangian Analysis of G39.10 An Investigation of Flames and Flame Mixing Model for PDF Simulations of Radiation Effects on Pollutant Premixed Turbulent Flames C. Briner, Hydrodynamic Instabilities in Instabilities Turbulent Premixed Flames H. Zhou, Emissions in Diluted Turbulent P.Hamlington, A. Poludnenko Wind-Driven Flames C. Miller, Room: Back Bay C S. Li, H. Wang, Z. Ren Premixed Flames A. Nunno, S. Verma, A. Trouve, M. Finney, Chair: C. Regis Bauwens, FM Global, M. Mueller J. Forthofer, S. McAllister, M. Gollner Research Division G40. Ignition G40.07 Interface-Tracking G40.08 Characterization of Diesel G40.09 Ignition and propagation of G40.10 Investigation of Laser Room: Back Bay D Simulations of Vaporization and and Gasoline Compression Ignition premixed methane flame by Ignition Behavior of Iso-octane and Chair: S. Hickel, Delft U. of Technology Burning of Reactive Droplet H. Tani, Combustion in a Rapid successive laser-induced breakdowns Ethanol Blends N. Peters, P.Bailey, N. Kanno, Y. Umemura, H. Terashima, Compression-Expansion Machine L. Wermer, M. Bak, S. Im D. Coombs, B. Akih-Kumgeh M. Koshi using OH* Chemiluminescence Imaging S. Krishnan, K. Srinivasan, M. Stegmeir

69 Monday Morning, 23 November 2015 Session 10:35 10:48 11:01 11:14 11:27 11:40 H1. Porous Media Flows: H1.01 Uniaxial deformation of a soft H1.02 Dynamics of swelling and H1.03 Boundary conditions between H1.04 Capillary rise and swelling in H1.05 Capillary displacement of H1.06 Liquid spreading on Wicking, Imbibition and porous material C. MacMinn, drying in a spherical gel T. Bertrand, poro-elastic medium and pure fluid in cellulose sponges J. Ha, J. Kim, viscous liquids P.Walls, G. Dequidt, ceramic-coated carbon nanotube films Swelling E. Dufresne, J. Wettlaufer C. MacMinn, S. Mukhopadhyay, multi-scale modelling. U. Lacis, H. Kim J. Bird and patterned microstructures Room: Auditorium J. Peixinho S. Bagheri H. Zhao, A. Hart Chair: C. MacMinn, U. of Oxford H2. Suspensions: Theory and H2.01 Non-equilibrium tuning of H2.02 Constitutive upscaling of MR H2.03 Hydrodynamically interacting H2.04 Mean and Fluctuating Force H2.05 A continuum theory for H2.06 The hydrodynamic lift on a Modeling attractive colloidal gels A. Boromand, fluids G. Nika, B. Vernescu particles confined by a spherical cavity Distribution in a Random Array of two-phase flows of particulate solids: slender, neutrally buoyant fiber in a wall Room: 101 J. Maia via dynamic simulation: a model for Spheres G. Akiki, T. Jackson, application to Poiseuille flows bounded shear flow at small Reynolds Chair: J. Maia, Case Western Reserve intracellular transport S. Balachandar D. Monsorno, C. Varsakelis, number J. Dhanasekaran, D. Koch U. C. Aponte-Rivera, Y. Su, R. Zia M. Papalexandris H3. Particle-Laden Flows: H3.01 Experimental drag histories of H3.02 Interactions of non-spherical H3.03 Analytic expressions for first H3.04 Validation of a Hertzian H3.05 Simulating immersed particle H3.06 The collision efficiency of Particle Interactions shocked spherical particles particles in simple flows M. Niazi, order correction to inviscid unsteady contact model with nonlinear damping collisions: the Devil’s in the details cloud droplets in a non-continuum gas Room: 102 K. Prestridge, G. Orlicz, A. Martinez L. Brandt, P.Costa, W. Breugem forces due to surrounding particles in a A. Sierakowski E. Biegert, B. Vowinckel, E. Meiburg A. Roy, D. Koch Chair: K. Prestridge, Los Alamos multiphase flow S. Annamalai, National Laboratory S. Balachandar, Y. Mehta H4. Fluid Dynamics H4.01 An undergraduate lab on H4.02 FlowGo: An Educational Kit H4.03 A formal derivation for the H4.04 Experimental Approach to H4.05 Design and Testing of an H4.06 Ups and downs of using Education measuring fluid viscosity using a for Fluid Dynamics and Heat Transfer Blasius similarity solution for flat-plate Teaching Fluids C. Stern Educational Water Tunnel S. Kosaraju “kitchen sink” experiments in an Room: 103 miniature ball drop device J. Tang D. Guri, M. Portsmore, E. Kemmerling boundary layer H. Lin introductory fluid mechanics class Chair: J. Tang, Brown U. N. Kaye H5. Jets II: Impinging H5.01 On the effect of fractal H5.02 The effect of confinement on H5.03 Large Eddy Simulation of a H5.04 Drop Characteristics of H5.05 Proper Orthogonal H5.06 Experimental Analysis of Room: 104 geometric parameters on the heat the development of an axisymmetric cooling impinging jet to a turbulent non-Newtonian Impinging Jets at High Decomposition Analysis of Turbulent Impinging Single and Twin Circular Chair: T. Astarita, Universita degli Studi transfer features of circular impinging wall-jet in confined jet impingement crossflow M. Georgiou, Generalized Bird-Carreau Jet Reynolds Jet Impingement on Rib-roughened Synthetic Jets G. Cardone, C. Greco, di Napoli Federico II jets T. Astarita, G. Castrillo, G. Cafiero T. Guo, M. Rau, P.Vlachos, M. Papalexandris Numbers P.Sojka, N. Rodrigues Surface P.Lam, A. Karaiyan G. Castrillo, T. Astarita S. Garimella H6. CFD: Reactive Flows II H6.01 A New Method for Large Eddy H6.02 Analysis of entropy generation H6.03 Subfilter scalar variance H6.04 Computational Study of the H6.05 Flamelet modeling of H6.06 A Two Mixture Fraction Room: 105 Simulation of Turbulent Premixed in turbulent reacting flows using large models for LES of premixed turbulent Effect of Compositionally differential molecular diffusion in Flamelet Model for Large Eddy Chair: S. Hyun Kim, Ohio State U. Combustion S. Kim eddy simulation M. Safari flames G. Blanquart, S. Lapointe, Inhomogeneous Fuel Streams on CO/H2 and ethylene DNS flames Simulation of Turbulent Jet Flames with T. Tussie Turbulent Jet Flames M. Mueller, C. Han, D. Lignell, E. Hawkes, J. Chen, Inhomogeneous Inlets B. Perry, B. Perry, A. Masri H. Wang M. Mueller, A. Masri H7. CFD: Computational H7.01 Three-dimensional numerical H7.02 A Scalable Parallel Fast H7.03 A framework for embedding H7.04 Attenuation of numerical H7.05 A Multiphase Open Boundary H7.06 Interface Surface Area Methods and Modeling of simulations of three-phase flows Marching Method Y. Gale, molecular-level information in artefacts in the modelling of fluid Treatment for Interface Capturing Tracking for the Conservative Level Set Multiphase Flows IV D. Pavlidis, Z. Xie, P.Salinas, C. Pain, M. Herrmann continuum-scale simulations of interfaces F. Evrard, B. van Wachem, Methods M. Gale, M. Herrmann Method S. Firehammer, O. Desjardins Room: 107 O. Matar interfacial flows E. Smith, F. Denner Chair: D. Pavlidis, Imperial College P.Theodorakis, E. Muller, R. Craster, London O. Matar H8. Microscale Flows: Flow in H8.01 Experimental investigation of H8.02 Experimental and numerical H8.03 Interaction of Particles with H8.04 Experiment and computational H8.05 Numerical simulation of H8.06 Numerical study of mixing Microchannels liquid-liquid plug formation in a investigations of ionic liquid-aqueous Recirculating Flow Regions inside simulations of liquid-liquid flow liquid-liquid plug formation in a viscous fluids in T-shaped Room: 108 T-junction microchannel P.Angeli, flow in microchannel Q. Li, Cavities of Inertial Microchannels displacement in microchannels Y. Lu, T-shaped cylindrical micro-channel micro-channels with compressibility Chair: P. Angeli, U. College London M. Chinaud, E. Roumpea, W. Weheliye D. Tsaoulidis, P.Angeli H. Haddadi, D. Di Carlo M. Simmons M. Chinaud, E. Roumpea, P.Angeli, effects J. Yang, O. Matar, C. Harrison, J. Chergui, D. Juric, S. Shin, M. Sullivan L. Kahouadji, O. Matar H9. Nanoscale Flows: H9.01 Ultra-high Burst Strength of H9.02 Development of macroscopic H9.03 Chemical vapor deposition of H9.04 Application of Solution-blown H9.05 Molecular level water and H9.06 Water and Molecular Membranes for Filtering and CVD Graphene Membranes L. Wang, nanoporous graphene membranes for atomically thin materials for membrane 20-50 nm Nanofibers in Filtration of solute transport in reverse osmosis Transport across Nanopores in Separation M. Boutilier, P.Kidambi, R. Karnik gas separation. M. Boutilier, dialysis applications P.Kidambi, Nanoparticles: The Efficient van der membranes R. Lueptow, M. Shen, Monolayer Graphene Membranes Room: 109 N. Hadjiconstantinou, R. Karnik A. Mok, D. Jang, M. Boutilier, L. Wang, Waals Collectors S. Sinha-Ray, S. Keten D. Jang, S. O’Hern, P.Kidambi, Chair: R. Karnik, MIT R. Karnik S. Sinha-Ray, A. Yarin, B. Pourdeyhimi M. Boutilier, Y. Song, J. Idrobo, J. Kong, T. Laoui, R. Karnik H10. Granular Flows: Mixing, H10.01 Itokawa is not Brazil: H10.02 Underlying Asymmetry with H10.03 Size and density segregation H10.04 Modeling density H10.05 Particles size segregation H10.06 Continuum modeling of Segregation and Separation granular segregation on asteroids Particle-Size Segregation P.Gajjar, in granular mixtures D. Tunuguntla, segregation in granular flow H. Xiao, and roll waves in dense granular flows segregation for tridisperse granular Room: 110 T. Shinbrot, P.Chakraborty, K. van der Vaart, G. Epely-Chauvin, T. Weinhart, A. Thornton R. Lueptow, P.Umbanhowar S. Viroulet, J. Baker, P.Kokelaar, materials in developing chute flow Chair: T. Shinbrot, Rutgers U. T. Sabuwala N. Andreini, N. Gray, C. Ancey N. Gray Z. Deng, P.Umbanhowar, R. Lueptow

70 Monday Morning, 23 November 2015 Session 10:35 10:48 11:01 11:14 11:27 11:40 H11. Rayleigh-Benard H11.01 Effects of Pr on Optimal Heat H11.02 Optimal heat transport H11.03 A theory for optimal heat H11.04 Tailoring boundary geometry H11.05 The effects of Prandtl H11.06 Heat-flux enhancement by Convection II Transport in Rayleigh-Benard´ A. Souza, C. Doering transfer in a partitioned convection cell to optimize heat transport in turbulent number on flow over a vertical heated vapour-bubble nucleation in Room: 111 Convection D. Sondak, M. Budisiˇ c,´ J. Chen, Y. Bao, Z. She convection S. Toppaladoddi, S. Succi, cylinder A. Sameen, A. S, A. S Rayleigh-Benard´ turbulence C. Sun, Chair: D. Sondak, U. of Wisconsin, F. Waleffe, L. Smith J. Wettlaufer et al. Madison H12. Wind Turbines: Vertical H12.01 Optimization of wind farm H12.02 Transition to bluff body H12.03 Patterns of 3D flow in a H12.04 In Situ Particle Tracking H12.05 Computational Study of H12.06 Morping blade design for Axis performance using low-order models dynamics in the wake of vertical axis rotating cylinder array A. Craig, around kW Sized Wind Turbines Savonius Wind Turbines with Stators vertical axis wind turbines Room: 200 J. Dabiri, I. Brownstein turbines D. Araya, J. Dabiri J. Dabiri, J. Koseff I. Brownstein, J. Dabiri A. Alexander, A. Santhanakrishnan D. MacPhee, A. Beyene Chair: J. Dabiri, Stanford U. H13. Free Surface Flows V: H13.01 On a nearly constant Froude H13.02 Diving seabirds: the stability H13.03 Hydrodynamic forces during H13.04 Numerical investigation of H13.05 Spray Formation during the H13.06 Ringin’ the water bell: Jets, Hydraulic Jumps, number observed in circular hydraulic of a diving elastic beam B. Chang, the initial stage of body lifting from the water entry of cylinders with and Impact of a Flat Plate on Water Surface dynamic modes of curved fluid sheets Impact jumps L. Limat, A. Duchesne, M. Croson, S. Jung water surface P.Vega-Martnez, without spin A. Kiara, R. Paredes, A. Wang, J. Duncan J. Kolinski, H. Aharoni, J. Fineberg, Room: 201 L. Lebon, E. Cerda, M. Argentina J. Rodrguez-Rodrguez, A. Korobkin, D. Yue E. Sharon Chair: L. Limat, Universit Paris Diderot T. Khabakhpasheva H14. Electrokinetics: H14.01 Dielectric decrement effects H14.02 The influence of soft layer H14.03 Frequency dispersion of H14.04 Effects of buoyant forces on H14.05 Investigation of Current H14.06 Enhancement of Overlimiting Particles, Semipermeable in electrokinetics B. Figliuzzi, electrokinetics on bacterial electrokinetically activated Janus chaotic electroconvection E. Karatay, Hotspots on an Ion-Selective Current through an Ion-Selective Membranes, Charged W. Chan, C. Buie, J. Moran electroporation J. Moran, N. Dingari, particles A. Boymelgreen, T. Balli, M. Wessling, A. Mani Membrane Subject to Chaotic Membrane via Surface Conductivity Surfaces C. Buie G. Yossifon, T. Miloh Electroconvection C. Druzgalski Patterning S. Davidson, M. Wessling, Room: 202 A. Mani Chair: B. Figliuzzi, Ecole des Mines H15. Flow Control: Drag H15.01 Optimization of dynamic H15.02 Development of Drag H15.03 AFRODITE – passive flow H15.04 Streamwise shear stress H15.05 Turbulent boundary layer H15.06 Lubricant retention for liquid Reduction II roughness elements for reducing drag Reducing Polymer of FDR-SPC control for skin-friction drag reduction driven compliant wall for drag reduction control through spanwise wall infused surfaces exposed to turbulent Room: 203 in a laminar boundary layer T. Sayadi, I. Lee, H. Park, H. Chun using the method of spanwise mean T. Jozsa,´ I. Viola, E. Balaras oscillation using Kagome lattice flow M. Fu, M. Hultmark Chair: T. Sayadi, U. of Illinois at P.Sayadi velocity gradient B. Fallenius, structures J. Bird, M. Santer, Urbana-Champain S. Sattarzadeh, R. Downs, J. Morrison S. Shahinfar, J. Fransson H16. Aerodynamics: H16.01 The Effectiveness of the H16.02 Characterizing self-excited H16.03 Flow structure interaction H16.04 An Immersed-Boundary H16.05 Dynamical behaviors of a H16.06 Fluid-structure Interaction of Fluid-Structure Interaction I Perfectly Matched Layer in fluidic energy harvesters subjected to between a flexible cantilever beam and method for deformable bodies at high thin plate under bypassing flow A. Ni, Rigid and Flexible Wings in Ground Room: 204 Fluid-Structure Interaction Problems Vortex Induced Vibration by utilizing isotropic turbulence A. Vogel, Reynolds numbers D. De Marinis, Q. Wang Effect R. Bleischwitz, R. de Kat, Chair: L. Zhang, Rensselaer L. Zhang, J. Yang Griffin scaling N. Elvin, V. Azadeh T. Morvan, O. Goushcha, S. Krishnan, M. de Tullio, B. Ganapathisubramani Polytechnic Institute Ranjbar, Y. Andreopoulos Y. Andreopoulos, N. Elvin M. Napolitano, G. Pascazio, G. Iaccarino H17. Flow Instability: H17.01 On role of kinetic fluctuations H17.02 Optimal frequency-response H17.03 Transitional Flows in H17.04 On the influence of H17.05 Primary instabilities in the H17.06 Characteristics of the Boundary Layers II in laminar-turbulent transition in sensitivity of compressible flow over Imperfect Millimeter-Scale Channels free-stream turbulence length scales rotating-disk boundary-layer flow laminar-turbulent edge in transitional Room: 205 chemically nonequilibrium boundary roughness elements M. Fosas de C. Lissandrello, L. Li, K. Ekinci, on boundary-layer transition E. Appelquist, P.Schlatter, boundary layers J. Lee, T. Zaki Chair: A. Tumin, The U. of Arizona layer flows A. Tumin Pando, P.Schmid V. Yakhot J. Fransson, S. Shahinfar P.Alfredsson, R. Lingwood H18. Flow Instability: H18.01 Electrohydrodynamic H18.02 Miscible viscous fingering H18.03 Sensitivity of Saffman-Taylor H18.04 Influence of the contact line H18.05 The Role of Chemical H18.06 Impact of Viscous Fingering Interfacial and Thin Films II deformation of thin liquid films near involving production of gel by chemical fingers to channel-depth variations velocity on the finger formation of the Reactions in Fluid Instabilities: on Fluid Mixing J. Chui, P.de Anna, Room: 206 surfaces with topography S. Kumar, reactions Y. Nagatsu, K. Hoshino A. Franco-Gomez, A. Thompson, liquid film expanding on an inclined Step-Growth Polymerization R. Juanes Chair: S. Kumar, U. of Minnesota A. Ramkrishnan A. Hazel, A. Juel plate M. Yamashita, M. Nishikawa, S. Stewart, D. Marin, P.Bunton T. Ito, Y. Tsuji H19. Vortex Dynamics: H19.01 The evolution of a dipole in a H19.02 On the stability of a H19.03 Evolution of Vortex Pairs H19.04 Moment model for H19.05 Topological changes in the H19.06 Experimental investigation of Dipoles, Pairs and periodic forced flow G. Ruiz solid-body-rotation flow in a Subject to the Crow Instability in Wall interacting dipoles in two-dimensional axial vortex breakdown in confined the interaction of a vortex dipole with a Instabilities Chavarria, E. Lopez Sanchez, finite-length pip S. Wang, Z. Rusak, Effect D. Asselin, C. Williamson flows Y. Matsumoto, K. Ueno geometries M. Sharma, A. Sameen deformable cantilevered plate Room: 207 S. Hernandez Zapata R. Gong, F. Liu E. Zivkov, S. Peterson, S. Yarusevych Chair: G. Chavarria, UNA de Mexica H20. Turbulent Taylor-Couette H20.01 Momentum transport in H20.02 Exploring the phase space of H20.03 Turbulence-driven mean flow H20.04 Enhanced transport by H20.05 The near-wall region of H20.06 Angular statistics of fluid and Mixing Taylor-Couette flow with vanishing multiple states in highly turbulent generation within laboratory grooved walls in turbulent highly turbulent Taylor-Couette flow particle trajectories in confined Room: 208 curvature B. Eckhardt, Taylor-Couette flow R. van der Veen, Taylor-Couette flow M. Burin, et al. Taylor-Couette flow X. Zhu, R. Ostilla Monico, R. Verzicco, two-dimensional turbulence Chair: B. Eckhardt, H. Brauckmann, M. Salewski S. Huisman, O. Dung, H. Tang, C. Sun, R. Ostilla-Monico, R. Verzicco, D. Lohse B. Kadoch, W. Bos, K. Schneider Philipps-Universitaet Marburg D. Lohse D. Lohse

71 Monday Morning, 23 November 2015 Session 10:35 10:48 11:01 11:14 11:27 11:40 H21. Turbulence: Modeling I H21.01 Synthesizing non-Gaussian H21.02 Wall-resolved adaptive H21.03 Machine Learning Models for H21.04 Towards Sparse-Direct H21.05 Spectral models of strongly H21.06 Asymptotic stability of Room: 209 inhomogeneous turbulence using simulation with spatially-anisotropic Detection of Regions of High Model Interaction Perturbation (SDIP) for inhomogeneous turbulence A. Bragg, spectral-based PDF modeling for Chair: Y. Li, U. of Sheffield optimization techniques Y. L i wavelet-based refinement G. De Form Uncertainty in RANS J. Ling, Variable-Density Flow D. Petty, S. Kurien, T. Clark homogeneous turbulent flows Stefano, E. Brown-Dymkoski, J. Templeton C. Pantano A. Campos, K. Duraisamy, G. Iaccarino O. Vasilyev H22. Turbulent Boundary H22.01 Scale contributions to inertial H22.02 A measure of H22.03 Non-linear scale interactions H22.04 Spatio-temporal frequency H22.05 Investigation of the H22.06 Simultaneous Layers III layer momentum transport in turbulent scale-dependent asymmetry in in a forced turbulent boundary layer responses of turbulent shear flows temperature field in a turbulent wall-shear-stress and wide-field PIV Room: 210 boundary layers J. Cuevas-Bautista, turbulent boundary layer flows S. Duvvuri, B. McKeon A. Zare, M. Jovanovic, T. Georgiou boundary layer C. Byers, M. Hultmark measurements in a turbulent boundary Chair: M. Guala, U. of Minnesota C. Morril-Winter, J. Klewicki, C. White, M. Guala, A. Singh layer G. Gomit, G. Fourrie, R. de Kat, G. Chini B. Ganapathisubramani H23. Biofluids: Squirmers, H23.01 Locomotion of spherical H23.02 Deformable micro torque H23.03 Optimal computational H23.04 Geometric pumping in H23.05 Flow Induced by Bacterial H23.06 Squirming through shear Cilia and Pumping squirmers in a viscoelastic fluid near a swimmer T. Ishikawa, T. Tanaka, methods for swimming and pumping autophoretic channels S. Michelin, Carpets and Transport of Microscale thinning fluids C. Datt, L. Zhu, Room: 300 planar interface S. Yazdi, A. Borhan T. Omori, Y. Imai with helical filaments at low Reynolds T. Montenegro Johnson, G. De Canio, Loads A. Buchmann, L. Fauci, G. Elfring, O. Pak Chair: S. Yazdi, Pennsylvania State U. number J. Martindale, N. Lobatto-Dauzier, E. Lauga K. Leiderman, E. Strawbridge, L. Zhao M. Jabbarzadeh, H. Fu H24. Biofluids: H24.01 Secondary flow structure in H24.02 A Mixed Approach for H24.03 Automated Tuning for H24.04 Validity of computational H24.05 Sharp Interface Methods for H24.06 Wave intensity analysis of a Cardiovascular Fluid a model curved artery: 3D morphology Modeling Blood Flow in Brain Parameter Identification in Multi-Scale hemodynamics in human arteries Cardiac Fluid-Solid Interaction computational model of the pulmonary Dynamics I and circulation budget analysis Microcirculation S. Lorthois, Coronary Simulations J. Tran, based on 3D time-of-flight MR E. Kolahdouz, B. Vadala-Roth, circulation N. Hill, M. Qureshi Room: 302 K. Bulusu, M. Plesniak M. Peyrounette, Y. Davit, M. Quintard D. Schiavazzi, A. Ramachandra, angiography and 2D electrocardiogram A. Bhalla, B. Griffith Chair: M. Plesniak, Washington U. A. Kahn, A. Marsden gated phase contrast images H. Yu, X. Chen, R. Chen, Z. Wang, C. Lin, S. Kralik, Y. Zhao H25. Biofluids: Biflagellates H25.01 High-fidelity phototaxis in H25.02 Synchronization of H25.03 Quiet swimming at low H25.04 Feeding and swimming of H25.05 Fluid transport by an H25.06 Propulsion of and Synchronization biflagellate algae K. Leptos, Eukaryotic Flagella with an Imposed Reynolds number A. Andersen, flagellates J. Doelger, L. Nielsen, unsteady microswimmer P.Mueller, micro-structures in Oscillatory Stokes Room: 304 M. Chioccioli, S. Furlan, A. Pesci, Periodic Flow G. Quaranta, N. Wadhwa, T. Kiorboe T. Kiorboe, T. Bohr, A. Andersen J. Thiffeault Flow I. Jo, Y. Huang, W. Zimmerman, Chair: K. Leptos, U. of Cambridge R. Goldstein M. Aubin-Tam, D. Tam E. Kanso H26. Biofluids: Phonation, H26.01 Flow-Structure-Acoustic H26.02 The effect of vocal fold H26.03 Dynamic and energetic H26.04 Phonatory sound sources in H26.05 Measurements of the H26.06 CFD simulations of a Speech and Airway Interaction Computational Modeling of vertical stiffness gradient on sound relevance of glottal jet asymmetry terms of Lagrangian Coherent three-dimensional oscillatory flow in a deforming human lung using dynamic Mechanics Voice Production inside an Entire production B. Geng, Q. Xue, X. Zheng J. Yang, M. Krane, L. Zhang Structures M. McPhail, M. Krane double bifurcation A. Nemes, S. Jalal, and static CT images S. Miyawaki, Room: 306 Airway W. Jiang, X. Zheng, Q. Xue T. van de Moortele, F. Coletti E. Hoffman, C. Lin Chair: X. Zheng, U. of Maine H27. Biofluids: Biological H27.01 The roles of aerodynamic H27.02 What’s its wave? A 3D H27.03 Modification of the wake H27.04 Aerodynamics of a freely H27.05 Minimum Wind Dynamic H27.06 Enhanced flight Fluid Dynamics: Flight and inertial forces on maneuverability analysis of flying snake locomotion behind a bat ear with and without flying owl from PIV measurements in Soaring Trajectories under Boundary characteristics by heterogeneous Room: 308 in flapping flight H. Vejdani, I. Yeaton, G. Baumgardner, T. Weiss, tubercles C. Petrin, B. Elbing the wake H. Ben-Gida, R. Gurka, Layer Thickness Limits G. Bousquet, autorotating wings L. Vincent, Chair: K. Breuer, Brown U. D. Boerma, S. Swartz, K. Breuer G. Nave, S. Ross, J. Socha D. Weihs M. Triantafyllou, J. Slotine M. Zheng, E. Kanso H28. Surface Tension Effects: H28.01 Reducing Sliding Friction H28.02 Differential approach to H28.03 Stretching liquid bridges with H28.04 Wetting and phase H28.05 Cusps and cuspidal edges at H28.06 A control volume study of the General with Liquid-Impregnated Surfaces Capillary Breakup Rheometry: role of moving contact lines: Comparison of separation in soft adhesion fluid interfaces: existence and pressure tensor across a liquid-vapour Room: 309 M. Habibi, C. Collier, J. Boreyko filament asymmetry induced by sample model predictions and experiments K. Jensen, E. Dufresne application R. Krechetnikov interface C. Braga, P.Yatsyshin, Chair: J. Boreyko, Virginia Tech U. volume and strain L. McCarroll, C. Huang, M. Carvalho, S. Kumar E. Smith, A. Nold, B. Goddard, W. Schultz, M. Solomon N. Savva, M. Schmuck, A. Duncan, D. Sibley, S. Kalliadasis H29. Nonlinear Dynamics: H29.01 A variational principle for the H29.02 Time-dependent modes H29.03 Nonlinear reduced order H29.04 Network Structure of H29.05 Introducing Spectral Proper H29.06 Dynamic reconstruction of Model Reduction extraction of time-dependent modes associated with finite time instabilities models for fluids systems using Two-Dimensional Homogeneous Orthogonal Decomposition: Superior sub-sampled data using Optimal Mode Room: 310 associated with transient instabilities in unstable fluid flows H. Babaee, extended dynamic mode Turbulence K. Taira, A. Nair, identification of coherent structures in Decomposition J. Krol, A. Wynn Chair: T. Sapsis, MIT T. Sapsis, H. Babaee T. Sapsis decomposition S. Dawson, C. Rowley S. Brunton turbulent flows M. Sieber, K. Oberleithner, C. Paschereit H30. Geophysical Fluid H30.01 Interactions of Ocean Fronts H30.02 LES of Langmuir supercells H30.03 Characteristics and H30.04 Propagation of acoustic H30.05 On the relative contribution H30.06 Wave modulation: the Dynamics: Air-Sea and Wave with Waves and Turbulence under constant crosswind tidal forcing Evolution of Passive Tracers in the pulses in random gravity wave fields of inertia-gravity wave radiation to geometry, kinematics, and dynamics of Interaction B. Fox-Kemper, N. Suzuki R. Walker, J. Zhang, M. Juha, Oceanic Mixed Layer K. Smith, C. Millet, A. de la Camara, F. Lott asymmetric instabilities in tropical surface-wave packets N. Pizzo, Room: 311 C. Gosch, A. Tejada-Martinez P.Hamlington, B. Fox-Kemper cyclone-like vortices K. Menelaou, W. Melville Chair: B. Fox-Kemper, Brown U. D. Schecter, P.Yau

72 Monday Morning, 23 November 2015 Session 10:35 10:48 11:01 11:14 11:27 11:40 H31. Waves: General H31.01 Extending dispersive waves H31.02 Optimal Configuration of H31.03 On the response of a water H31.04 Spatiotemporal H31.05 Observation of Wood’s H31.06 Waves and currents: Room: 312 theory to use in semi-open systems Large Arrays of Floating Bodies for surface to a surface pressure source measurement of surfactant distribution anomalies on surface gravity waves Hawking radiation in the hydraulics ´ Chair: L. Chumakova, U. of Edinburgh L. Chumakova, R. Rosales, A. Rzeznik, Ocean Wave Energy Extraction moving at trans-critical gravity-capillary on gravity-capillary waves propagating on a channel C. Falcon, laboratory G. Lawrence, E. Tedford, E. Tabak G. Tokic, D. Yue wave speeds N. Masnadi, Y. Cho, S. Strickland, M. Shearer, K. Daniels A. Schmessane S. Weinfurtner, M. Pennrice, W. Unruh J. Duncan, T. Akylas H32. Drops: Elastic Surfaces H32.01 Please comply: the water H32.02 Capillarity-driven folding of a H32.03 Drops spreading on flexible H32.04 Self-Propelled Droplet H32.05 Liquid Droplets on a Highly H32.06 Sophisticated compound and Fibers entry of soft spheres J. Belden, thin floating annular film J. Paulsen, fibers K. Somszor, F. Boulogne, Removal from Hydrophobic Deformable Membrane R. Schulman, droplets on fiber networks F. Weyer, Room: 313 R. Hurd, T. Fanning, M. Jandron, V. Demery,´ K. Toga, Z. Qui, A. Sauret, E. Dressaire, H. Stone Fiber-Based Coalescers K. Zhang, K. Dalnoki-Veress M. Lismont, L. Dreesen, N. Vandewalle Chair: J. Belden, Naval Undersea J. Rekos, A. Bower, T. Truscott B. Davidovitch, T. Russell, N. Menon F. Liu, A. Williams, X. Qu, J. Feng, Warfare Center C. Chen H33. Drops: Bouncing, H33.01 The first contact of a droplet H33.02 Bouncing and bursting in a H33.03 Walking droplets interacting H33.04 Viscous drops bounce faster: H33.05 Reducing the residence time H33.06 Spontaneous droplet Impact, and Dynamic Surface impacting a dry solid surface wedge E. Reyssat, C. Cohen, with planar boundaries G. Pucci, prompt tumbling-rebound from a of a bouncing drop with spoked self-launching on superhydrophobic Interactions II S. Thoroddsen, E. Li, I. Vakarelski D. Quere P.Senz, A. Damiano, D. Harris, P.Brun, sublimating slope C. Antonini macrotexture C. Patterson, J. Bird surfaces T. Schutzius, S. Jung, Room: Ballroom A J. Bush T. Maitra, G. Graeber, D. Poulikakos Chair: S. Thoroddsen, KAUST H35. Bubbles: Heat Transfer H35.01 Visco-capillarity in Sparkling H35.02 Experimental study of H35.03 Fragment structure from H35.04 High Frequency Stable H35.05 Pool Boiling Enhancement H35.06 Cooling of hot bubbles by and Boiling Fireworks C. Inoue, E. Villermaux combustion of decane, dodecane and vapor explosions during the impact of Oscillate boiling F. Li, on Textured Surfaces using Acoustic surface texture during the boiling crisis Room: Ballroom B hexadecane with polymeric and molten metal droplets into a liquid pool S. Gonzalez-Avila, C. Ohl Actuation T. Boziuk, M. Smith, N. Dhillon, J. Buongiorno, K. Varanasi Chair: C. Inoue, U. of Tokyo nano-particle additives M. Ghamari, N. Kouraytem, E. Li, I. Vakarelski, A. Glezer A. Ratner S. Thoroddsen H36. Bubbles: Micro-bubbles H36.01 Contact line pinning favors H36.02 Pressure gradient induced H36.03 Surface elastic waves on a H36.04 Nano bubble migration in a H36.05 Stability of surface H36.06 Distinguishing between and Nano-bubbles the mass production of monodisperse generation of microbubbles viscoelastic boundary generated by an tapered conduit in the asymptotic limits nanobubbles S. Maheshwari, M. van microscale gaseous bubbles and liquid Room: Ballroom C microbubbles. J. Gordillo, A. Evangelio, F. Campo-Cortes, oscillating microbubble M. Tinguely, of zero capillary and Bond Numbers - der Hoef, X. Zhang, D. Lohse drops B. Tan, H. An, C. Chan, C. Ohl Chair: J. Gordillo, Universidad de F. Campo-Cortes, G. Riboux J. Gordillo M. Hennessy, A. Pommella, O. Matar, Theory and Experiments M. Norton, Sevilla V. Garbin F. Ross, H. Bau H37. Separated Flows H37.01 Topological study of steady H37.02 Fluid force and static H37.03 Direct numerical simulations H37.04 Mitigation of Helical Vortex H37.05 Numerical study of turbulent H37.06 Flow structure and Room: Back Bay A state, three dimensional flow over a symmetry breaking modes of 3D bluff of a turbulent separation bubble over a Separation of a 5:1 Prolate Spheroid at flow separation over a wall mounted unsteadiness in the supersonic wake of Chair: A. Liakos, United States Naval backward facing step A. Liakos, bodies. O. Cadot, A. Evrard wide Reynolds-number range H. Abe, an Angle of Attack J. Schulmeister, circular cylinder T.Yu,D.You a generic space launcher A. Schreyer, Academy N. Malamataris Y. Mizobuchi, Y. Matsuo, P.Spalart M. Triantafyllou S. Stephan, R. Radespiel H38. Acoustics IV: H38.01 Acoustic source analysis of H38.02 Input-output analysis of H38.03 Global mode decomposition H38.04 Global Mode-Based Control H38.05 Mode Decomposition of a H38.06 Extracting Near-Field Aero-Acoustics supersonic jets from complex nozzles high-speed turbulent jet noise J. Jeun, of supersonic impinging jet noise of Supersonic Jet Noise M. Natarajan, Supersonic Jet Using Momentum Structures Related to Noise Production Room: Back Bay B J. Nichols, J. Kreitzman J. Nichols N. Hildebrand, J. Nichols J. Freund, D. Bodony Potential Theory U. Sasidharan Nair, in High Speed Jet P.Kan, J. Lewalle Chair: J. Nichols, U. of Minnesota D. Gaitonde H39. Flames: Premixed H39.01 Anisotropy of small scale H39.02 One Dimensional Modeling H39.03 Dynamic Mode H39.04 Direct numerical simulations H39.05 Quantifying real-gas effects H39.06 The flame anchoring Flames turbulence in premixed flames of Vorticity in high Karlovitz Number Decomposition (DMD) application to of flow-chemistry interactions in on a laminar n-dodecane – air mechanism and associated flow Room: Back Bay C B. Bobbitt, G. Blanquart Turbulent Premixed Flames premixed Low Swirl Injector flames statistically turbulent premixed flames premixed flame A. Gopal, structure in bluff-body stabilized lean Chair: G. Blanquart, California Institute C. Dhandapani, B. Bobbitt, P.Palies, R. Cheng, D. Davis, M. Ilak P.Arias, H. Uranakar, S. Chaudhuri, S. Yellapantula, J. Larsson premixed flames D. Michaels, of Technology G. Blanquart H. Im S. Shanbhogue, A. Ghoniem H40. Rarefied Flows and H40.01 Janus-Particles in a rarefied H40.02 Fast Maximum Entropy H40.03 Slow flow of a rarefied gas H40.04 Aerothermodynamics of H40.05 Numerical solution of H40.06 A Kinetic 13-Moment DSMC gas: thermophoresis and orientation Moment Closure Approach to Solving past a sphere: Numerical analysis of compressible flow past a flat plate in Boltzmann equation using discrete Boundary Conditions Method for Room: Back Bay D T. Baier, S. Shrestha, S. Tiwari, the Boltzmann Equation D. Summy, fundamental problem S. Taguchi, the slip-flow regime C. Cheng, Y. Dai, velocity grids P.Vedula Particle Simulations of Viscous Chair: S. Averkin, Worcester S. Hardt, A. Klar D. Pullin T. Suzuki G. Li, Y. Hu, M. Lai Rarefied Flows S. Averkin, Polytechnic Institute N. Gatsonis

73 Monday Morning, 23 November 2015 Session 11:53 12:06 12:19 12:32 12:45 H1. Porous Media Flows: H1.07 Switchable imbibition in H1.08 Wettability control on fluid-fluid H1.09 What controls the wettability of H1.10 Convective drying of a Wicking, Imbibition and nanoporous gold P.Huber, displacements in patterned bidisperse sphere packings? macroporous medium: a comparison Swelling J. Markmann, H. Duan, microfluidics B. Zhao, C. MacMinn, R. Moosavi, J. Murison, T. Hiller, of original porous asphalt geometry Room: Auditorium J. Weissmueller, Y. Xue R. Juanes M. Brinkmann, M. Schroter¨ with randomized Kelvin cells S. Lal, Chair: C. MacMinn, U. of Oxford F. Lucci, T. Defraeye, L. Poulikakos, M. Partl, D. Derome, J. Carmeliet H2. Suspensions: Theory and H2.07 Flipping and scooping of H2.08 Periodic dynamics of pairs of H2.09 Brownian motion of a particle Modeling curved 2D rigid fibers in simple shear: sedimenting discs R. Chajwa, with arbitrary shape E. Wajnryb, Room: 101 the Jeffery equations D. Crowdy N. Menon, S. Ramaswamy B. Cichocki, M. Ekiel-Jezewska Chair: J. Maia, Case Western Reserve U. H3. Particle-Laden Flows: H3.07 Is there solid-on-solid contact H3.08 Experimental Exploration of H3.09 Correcting velocity and H3.10 Modeling and Prediction of the Particle Interactions when spheres collide in a fluid? Electrostatic Charge on Particle Pair volume-fraction calculations in Effects of Collisions in a Gas-Solid Room: 102 N. Menon, S. Birwa, G. Rajalakshmi, Relative Velocity in Homogeneous and two-way-coupled, particle-laden-flow Turbulent Channel Flow Using Moment Chair: K. Prestridge, Los Alamos R. Govindarajan Isotropic Turbulence A. Hammond, simulations P.Ireland, J. Capecelatro, Methods D. Dunn, K. Squires National Laboratory Z. Dou, A. Tripathi, Z. Liang, H. Meng R. Fox, O. Desjardins H4. Fluid Dynamics H4.07 Geophysical Fluid Dynamics H4.08 Computational simulations of H4.09 OpenFOAM for beginners H4.10 The art of scientific writing Education Laboratory Open Days at the Woods frictional losses in pipe networks I. Nedyalkov, M. Wosnik M. Gad-el-Hak Room: 103 Hole Oceanographic Institution confirmed in experimental Chair: J. Tang, Brown U. J. Hyatt, C. Cenedese, A. Jensen apparatusses designed by honors students N. Pohlman, E. Hynes, A. Kutz H5. Jets II: Impinging H5.07 Directional transport of H5.08 Two-phase liquid-liquid flows H5.09 Dynamics of H5.10 Characterization of an Room: 104 impinging capillary jet on wettability generated by impinging liquid jets Bouncing-vs.-Merging Responses in impinging jet into porous media Chair: T. Astarita, Universita degli Studi engineered surfaces A. Ghosh, D. Tsaoulidis, Q. Li, P.Angeli Jet Collision M. Li, A. Saha, D. Zhu, C. Wang, S. Alhani, M. Gharib di Napoli Federico II S. Chatterjee, P.Sinha Mahapatra, C. Sun, C. Law R. Ganguly, C. Megaridis H6. CFD: Reactive Flows II H6.07 Numerical Study of Flame H6.08 Comparison of Flamelet H6.09 Modeling studies of a H6.10 Interaction of Thermodiffusive Room: 105 Stabilization Mechanism in a Premixed Models with the Transported Mass turbulent pulsed jet flame using Instabilities and Turbulence in Lean Chair: S. Hyun Kim, Ohio State U. Burner with LES Non-adiabatic Fraction Approach for Supersonic LES/PDF P.Zhang, H. Wang Hydrogen/Air Mixtures using Tabulated

Flamelet Approach Y. Tang, Combustion W. Li, K. Alabi, Chemistry J. Schlup, G. Blanquart h Break, 12:45–13:55 M. Hassanaly, V. Raman F. Ladeinde

Consistent and conservative Thermodynamically A minimally diffusive interface Numerical simulation of H7. CFD: Computational H7.07 H7.08 H7.09 H7.10 Lunc Methods and Modeling of framework for incompressible Consistent Physical Formulation and function steepening approach for compressible multiphase flows using Multiphase Flows IV multiphase flow simulations an Efficient Numerical Algorithm for compressible multiphase flows the Parallel Adaptive Room: 107 M. Owkes, O. Desjardins Incompressible N-Phase Flows J. Regele Wavelet-Collocation Method Chair: D. Pavlidis, Imperial College S. Dong M. Aslani, J. Regele London H8. Microscale Flows: Flow in H8.07 Physical mechanisms of flow H8.08 Fluid flow and heat transfer in H8.09 Conjugate thermal creep flow H8.10 Rarefaction effects in Microchannels resistance in textured microchannels polygonal micro heat pipes S. Rao, with hydrodynamics and thermal slip microchannel gas flow driven by Room: 108 S. Game, D. Papageorgiou, H. Wong conditions in a slit microchannel rhythmic wall contractions ´ Chair: P. Angeli, U. College London E. Keaveny, M. Hodes I. Monsivais, J. Lizardi, F. Mendez K. Chatterjee, A. Staples H9. Nanoscale Flows: H9.07 Water Purification across H9.08 Active osmotic exchanger for H9.09 Three-dimensional flow H9.10 Particle Dynamics in Membranes for Filtering and MoS2 Nano-porous Membranes advanced filtration at the nano scale instability near ion selective membrane Tangential Flow Filtration M. Garcia, Separation M. Heiranian, A. Barati Farimani, S. Marbach, L. Bocquet under shear flow H. Kwon, S. Pham, S. Pennathur Room: 109 N. Aluru B. Kim, G. Lim, J. White, J. Han Chair: R. Karnik, MIT H10. Granular Flows: Mixing, H10.07 Self Propelled particle H10.08 Granular mixing in a silo with H10.09 Pattern formation in Segregation and Separation systems: A study of the onset of multi-exit orifices A. Orpe, S. Kamath, triboelectrically charged binary Room: 110 organized motion A. Kulkarni, A. Kunte, P.Doshi packings A. Schella, T. Vincent, ¨ Chair: T. Shinbrot, Rutgers U. S. Vedantam, M. Panchagnula S. Herminghaus, M. Schroter

74 Monday Morning, 23 November 2015 Session 11:53 12:06 12:19 12:32 12:45 H11. Rayleigh-Benard H11.07 Azimuthal Decomposition of H11.08 Variation of effective roll H11.09 Roughness-triggered H11.10 Inertial effects on heat Convection II Wide Aspect-Ratio, Turbulent number on MHD Rayleigh-Benard turbulent boundary layers in transfer in superhydrophobic Room: 111 Rayleigh-Benard Convection in a convection confined in a small-aspect Rayleigh-Bnard convection J. Salort, microchannels A. Cowley, D. Maynes, Chair: D. Sondak, U. of Wisconsin, Cylindrical Cell P.Sakievich, Y. Peet, ratio box Y. Tasaka, T. Yanagisawa, O. Liot, R. Kaiser, R. du Puits, F. Chill J. Crockett, B. Iverson Madison R. Adrian T. Vogt, S. Eckert H12. Wind Turbines: Vertical H12.07 The effects of Reynolds H12.08 Wake Development of a H12.09 Experimental Performance Axis number, tip speed ratio, and solidity in Model Vertical Axis Wind Turbine of a Novel Trochoidal Propeller Room: 200 VAWTs C. Parker, A. Schult, H. Kadum, S. Friedman, E. Camp, B. Roesler, B. Epps Chair: J. Dabiri, Stanford U. M. Leftwich R. Cal H13. Free Surface Flows V: H13.07 Polygonal instabilities H13.08 On Unified Mode in Grid H13.09 Instability of Rotating Vertical H13.10 Undular Capillary and Jets, Hydraulic Jumps, M. Labousse Mounted Round Jets Viscous Jets N. Ribe, S. Badr, Gravitational Hydraulic Jumps Impact S. Parimalanathan, S. T, R. V S. Morris G. Tomar, R. Dasgupta Room: 201 Chair: L. Limat, Universit Paris Diderot H14. Electrokinetics: H14.07 Asymmetry induced electric H14.08 Direct Observation of H14.09 Non-isothermal H14.10 Uncertainty Quantification of Particles, Semipermeable current rectification in permselective Three-dimensional Electroconvective electro-osmotic flow in a microchannel Nonlinear Electrokinetic Response in a Membranes, Charged systems Y. Green, Y. Edri, G. Yossifon Vortices on a Charge Selective Surface with charge-modulated surfaces Microchannel-Membrane Junction Surfaces R. Kwak, J. Han, T. Lee, H. Kwak O. Bautista, S. Sanchez, F. Mendez S. Alizadeh, G. Iaccarino, A. Mani Room: 202 Chair: B. Figliuzzi, Ecole des Mines H15. Flow Control: Drag H15.07 A Turbulent Boundary Layer H15.08 DNS of flows over H15.09 Turbulent flows over H15.10 Turbulent drag reduction by Reduction II over Superhydrophobic Surfaces superhydrophobic surfaces with small superhydrophobic surfaces with permeable coatings Room: 203 H. Park, J. Kim texture C. Fairhall, R. Garcia-Mayoral shear-dependent slip length R. Garcia-Mayoral, Chair: T. Sayadi, U. of Illinois at S. KHOSH AGHDAM, M. Seddighi, N. Abderrahaman-Elena Urbana-Champain P.Ricco H16. Aerodynamics: H16.07 Squirt flow in highly H16.08 Energy Extraction from Fluid H16.09 Globally shed wakes for H16.10 POD Analysis of Flow Fluid-Structure Interaction I deformable multi-porosity materials Flow Via Vortex Induced Angular three distinct retracting foil geometries Behind a Four-wing Vortex Generator Room: 204 P.Kurzeja, K. Bertoldi Oscillations A. Bhattacharya, S. Steele, M. Triantafyllou M. Hosseinali, S. Wilkins, J. Hall S. Sorathiya

Chair: L. Zhang, Rensselaer h Break, 12:45–13:55 Polytechnic Institute

The Effect of Surface Flat-plate boundary-layer Frequency response of the Non-parallel Flow Effects of H17. Flow Instability: H17.07 H17.08 H17.09 H17.10 Lunc Boundary Layers II Waviness on the Growth and receptivity to high amplitude, swept-wing three-dimensional Stationary Crossflow Vortices at their Room: 205 Development of TS Waves spanwise-oriented, vortical boundary layer G. Meneghello, Genesis A. Butler, X. Wu Chair: A. Tumin, The U. of Arizona C. Thomas, S. Mughal, R. Ashworth disturbances in the free-stream T. Bewley R. Bosworth, J. Morrison H18. Flow Instability: H18.07 Influence of fluid dispersion H18.08 Fingering patterns induced H18.09 Comet-shape deformation H18.10 Shock Layer effects on Interfacial and Thin Films II on transient behaviors of miscible by precipitation reactions A. De Wit, and transition to viscous fingering of a Viscous Fingering instability C. Rana, Room: 206 viscous fingering T. Hota, M. Mishra F. Haudin, P.Shukla, F. Brau miscible circular blob in porous media M. Mishra Chair: S. Kumar, U. of Minnesota M. Mishra, A. De Wit, S. Pramanik H19. Vortex Dynamics: H19.07 A Quantitative Assessment H19.08 Transient wake and H19.09 Late time vortex dynamics H19.10 Experimental investigation of Dipoles, Pairs and of Asymmetric Vortex Interactions in trajectory of free falling cones with for a coherent structure interacting with boundary layer transition on rotating Instabilities Viscous Flow P.Folz, K. Nomura various apex angles Y. Jin, A. Hamed, fine-scale turbulence E. Stout, cones in axial flow in 0 and 35 degrees Room: 207 L. Chamorro F. Hussain angle of attack A. Kargar, K. Mansour Chair: G. Chavarria, UNA de Mexica H20. Turbulent Taylor-Couette H20.07 Impact of Scalar Forcing H20.08 Turbulent velocity and H20.09 Statistics of High Atwood H20.10 Effects of Mass and Volume and Mixing Simulation Techniques on High concentration measurements in a Number Turbulent Mixing Layers Fraction Skewness in Variable Density Room: 208 Schmidt Number Turbulent Mixing multi-inlet vortex nanoprecipitation J. Baltzer, D. Livescu Mixing Processes A. Wachtor, Chair: B. Eckhardt, K. Rah, G. Blanquart reactor M. Olsen, Z. Liu, E. Hitimana, J. Bakosi, R. Ristorcelli Philipps-Universitaet Marburg J. Hill, R. Fox

75 Monday Morning, 23 November 2015 Session 11:53 12:06 12:19 12:32 12:45 H21. Turbulence: Modeling I H21.07 Adaptive variable-fidelity H21.08 Full field inversion: A tool to H21.09 Closure modeling using field H21.10 Subgrid-scale modeling for Room: 209 wavelet-based eddy-capturing diagnose and improve closure models inversion and machine learning flows with strong density variations Chair: Y. Li, U. of Sheffield approaches for compressible A. Singh, K. Duraisamy K. Duraisamy S. GS, G. Candler turbulence E. Brown-Dymkoski, O. Vasilyev H22. Turbulent Boundary H22.07 Characteristics of turbulent H22.08 Characterization of coherent H22.09 Preponderance of hairpin H22.10 Identifying Orr-like behaviour Layers III spots in transitional boundary layers motions in cross flow via DNS C. Liu, vortices and their life cycles in the in full-scale turbulent wall-bounded Room: 210 O. Marxen, T. Zaki G. Araya, S. Leonardi, M. Tutkun, outer region of the canonical flat-plate flows M. Encinar, J. Jimenez Chair: M. Guala, U. of Minnesota L. Castillo boundary layer J. Wallace, X. Wu H23. Biofluids: Squirmers, H23.07 Squirming propulsion in H23.08 Self-propulsive motion and H23.09 Ciliary fluid transport H23.10 Beyond the mucus escalator: Cilia and Pumping viscoelastic fluids M. De Corato, deformation of a chemically-driven enhanced by viscoelastic fluid H. Guo, Complex ciliary hydrodynamics in Room: 300 F. Greco, P.Maffettone drop. N. Yoshinaga E. Kanso disease and function J. Nawroth, Chair: S. Yazdi, Pennsylvania State U. H. Guo, D. John , E. Kanso, M. McFall-Ngai H24. Biofluids: H24.07 Accuracy and Robustness H24.08 Strategies for Pile-up and H24.09 4D-Flow validation, H24.10 Experimental and Cardiovascular Fluid Improvements of Echocardiographic Over-refinement to improve numerical and experimental framework Computational In Vitro Models of Left Dynamics I Particle Image Velocimetry for Routine performance of the Surrogate K. Sansom, H. Liu, G. Canton, Ventricular Fluid Dynamics Room: 302 Clinical Cardiac Evaluation B. Meyers, Management Framework in A. Aliseda, C. Yuan A. Santhanakrishnan, M. Samaee, Chair: M. Plesniak, Washington U. P.Vlachos, J. Charonko, M. Giarra, cardiovascular flow optimization J. Lee, A. Bhalla, B. Griffith C. Goergen A. Verma, A. Marsden H25. Biofluids: Biflagellates H25.07 Narrower bottlenecks could H25.08 Data-driven, low-order H25.09 Hydrodynamic interactions of H25.10 Integration of hydrodynamic and Synchronization be more efficient for concentrating modeling of interflagella cilia on a spherical body B. Nasouri, interactions between filaments Room: 304 choanoflagellates J. Sparacino, synchronization J. Tu, M. Arcak, G. Elfring Y. Man, E. Lauga ˜ Chair: K. Leptos, U. of Cambridge G. Mino, M. Koehl, N. King, R. Stocker, M. Maharbiz A. Banchio, V. Marconi H26. Biofluids: Phonation, H26.07 Energy utilization in H26.08 The evolution of viscous flow H26.09 Altered vocal fold kinematics H26.10 Study of human phonation in Speech and Airway phonation M. Krane structures in the esophagus during in synthetic self-oscillating models that a full-body domain S. Saurabh, Mechanics tracheoesophageal speech B. Erath, employ adipose tissue as a lateral D. Bodony F. Hemsing boundary condition. H. Saidi, B. Erath

Room: 306 h Break, 12:45–13:55 Chair: X. Zheng, U. of Maine

Computational modeling of Low Dimensional Analysis of A numerical study of a Bumblebees meet fully H27. Biofluids: Biological H27.07 H27.08 H27.09 H27.10 Lunc Fluid Dynamics: Flight aerodynamics in the fast forward flight Wing Surface Morphology in freely-falling maple seed with developed turbulence: high resolution Room: 308 of hummingbirds J. Song, H. Luo, Hummingbird Free Flight autorotation I. Lee, H. Choi numerical simulations T. Engels, Chair: K. Breuer, Brown U. B. Tobalske, T. Hedrick G. Shallcross, Y. Ren, G. Liu, H. Dong, D. Kolomenskiy, K. Schneider, B. Tobalske J. Sesterhenn, F. Lehmann H28. Surface Tension Effects: H28.07 A flow map of H28.08 Thermo/Soluto-capillary H28.09 Tuning the Dynamics of H28.10 Antifreeze Polysaccharide General Buoyancy-Marangoni convection in instabilities in 3D bi-component liquid Particles and Drops at Engineered Coating Study for De-icing Aircraft Room: 309 binary fluids driven by a horizontal pools using DNS A. Williams, Nanostructured Interfaces K. Morita, H. Sakaue, A. Ando, Chair: J. Boreyko, Virginia Tech U. temperature gradient Y. Li, M. Yoda P.Saenz, P.Valluri, K. Sefiane C. Colosqui, A. Checco Y. Matsuda, H. Kawahara H29. Nonlinear Dynamics: H29.07 Data-driven reduced order H29.08 Network-based H29.09 Principal interval H29.10 Reduced-order modeling of Model Reduction model for prediction of wind turbine representation of energy transfer in decomposition framework for the flow around a high-lift configuration Room: 310 wake dynamics M. Debnath, unsteady separated flow A. Nair, POD-based model reduction of with unsteady Coanda blowing Chair: T. Sapsis, MIT C. Santoni, M. Rotea, S. Leonardi, K. Taira convective flows O. San, J. Borggaard R. Semaan, L. Cordier, B. Noack, G. Iungo P.Kumar, M. Burnazzi, G. Tissot H30. Geophysical Fluid H30.07 Jet drops from bursting H30.08 Air entrainment and bubble H30.09 Simultaneous H30.10 Simulation-based study of Dynamics: Air-Sea and Wave bubbles: the importance of bubble statistics in three-dimensional breaking measurements of shape characteristics air-sea momentum fluxes nearshore Interaction shape in producing droplets J. Bird, waves L. Deike, W. Melville, and radar backscattering of a water X. Hao, L. Shen Room: 311 P.Walls, L. Henaux S. Popinet surface in a rain field R. Liu, X. Liu, Chair: B. Fox-Kemper, Brown U. J. Duncan

76 Monday Morning, 23 November 2015 Session 11:53 12:06 12:19 12:32 12:45 H31. Waves: General H31.07 Efficient method for the H31.08 Growth of gravity-capillary H31.09 Analysis of Nonlinear H31.10 Solitary waves on a ferrofluid Room: 312 computation of wave propagation in the waves in countercurrent air/water Internal Wave Systems Driven From a jet M. Blyth, E. Parau Chair: L. Chumakova, U. of Edinburgh atmosphere: horizontal rays and turbulence A. Soldati, F. Zonta, Flexible Boundary T. Dobra, vertical normal modes N. Lahaye, M. Onorato A. Lawrie, S. Dalziel S. Llewellyn Smith H32. Drops: Elastic Surfaces H32.07 Peeling, sliding, pulling and H32.08 Drop impact and capture on H32.09 Droplet impact on a fiber H32.10 Elastocapillary mist collector and Fibers bending J. Lister, G. Peng a thin flexible fiber J. Comtet, S. Kim, T. Kim, W. Kim C. Duprat, R. Labb, A. Rewakowicz Room: 313 B. Keshavarz, J. Bush Chair: J. Belden, Naval Undersea Warfare Center H33. Drops: Bouncing, H33.07 Bubble entrapment under H33.08 Water drop dynamics on a H33.09 An Experimental Impact, and Dynamic Surface the impact of a viscous drops onto a granular layer C. Llorens, A. Biance, Investigation on the Impingement of Interactions II solid surface K. Langley, E. Li, C. Ybert, C. Pirat Water Droplets onto Superhydrophobic Room: Ballroom A S. Thoroddsen Surfaces Pertinent to Aircraft Icing Chair: S. Thoroddsen, KAUST Phenomena H. Li, R. Waldman, H. Hu H35. Bubbles: Heat Transfer H35.07 Verification and validation of H35.08 Sliding bubbles on a hot and Boiling a GPU-based multi-resolution direct horizontal wire in a subcooled bath Room: Ballroom B numerical simulation of multiphase flow A. Duchesne, C. Dubois, H. Caps Chair: C. Inoue, U. of Tokyo with phase change C. Forster, M. Smith H36. Bubbles: Micro-bubbles H36.07 Analysis of cavitation effect H36.08 Surface nanobubble H36.09 Hot Microbubble Injection in H36.10 Bubble dynamics in a and Nano-bubbles for water purifier using electrolysis nucleation dynamics during Thin Liquid Film Layers for micro-channel with a virtual check Room: Ballroom C D. Shin, H. Ko, S. Lee water-ethanol exchange C. Chan, Ammonia-Water Separation P.Desai, valve R. Chen, L. Zhu, H. Yu C. Ohl W. Zimmerman

Chair: J. Gordillo, Universidad de h Break, 12:45–13:55 Sevilla

Flow past a finite cylinder of Optimal control of an A numerical experiment that 3-D Stall Cell Inducement H37. Separated Flows H37.07 H37.08 H37.09 H37.10 Lunc Room: Back Bay A constant curvature J. Shang, asymptotic model of flow separation provides new results regarding the Using Static Trips on a NACA0015 Chair: A. Liakos, United States Naval H. Stone, A. Smits U. Qadri, P.Schmid inception of separation in the flow Airfoil H. Dell’Orso, M. Amitay Academy around a circular cylinder N. Malamataris, A. Liakos H38. Acoustics IV: H38.07 How non-parallel flow affects H38.08 Coupling dynamic of twin H38.09 Mean Flow Perturbation H38.10 Hybrid Analysis of Engine Aero-Acoustics the low frequency sound of supersonic supersonic jets C. Kuo, J. Cluts, Analysis of an Underexpanded Jet Core Noise J. O’Brien, J. Kim, Room: Back Bay B heated jets M. Afsar, A. Sescu M. Samimy S. Bhaumik, D. Gaitonde, H. Shen M. Ihme Chair: J. Nichols, U. of Minnesota H39. Flames: Premixed H39.07 Study on Turbulent Premixed H39.08 Analysis of the electric H39.09 Time-resolved stereoscopic H39.10 Vorticity Dynamics in Single Flames Flame Regimes with Ignition Using a currents in 1D premixed flames under PIV study of flashback in swirl flames and Multiple Swirling Reacting Jets Room: Back Bay C Reactor Assisted Turbulent Slot Burner applied voltages J. Han, M. Belhi, at elevated pressures R. Ranjan, T. Smith, M. Aguilar, B. Emerson, Chair: G. Blanquart, California Institute S. Won, C. Reuter, B. Windom, Y. Ju F. Bisetti, T. Casey , H. G. Im, J. Chen D. Ebi, N. Clemens D. Noble, T. Lieuwen of Technology H40. Rarefied Flows and H40.07 DSMC-LBM hybrid scheme H40.08 Relaxation rates for inverse H40.09 DSMC Simulation of H40.10 Analytical and Numerical DSMC for flows with variable rarefaction power law particle interactions and Microstructure Actuation by Knudsen Modeling of Strongly Rotating Rarefied Room: Back Bay D conditions G. Di Staso, S. Succi, their variable hard sphere surrogates Thermal Force A. Pikus, I. Sebastiao, Gas Flows S. Pradhan, V. Kumaran Chair: S. Averkin, Worcester F. Toschi, H. Clercx R. Rubinstein A. Strongrich, A. Alexeenko Polytechnic Institute

77 Monday Afternoon, 23 November 2015

Invited Session J1 13:55 – 14:30, Room: Auditorium Chair: Kenny Breuer, Brown University Microhydrodynamics Of Deformable Particles: Surprising Responses Of Drops And Vesicles To Uniform Electric Field Or Shear Flow Petia Vlahovska, Brown University

Invited Session J34 13:55 – 14:30, Room: Ballroom BC Chair: C.P. Caulﬁeld, Cambridge University Using Optimisation To Identify The ”best Way” To Trigger Flow Transition Richard Kerswell, Bristol University

Mini Break, 14:30 – 14:45

Invited Session K1 14:45 – 15:20, Room: Auditorium Chair: Gareth McKinley, Massachusetts Institute of Technology Flow Near Singular Elastic Interfaces: Lubrication, Wetting & Cusps Jacco Snoeijer, University of Twente and Eindhoven University of Technology

Invited Session K34 14:45 – 15:20, Room: Ballroom BC Chair: Martin Maxey, Brown University Instability And Turbulence Of Propagating Particulate Flows Sivaramkrishnan Balachandar, University of Florida

Refreshment Break, 15:20 – 16:05

Technical Poster Session KP1 & Student Poster Session KP2 15:20 – 16:05, Room: Exhibit Hall D

78 Monday Afternoon, 23 November 2015

KP1. Poster Session 15:20 – 16:05, Room: Exhibit Hall D (Technical Poster Display Area)

ACOUSTICS ASTROPHYSICAL FLUID DYNAMICS

KP1.2 Exploration Of The Use Of Triple Correlation In The Analysis Of KP1.11 Implications Of New Planet Discoveries To Our Knowledge Of Solar Acoustic Data Genevieve Starke, Jacques Lewalle System Victor Christianto, Florentin Smarandache

KP1.3 Addressing The Likelihood Of Cumulative Nonlinear Distortion In KP1.12 Simultaneous PLIF/PIV Measurements For A Single-mode Inclined Supersonic Jet Noise Using The Effective Gol’dberg Number Woutijn J. Interface Mohammad Mohaghar, David Reilly, John Carter, Jacob Mcfarland, Baars, Charles E. Tinney, Mark F. Hamilton Devesh Ranjan

AERODYNAMICS BIOLOGICAL FLUID DYNAMICS

KP1.5 Separated Flow Over Wind Turbines David Brown, Jacques Lewalle KP1.14 RANS And LES Simulations Of The Airﬂow Through Nasal Cavities Giacomo Lamberti KP1.6 Large Eddy Simulation Of A High Speed Train Geometry Under Cross-wind With An Adaptive Lattice Boltzmann Method Ralf Deiterding, KP1.15 Turbulence Effects On Hemolysis By Revisiting Experiments With Moritz M. Fragner LES Computations Mesude Ozturk, Edgar O’Rear, Dimitrios Papavassiliou

The Ultimate Flow Controlled Wind Turbine Blade Airfoil Avraham KP1.7 KP1.16 Inﬂuence Of Substrate Micropatterning On Bioﬁlm Seifert, Danny Dolgopyat, Ori Friedland, Lior Shig Growth Stephan Koehler, Yiwei Li, Bi-Feng Liu Liu, David Weitz KP1.8 Design Of Shrouded Airborne Wind Turbine & CFD Analysis Faiqa Anbreen KP1.17 The Effect Of Low Accurate Vesicle Suspensions On Observables Bryan Quaife, George Biros KP1.9 Toward Affordable, Theory-and-Simulation-Inspired, Models For Realistic Wind Turbine Aerodynamics And Noise Foluso Ladeinde, Ken Al- KP1.19 Water Transport Through Cohesion-Tension In Porous abi, Wenhai Li Structures Srinivas Kosaraju

KP1.20 Flow Distributions And Spatial Correlations In Human Brain Capillary Networks Sylvie Lorthois, Myriam Peyrounette, Anne Larue, Tan- guy Le Borgne

79 Monday Afternoon, 23 November 2015

KP1.21 Mild Coarctation Of The Aorta: To Touch Or Not To Touch The KP1.30 Visualization Of Pulsatile Flow For Magnetic Nanoparticle Based Patient? Zahra Keshavarz-Motamed, Amanda Randles, Farhad Rikhtegar Therapies Andrew Wentzel, Philip Yecko Nezami, Ramon Partida, Kenta Nakamura, Pedro V. Staziaki, Brian Ghosh- hajra, Ami Bhatt, Elazer R. Edelman BOUNDARY LAYERS

KP1.22 A Projection Scheme For Velocity Field Reconstruction In The Left Ventricle Sarah Frank, Juan Carlos Del Alamo, Shawn C Shadden KP1.32 Progress Towards An LES Wall Model Including Unresolved Roughness Kyle Craft, Andrew Redman, Kurt Aikens KP1.23 Particle Deposition In Human Lungs Due To Varying Cross-Sectional Ellipticity Of Left And Right Main Bronchi Steven Roth, Jes- KP1.33 A Test Of The Validity Of Inviscid Wall-Modeled LES Andrew Red- sica Oakes, Shawn Shadden man, Kyle Craft, Kurt Aikens KP1.24 Optimal Branching Designs In Respiratory Systems Keunhwan KP1.34 Micro-Scale Simulation Of Water Transport In Porous Media Park, Wonjung Kim, Ho-Young Kim Coupled With Phase Change Sahand Etemad, Arash Behrang, Peyman Mo- hammadmoradi, Hossein Hejazi, Apostolos Kantzas KP1.25 The Effect Of Wing Stroke And Aspect Ratio On The Force Generation A Compliant Membrane Flapping Wing Cosima Schunk, Sharon M. Swartz, Kenneth S. Breuer KP1.35 The Scaling Laws For The Energy-containing Range Of Second-order Structure Functions Above A Dense Vegetation Canopy Ying KP1.26 An Integrated Simulation Of A Wing-Body Combination For A Pan, Marcelo Chamecki Hovering Drosophila Mehmet Sahin, Ezgi Dilek, Belkis Erzincanli BUBBLES KP1.27 Swimming Pattern Of Vorticella Convallaria Trophont In The Hele-Shaw Conﬁnements Luz Sotelo, John Davidson, Young-Gil Park, Sunghwan Jung, Sangjin Ryu KP1.37 Investigation Of Manipulation Technique Of Microbubbles Using Focused Ultrasound. Taichi Osaki, Kazuhito Inoue, Yoichiro Matsumoto, Shu KP1.28 Aeromechanics Of The Spider Cricket Jump: How To Jump 60+ Takagi, Takashi Azuma, Mitsuhisa Ichiyanagi Times Your Body Length And Still Land On Your Feet Emily Palmer, Nicolas Deshler, David Gorman, Catarina Neves, Rajat Mittal KP1.38 Propagation And Dissolution Of CO2 Bubbles In Algae Photo-bioreactors Srinivas Kosaraju KP1.29 Development Of A New Method For Platelet Function Test And Its Shearing Condition In Microﬂudic System Hoyoon Lee, Gyehyu Kim, Sea- KP1.39 Coalescence Preference In Densely Packed Bubbles Yeseul Kim, whan Choi, Sehyun Shin Su Jin Lim, Bopil Gim, Byung Mook Weon

80 Monday Afternoon, 23 November 2015

KP1.40 Experimental Technique For Observing Free Oscillation Of A KP1.49 Large-eddy Simulation Of Vortex Streets And Dispersion Behind Spherical Gas Bubble In Highly Viscous Liquids. Takehiro Nakajima, Keita High-rise Buildings Beom-Soon Han, Seung-Bu Park, Jong-Jin Baik Ando KP1.50 A Computational Framework For The Quantiﬁcation Of Rare Events KP1.41 High Fidelity Simulation Of Nucleate Boiling And Transition To In Systems With Instabilities Themistoklis Sapsis, Mustafa Mohamad, Will Critical Heat Flux On Enhanced Structures Miad Yazdani, Abbas Alahyari, Cousins Thomas Radcliff, Marios Soteriou CONVECTION AND BUOYANCY DRIVEN FLOWS COMPRESSIBLE FLOW

KP1.52 Validity Of Classical Scaling Laws In Laminar Channel Flow With KP1.43 Turbulent Energy Flux Generated By Periodic Spacer-like Obstacles Wilko Rohlfs, John H. Lienhard Shock/homogeneous-turbulence Interaction Krishnendu Sinha, Russell Quadros, Johan Larsson KP1.53 Numerical Modeling Of Surface And Volumetric Cooling Using Optimal T- And Y-shaped Flow Channels Srinivas Kosaraju COMPUTATIONAL FLUID DYNAMICS KP1.54 Numerical Modeling And Optimization Of Warm-water Heat Sinks Yaser Hadad, Paul Chiarot KP1.45 Effect Of The Convected Terms In The Transient Viscoelastic Flow Nariman Ashrafi, Meysam Mohamadali KP1.55 Buoyancy And Blockage Effects On Transient Laminar Opposing Mixed Convection Heat Transfer From Two Horizontal Confined Isothermal KP1.46 High-performance And High-order Numerical Methods For 2D Cylinder In Tandem Lorenzo MartÍnez-Suastegui,´ Erick Salcedo, Juan Cajas, Navier-Stokes Equations Vinicius Henrique Aurichio, Attilio Cucchieri, Maria Cesar´ Trevino˜ Luisa Bambozzi de Oliveira DROPS KP1.47 Simulation Of High Re Boundary Layer Flows On Uniform Grids Using Immersed Boundaries With Vorticity Confinement Subhashini Chitta, John Steinhoff KP1.57 Oil In Water: An Experimental Study Of Splashing And Entrainment From Droplets And Jets Raina Mittal, Kristen Halper, Rajat Mittal KP1.48 Numerical Analysis Of Rough Wall Effect On Lid-driven Cavity Flow Using Lattice Boltzmann Method Arman Safdari, S. M. Reza Attarzadeh, KP1.58 Impact Of A Single Drop On The Same Liquid: Formation, Growth Kyung Chun Kim And Disintegration Of Jets G. Gilou Agbaglah, Robert Deegan

81 Monday Afternoon, 23 November 2015

KP1.59 Aqueous Polymer In Water Alter The Coffee-ring KP1.69 Investigation Of Liquid Properties In Extended Nanospaces Using Effect Changdeok Seo, Daeho Jang, Wonhwi Na, Sera Park, Sehyun Streaming Potential/current System Kyojiro Morikawa, Yutaka Kazoe, Chi- Shin Chang Chang, Takehiko Tsukahara, Kazuma Mawatari, Takehiko Kitamori

KP1.60 Superhydrophobic-like Tunable Droplet Bouncing On Slippery ENERGY Liquid Interfaces Chonglei Hao, Zuankai Wang KP1.71 The Hybrid Sterling Engine: Boosting Photovoltaic Efﬁciency And KP1.61 Effect Of Surface Morphology On Anti-icing Duck-Gyu Lee, Thanh- Deriving Mechanical Work From Fluid Expansion And Heat Capture Nathan Binh Nguyen, Wan-Doo Kim, Hyuneui Lim Beets

KP1.62 Spreading Of Electrolyte Drops On Charged Surfaces: Electric EXPERIMENTAL TECHNIQUES Double Layer Effects On Drop Dynamics Kyeong Bae, Shayandev Sinha, Guang Chen, Siddhartha Das KP1.73 A Rapid Filtering And Reconstruction Method Of Two-dimensional ELECTROKINETIC FLOWS Image Velocimetry Signals Using A Non-iterative POD-method Jonathan Higham, Wernher Brevis, Christopher Keylock

KP1.64 Quantization Method For Describing The Motion Of Celestial KP1.74 Development Of Threedimensional Optical Correction Method For Systems Victor Christianto, Florentin Smarandache Reconstruction Of Flow Field In Droplet Han Seo Ko, Yeonghyeon Gim, Seung-Hwan Kang KP1.65 Electric Field Control Of A Fluid Transfer Between Freely Suspended And Sessile Droplets Suhwan Choi, Alexei Saveliev KP1.75 Experimental Analysis Of Flow Over A Highly Maneuverable Airframe Jonathan Spirnak, Michael Benson, Bret Van Poppel, Christopher Elkins, John Eaton KP1.66 The Capacitance Of Ionic Liquid Electric Double Layer Near Nanostructured Electrodes Yun Sung Park, Myung Mo Ahn, In Seok Kang KP1.76 Photochromic Flow Visualization In Silicone Oil For Demonstrations And Experiments Enrico Fonda, Stephen R. Johnston, Devesh Ranjan, KP1.67 Electroosmotic Flow In Rigid And Soft Nanochannels: Effects Of Katepalli R. Sreenivasan Solvent Polarization Lucas Myers, Shayandev Sinha, Siddhartha Das KP1.77 Effects Of Adding Nanoparticles On Boiling And Condensing KP1.68 Instantaneous Velocity Measurement Of AC Electroosmotic Flows Heat Transfer Inside A Horizontal Round Tube Mohsen Sheikholeslami, Mo- By Laser Induced Fluorescence Photobleaching Anemometer With High hammadkazem Sadoughi, Hamed Shariatmadar, Mohammad Ali Akhavan- Temporal Resolution Wei Zhao, Fang Yang, Rui Qiao, Guiren Wang Behabadi

82 Monday Afternoon, 23 November 2015

KP1.78 Shear Velocity And Wall Position Determination From Particle KP1.88 Effect Of Surfactant On Kinetics Of Thinning Of Capillary Image Velocimetry Data With Seed Centroid Correction Jeff Harris, Blake Bridges Emilia Nowak, Nina Kovalchuk, Mark Simmons Lance, Richard Skifton, Barton Smith KP1.89 Schlieren Imaging Of Gravitational Instabilities During Miscible KP1.79 Inductively Coupled Discharge And Post-Discharge With RF Of Viscous Fingering Of Glycerol-Water Systems Daniela Marin, Simone Stew- Ne Neslihan Sahin, Murat Tanisli, Sercan Mertadam art, Patrick Bunton, Eckart Meiburg, Anne De Wit

FREE-SURFACE FLOWS KP1.90 Spontaneous Formation Of Nanopatterns In Velocity-Dependent Dip-Coated Organic Films: From Dragonﬂies To Stripes P. Huber, M. Bai, V. del Campo, P. Homm, P. Ferrari, A. Diama, C. Wagner, H. Taub, K. Knorr, M. Generating A Soliton Splash Through Variational Modelling And KP1.81 Deutsch, M. Retamal, U. Volkmann, T. Corrales Experiments Anna Kalogirou, Onno Bokhove KP1.91 Effects Of Inclination And Vorticity On Interfacial Flow Dynamics In FLOW CONTROL Horizontal And Inclined Pipes Areti Kiara, Kelli Hendrickson, Yuming Liu

KP1.83 Effect Of Synthetic Roughness On A Turbulent Channel KP1.92 Rayleigh-Taylor Mixing In Supernova Experiments Nora Swisher, Flow Javier Combariza, Jesus Ramirez-Pastran, Carlos Duque-Daza Carolyn Kuranz, David Arnett, Omar Hurricane, Bruce Remington, Harry Robey, Snezhana Abarzhi KP1.84 Sweeping And Redevelopment Of Longitudinal Vortices In A Turbulent Boundary Layer By Injecting Bubble Swarms Hyun Jin Park, Yuji KP1.93 Qualitative And Quantitative Features Of Rayleigh-Taylor Mixing Tasaka, Yuichi Murai Dynamics Aklant Bhowmick, Snezhana Abarzhi, Praveen Ramaprabhu, Varad Karkhanis, Andrew Lawrie KP1.85 Reduction Of Aerodynamic Friction Drag Of Moving Bodies Using A Microwave-Dielectric-Barrier-Discharge Actuator Controlling The Boundary KP1.94 Exploring Model Assumptions Through Three Dimensional Mixing Layer Thiery Pierre Simulations Using A High-order Hydro Option In The Ares Code Justin White, Britton Olson, Brandon Morgan, Jacob McFarland FLOW INSTABILITY KP1.95 Effect Of Inhomogeneous Flow On Rayleigh Taylor Instability Sudip Sen KP1.87 Transition In Hypersonic Boundary Layers: Role Of Dilatational Waves Yiding Zhu, Chuanhong Zhang, Qing Tang, Huijing Yuan, Jiezhi Wu, KP1.96 High- And Low-symmetric Coherent Structures And Dimensional Shiyi Chen, Cunbiao Lee, Mohamed Gad-el-hak Crossover In Richtmyer-Meshkov Flows Aklant Bhowmick, Snezhana Abarzhi

83 Monday Afternoon, 23 November 2015

KP1.97 On Reliable Quantiﬁcation Of Richtmyer-Meshkov Flows Nora INDUSTRIAL APPLICATIONS Swisher, Milos Stanic, Robert Stellingwerf, Jason Oakley, Riccardo Bonazza, Snezhana Abarzhi KP1.107 Pressure Cycle Rheology Of Nanoﬂuids At Ambient GEOPHYSICAL FLUID DYNAMICS Temperature Anoop Kanjirakat, Reza Sadr, Rommel Yrac, Mahmood Amani KP1.99 Erosion Patterns On Dissolving Surfaces Caroline Cohen, Stefano JETS Polizzi, Michael Berhanu, Julien Derr, Sylvain Courrech du Pont

KP1.100 Multi-Scale Coupling And Directionality In The Turbulence-Bed KP1.109 Experimental Study Of Flapping Jets In A Soap Film Julia Lee, Interaction Hanieh Tabkhi, Arash Nayebzadeh Ildoo Kim, Shreyas Mandre KP1.101 Wind Characteristics Of Coastal And Inland Surface Flows Chelakara Subramanian, Steven Lazarus, Tetsuya Jin KP1.110 Computational Analysis For Dry-ice Sublimation Assisted CO2 Jet Impingement Flow SongMi Kwak, Jaeseon Lee KP1.102 Direct Statistical Simulation: Ensemble Averaging And Basis Reduction Altan Allawala, Brad Marston MAGNETOHYDRODYNAMICS

KP1.103 Large Eddy Simulations Of Kelvin Helmholtz Instabilities At High Reynolds Number Stratified Flows Dana Brown, Lou Goodman, Mehdi KP1.112 Helical Mode Interactions And Spectral Transfer Processes Raessi In Magnetohydrodynamic Trubulence Moritz Linkmann, Arjun Berera, Mairi McKay, Julia Jager¨ KP1.104 Control Of Mixing Hotspots Over The Vertical Turbulent Flux In The Southern Ocean Ali Mashayek, Raffaele Ferrari, Jim Ledwell, Sophia KP1.113 Finite Dissipation And Nonuniversality In Magnetohydrodynamic Merrifield, Louis St. Laurent Turbulence Moritz Linkmann, Arjun Berera, Mairi McKay, Erin Goldstraw, W. David McComb KP1.105 Geometrodynamical Fluid Theory Applied To Dynamo Flows In Planetary Interiors Kayla Lewis, Diego Miramontes, Dillon Scofield MICROSCALE FLOWS

KP1.115 Three-dimensional Simulation Of Droplet Migration In A Hele-Shaw Microchannel Yue Ling, Jose-Maria Fullana, Stephane Popinet, Christophe Josserand

84 Monday Afternoon, 23 November 2015

KP1.116 Hemorheology In PDMS Micro Channel With Varied Surface NONLINEAR DYNAMICS Roughness Bharath Babu Nunna, Shiqiang Zhuang, Eon Soo Lee

KP1.117 Numerical Analysis Of Mixing By Sharp-edge-based KP1.125 Statistical Topography As A Mechanistic Model For The Geometry Acoustoﬂuidic Micromixer Nitesh Nama, Po-Hsun Huang, Tony Jun & Size Distribution Of Tidal Mud Puddles, Arctic Melt Ponds, & Terrestrial Huang, Francesco Costanzo Lakes Brendan Barry

KP1.118 Modeling Wrinkled-assisted Assembly Of Ordered Nanoparticles KP1.126 Finite-time Barriers To Reaction Front Propagation Rory Locke, And Nanorods On A Wavy Substrate Camila Luppi Sato, Peter Yeh, Alexander John Mahoney, Kevin Mitchell Alexeev, Martin Mayer, Patrick Probst, Andreas Fery KP1.127 Robustness Of The Koopman Mode Decomposition Of The MULTIPHASE FLOWS Rayleigh-Benard´ Convection Marko Budisic, David Sondak

NON-NEWTONIAN FLOWS KP1.120 Spectral Analysis Of Cluster Induced Turbulence Ravi Patel, Pe- ter Ireland, Jesse Capecelatro, Rodney Fox, Olivier Desjardins KP1.129 Flow Of Slurry In The Inclined Closed Channel Nariman Kho- NANO FLOWS rasani, Parastoo Piroozram

KP1.130 Magneto-Rheological Rotational Flow Between Coaxial KP1.122 Electrospinning Of Biodegradable And Biocompatible Nanoﬁber Cylinders Nariman Ashraﬁ, Abbas Hazbavi Patches From Solutions Of ”Green” Materials For Plant Protection Against Fungi Attack Soumyadip Sett, MinWook Lee, Alexander Yarin, S.M. Alavi POROUS MEDIA FLOWS Moghadam, Matthias Meinke, Wolfgang Schroeder

KP1.123 Non-equilibrium Molecular Dynamics Simulation Of The Unstirred KP1.132 PIV-based Investigation Of The Skin Friction Of The Flow Over Layer In The Osmotically Driven Flow Keito Konno, Tomoaki Itano, Masako Random Fibrous Media Parisa Mirbod, Reza Gheisari Seki KP1.133 Modeling Coupled Transport And Electrochemical Reaction Phenomena In Polymer Electrolyte Fuel Cell Electrode By Lattice Boltzmann Method Atefeh Tarokh, Ali Tarokh, Hossein Hejazi, Kunal Karan

KP1.134 Poromechanics Modeling Of Fault Stability Under The Inﬂuence Of Fluid Pressure Changes Zhibing Yang, Ruben Juanes

85 Monday Afternoon, 23 November 2015

KP1.135 Numerical Investigation Of Complex Flooding Schemes For SUSPENSIONS Surfactant Polymer Based Enhanced Oil Recovery Sourav Dutta, Prabir Daripa KP1.146 Two-scale Evolution During Shear Reversal In Dense Suspensions Christopher Ness, Jin Sun PARTICLE-LADEN FLOWS TURBULENCE KP1.137 Gravity-Driven Particle-Laden Flow On An Incline Jesse Kreger, Sarah Burnett, Hanna Kristensen, Andrew Stocker , Jeffrey Wong, Li Wang, KP1.148 Analytical Damped-oscillator Models For Unsteady Atmospheric Andrea Bertozzi Boundary Layers Mostafa Momen, Elie Bou-Zeid

RAREFIED FLOWS KP1.149 Wake Characteristics Of A Porous Square Cylinder Formed By A Multi-scale Array Of Obstacles Daniel J. Wise, Pauline Avoustin, Martin Cassadour, Wernher Brevis KP1.139 Molecular Dynamics Analysis Of Reﬂected Gas Molecules On Self-assembled Monolayers Hideki Takeuchi KP1.150 Correlation Of Near-Wall Turbulence Structures With Heat Transfer In Ribbed-Pipe Flow Hyungsu Ahn, Changwoo Kang, Kyung-Soo REACTING FLOWS Yang, Doohyun Park

KP1.151 A Numerical And Experimental Study Of Anisotropic Turbulence Simulations Of Small-Scale Liquid Film Combustors Pavel KP1.141 In A Converging Annular Duct Junwoo Lim, James Kopriva, Gregory Popov, William Sirignano Laskowski, Sara Rostamimonjezi, Jonathon Slepski, Joshua Szczudlak, Ar- man Mirhashemi, Scott Morris KP1.142 Premixed Flame Response To Pressure Fluctuations Using An Implicit Solver With Detailed Chemistry Nadeem Malik KP1.152 Rank-Ordered Multifractal Analysis Of Probability Distributions In Fluid Turbulence Cheng-chin Wu, Tien Chang SEPARATED FLOWS KP1.153 Topographic Effect On The Inclination Angle Of Ramp Like Structures In Rough Wall, Turbulent Channel Flow Ankit Awasthi, William An- KP1.144 A Study Of Pulsed Blowing Effect On Flow Separation Over derson Flap Yankui Wang, Ping Zhou, Qian Li

86 Monday Afternoon, 23 November 2015

VORTEX DYNAMICS AND VORTEX FLOWS KP1.165 Stability Of Algebraically Unstable Dispersive Flows Kristina KP1.155 Unsteady Wake Of A Rotating Tire Jean-Eloi Lombard, Dave King, Paula Zaretzky, Steven Weinstein, Michael Cromer, Nathaniel Barlow Moxey, Hui Xu, Spencer Sherwin KP1.166 Janus Gel Fabrication Using Liquid Drop Coalescence And Limited Mixing In The Hele-Shaw Geometry Brittany Gonzalez, Alexis Moran, KP1.156 Simulating External Flow Using Vortex Method In Two- And Donghee Lee, Sangjin Ryu Three Dimensions Henrik Juul Spietz, Mads Mlholm Hejlesen, Jens Honore Walther, Allan Larsen KP1.167 Metastable States Of Rigid Bodies In A Flow. Ashwin Vaidya, Doralia Castillo, Matt Cristaldi, Bongjae Chung, Karina Soriano, Haiyan Su WAVES KP1.168 Mass Flow Rate Of Granular Material Flowing From Tilted Bins Jaime Klapp, Abraham Medina , Ayax Hernando Torres Victoria, Sa- KP1.158 Optimal Geometry Of An Axisymmetric Wave Energy lomon Peralta Lopez Converter Emma Edwards, Dick K. P. Yue KP1.169 Capillary Rise In A Tilted Taylor-Hauksbee Cell Abraham Med- KP1.159 Langmuir Mixing Effects On Global Climate: WAVEWATCH III In ina, Jaime Klapp, Ayax Hernando Torres Victoria, Salomon Peralta Lopez, CESM Qing Li, Adrean Webb, Baylor Fox-Kemper, Anthony Craig, Gokhan Aydet Jara Hernandez Danabasoglu, William Large, Mariana Vertenstein KP1.170 Development Of Schlieren Imaging For Analysis Of Supersonic KP1.160 Biological Derived Nanomotors In A “Domino Fashion” W.H. Complex Multi-stream Rectangular Nozzle Thomas Coleman, Matthew Berry, Maksoed Andrew Magstadt, Sivaram Gogineni , Mark Glauser

GENERAL FLUID DYNAMICS KP1.171 Reduction Of Aerodynamic Load Fluctuation On Wind Turbine Blades Through Active Flow Control John-Michael Velarde, Thomas Cole- man, Andrew Magstadt, Somil Aggarwal, Mark Glauser KP1.162 Separation Analysis In A High-Speed Rotating Cylinder For A Binary Gas Mixture Sahadev Pradhan, Viswanathan Kumaran KP1.172 Investigation Of Richtmyer-Meshkov Turbulent Mixing Using Front Tracking Method Dan She, Hyunkyung Lim, Pooja Rao, James Glimm KP1.163 Splash Dynamics Of Watercolors On Dry, Wet, And Cooled Surfaces David Baron, Ashwin Vaidya, Haiyan Su KP1.173 The Fluid Mechanics Of The Bible: Miracles Explainable By Christian Science? Amy Lang KP1.164 Premixed Combustion Model For Boron Clouds Mengze Wang, Wang Han, Zheng Chen

87 Monday Afternoon, 23 November 2015

KP2. Student Poster Session 15:20 –16:05, Room: Exhibit Hall D (Student Poster Display Area)

GENERAL FLUID DYNAMICS CFD

KP2.2 Large-eddy Simulation Of Zero-pressure-gradient Turbulent KP2.12 Equilibrium Configurations Of Flexible Fibers In A Flow Ryan Al- Boundary Layer With Solid Particle Suspension Mustafa Rahman, Ravi Sam- laire, Bogdan Nita, Ashwin Vaidya taney KP2.13 Design Of A Rapid Magnetic Microfluidic Mixer Matthew Ballard, KP2.3 Physical Modeling Of The Atmospheric Boundary Layer For Wind Drew Owen, Zachary Grant Mills, Srinivas Hanasoge, Peter Hesketh, Alexan- Energy And Wind Engineering Studies Gregory Taylor-Power, John Turner, der Alexeev Martin Wosnik KP2.14 Controlling Hazardous Releases While Protecting Passengers In KP2.4 Rayleigh-Benard´ Convection At High Prandtl Numbers In Circular Civil Infrastructure Systems Sara P. Rimer, Nikolaos D. Katopodes And Square Geometry Stephen R. Johnston, Enrico Fonda, Katepalli R. Sreenivasan, Devesh Ranjan KP2.15 Modifying Airfoils For Low Reynolds Flight Christopher Ong, Maria-Isabel Carnasciali KP2.5 The Negligible Role Of Thermal Inertia In The Marangoni Instability And Evaporation Instability Problems John Shrefler, Georg Dietze, Ranga KP2.16 Controlling Wavebreaking In A Viscous Fluid Conduit Dalton An- Narayanan derson, Michelle Maiden, Mark Hoefer

KP2.6 First Signs Of Flow Reversal Within A Separated Turbulent Boundary KP2.17 Modeling Droplet Motion On Liquid-Infused Surface Using Lattice Layer Jared Hammerton, Amy Lang Boltzmann Method Mingfei Zhao, Xin Yong

KP2.7 WITHDRAWN KP2.18 A Finite Volume Method For Fluctuating Hydrodynamics Of Simple Fluids Kiran Narayanan, Ravi Samtaney, Brian Moran

KP2.8 Application Of Piezoelectrics To Flapping-Wing MAVs Alex Wid- MICROFLOWS, DROPLETS AND BUBBLES strand, J. Paul Hubner

KP2.9 Ultra-high Speed Measurement Of A Laser-induced Underwater KP2.20 Modeling A Bouncing Droplet With A Lubrication Force Matthew Shock Wave Keisuke Hayasaka, Yoshiyuki Tagawa Cessna

KP2.10 Three-dimensional Blade Coating Of Complex Fluid Vachitar KP2.21 Partial Coalescence Of Liquid Cones With An Electriﬁed Singh, Emma Grimaldi, Alban Sauret , Emilie Dressaire Plate Madeline Zhang, Casey Bartlett, James Bird

88 Monday Afternoon, 23 November 2015

COMBUSTION KP2.22 Experimental Study On The Motion Of A Pair Of Bubbles In Quiescent Liquids Hiroaki Kusuno, Toshiyuki Sanada KP2.33 Nonlinear Dynamics Of Flame Front Instability Induced By KP2.23 Polymer And Protein Interfacial Competition In A Shell Production Radiative Heat Loss: Period-doubling Bifurcation And Chaos Hikaru Kinu- Process Emma Willard, Greg Randall gawa, Kazuhiro Ueda, Hiroshi Gotoda

KP2.24 A New Device For Generating Thin Jets Of Highly-viscous KP2.34 Characterization Of Degeneration Process In Thermo-acoustic Liquid Hajime Onuki, Yuto OI, Yoshiyuki Tagawa Combustion Instability Using Dynamical Systems Theory Kenta Hayashi, Hi- roshi Gotoda, Yuta Okuno, Shigeru Tachibana KP2.25 Modeling Electrospray Deposition Of Nanoparticle Inks Ao Li, Jef- ferson Fideles Da Silva, Xin Yong KP2.35 Stratiﬁcation Effects On Laminar Premixed-ﬂame Response To Mixture Perturbations Tiernan Casey, Jyh-Yuan Chen KP2.26 Experimental Research On The Capture Of Fine Particles In A High-voltage Electric Field Xing Jin, Shuiqing Li

KP2.27 Volume Of A Laser-induced Microjet Sennosuke Kawamoto, Keisuke Hayasaka, Yuto Noguchi, Yoshiyuki Tagawa

BIOFLUIDS

KP2.29 A Modiﬁcation Of The Levich Model To Flux At A Rotating Disk In The Presence Of Planktonic Bacteria Akhenaton-Andrew Jones, Cullen Buie

KP2.30 Intraventricular Flow Alterations Due To Dyssynchronous Wall Motion Audrey M. Pope, Hong Kuan Lai, Milad Samaee, Arvind Santhanakr- ishnan

KP2.31 Diastolic Filling In A Physical Model Of Obstructive Hypertrophic Cardiomyopathy Joseph Schovanec, Milad Samaee, Hong Kuan Lai, Arvind Santhanakrishnan

89 Monday Afternoon, 23 November 2015 Session 16:05 16:18 16:31 16:44 16:57 17:10 L1. Porous Media Flows: L1.01 Excess pore water pressure L1.02 A strategy for optimising well L1.03 A volume-balance model for L1.04 The permeability of L1.05 Momentum transfer at the L1.06 Topological phase transition in General due to ground surface erosion placement by combining historical well flow on porous media C. Malaga, poly-disperse porous media and interface between a porous medium 2D porous media flows N. Waisbord, Room: Auditorium S. Llewellyn Smith, S. Gagniere data with a geological model of a F. Mandujano, J. Becerra effective particle size B. Markicevic, and a pure fluid H. Hu, S. Zhang N. Stoop, V. Kantsler, J. Guasto, Chair: S. Llewellyn Smith, UCSD porous rock A. Evans, C. Caulfield, C. Preston, S. Osterroth, O. Iliev, J. Dunkel A. Woods M. Hurwitz L2. Particle-Laden Flows: L2.01 A simple stochastic quadrant L2.02 Neutral and inertial particle L2.03 Neutral and inertial particle L2.04 Settling of almost neutrally L2.05 Collision statistics of inertial L2.06 A Subgrid Particle Averaged Turbulence-Particle model for the transport and deposition acceleration in non isotropic turbulent acceleration in strained turbulence buoyant particles in homogeneous particles suspended in turbulent flows Reynolds Stress Equivalent (SPARSE) Interactions of particles in turbulent boundary flows A. Gylfason, M. van Hinsberg, C. Lee, A. Gylfason, P.Perlekar, isotropic turbulence M. van Hinsberg, of low dissipation rates S. Banerjee, model for Eulerian-Lagrangian Room: 101 layers M. Reeks, C. Jin, I. Potts C. Lee, F. Toschi F. Toschi H. Clercx, F. Toschi O. Ayala, L. Wang particle-laden-flow simulation Chair: M. Reeks, U. of Newcastle S. Davis, G. Jacobs L3. General Fluid Dynamics: L3.01 A potential mechanism for a L3.02 Existence and Smoothness of L3.03 Kaluza’s kinetic theory L3.04 Establishment of the L3.05 Does relativistic kinetic theory L3.06 Heat dissipation in relativistic Theory singular solution of the Euler Equations solution of Navier-Stokes equation on description of the classical Hall effect in thermoelectric effect in Kaluza’s MHD predict a viscous analog of the single charged fluids Room: 102 M. Brenner, S. Hormoz, A. Pumir R3 O. Vukovic a single component dilute gas within through the kinetic theory non-equilibrium generalization of A. Garcia-Perciante, Chair: M. Brenner, Harvard U. the Chapman-Enskog approximation A. Sagaceta-Mejia, Tolman’s law? J. Mondragon-Suarez, A. Sandoval-Villalbazo, A. Sandoval-Villalbazo, A. Garcia-Perciante, D. Brun-Battistini, D. Brun-Battistini A. Garcia-Perciante, A. Sagaceta-Mejia A. Sandoval-Villalbazo A. Sandoval-Villalbazo, A. Garcia-Perciante L4. Stratified Boundary L4.01 Spots and stripes: Isolating L4.02 Coupling of Interfacial Mixing L4.03 Instability onset of the L4.04 DNS of stably stratified Ekman L4.05 A Multilevel Kinematic L4.06 High Reynolds number effects Layers the building blocks of intermittent Events in Stratified Taylor–Couette boundary layer on a rotating cylinder in flow with surface cooling S. Gohari, Simulation for the Stratified Surface on a localized stratified turbulent flow Room: 103 stratified turbulence in plane Couette Flow J. Partridge, A. Le Bihan, a stratified fluid J. Flor, L. Hirschberg, S. Sarkar Layer A. Ghate, S. Lele Q. Zhou, P.Diamessis Chair: J. R. Taylor, U. of Cambridge flow J. Taylor, E. Deusebio C. Caulfield, S. Dalziel, P.Augier B. Oostenrijk, G. van Heijst L5. Jets III: General L5.01 Jet mixing in a down-scaled L5.02 Stretched Inertial Jets L5.03 On the local acceleration and L5.04 Experimental study of global L5.05 High fidelity simulation of liquid L5.06 Strain Rates and Scalar Room: 104 model of a rotary kiln S. Larsson, E. Ghabache, A. Antkowiak, T. Seon, flow trajectory of jet flows from circular oscillations in low density rectangular jet in an excited crossflow X. Li, Dissipation Rates in Gaseous Chair: S. Larsson, Lulea U. of S. Johansson E. Villermaux and semi-circular pipes via 3D particle jets R.N,V.B.R M. Soteriou Transverse Jets T. Shoji, Technology, Sweden tracking velocimetry J. Kim, L. Gevorkyan, A. Besnard, A. Liberzon, L. Chamorro A. Karagozian L6. CFD: Applications I L6.01 How does network design L6.02 Defining boundary conditions L6.03 Numerical Study of Wind L6.04 SimVascular 2.0: an Integrated L6.05 Flapping dynamics of an L6.06 Simulation of a Proposed Room: 105 constrain optimal operation of for RANS predictions of urban flows Shielding Impacts on Water Quality in Open Source Pipeline for Image-Based inverted flag in a uniform flow J. Ryu, Three-Dimensional Fluid-Structure Chair: C. Rycroft, Harvard U. intermittent water supply? A. Lieb, using mesoscale simulations a Tropical Urban Lake H. Miao, Cardiovascular Modeling and S. Park, B. Kim, H. Sung Interaction Validation Case J. Pitt, J. Wilkening, C. Rycroft C. Garcia Sanchez, C. Gorle, J. van Z. Xing, L. Chua Simulation H. Lan, J. Merkow, C. Elsworth Beeck A. Updegrove, D. Schiavazzi, N. Wilson, S. Shadden, A. Marsden L7. CFD: Immersed Boundary L7.01 A fast lattice Green’s function L7.02 Computational Analysis of L7.03 A cut-cell immersed boundary L7.04 An Adaptive and Implicit L7.05 A high-order Immersed L7.06 Implicit solution of Method method for solving viscous Flow Field Inside Coral Colony technique for fire dynamics simulation Immersed Boundary Method for Boundary method for solving fluid Navier-Stokes equations on staggered Room: 107 incompressible flows on unbounded M. Hossain, A. Staples M. Vanella, R. McDermott, G. Forney Cardiovascular Device Modeling problems on arbitrary smooth domains curvilinear grids using a Newton-Krylov Chair: T. Colonius, Caltech domains S. Liska, T. Colonius A. Bhalla, B. Griffith D. Stein, R. Guy, B. Thomases method with a novel analytical Jacobian. I. Borazjani, H. Asgharzadeh L8. CFD: High Order and L8.01 Combined L8.02 A high-order solver for L8.03 High-order boundary layer L8.04 The direct Discontinuous L8.05 A New Reconstructed L8.06 Boundary treatment for the Discontinuous Galerkin Immersed-Boundary / High-Order unsteady incompressible analysis using B-splines on hybrid Galerkin method for the compressible Discontinuous Galerkin Method for Recovery discontinuous Galerkin Methods Finite Difference Methods For Navier-Stokes equations using the flux unstructured meshes A. Zhang, Navier-Stokes equations on arbitrary Compressible Flows on Unstructured method with application to the Room: 108 Simulations of Acoustic Scattering reconstruction method on unstructured O. Sahni grids X. Yang, J. Cheng, T. Liu, H. Luo Grids J. Cheng, T. Liu, H. Luo Navier-Stokes equations P.Johnson, Chair: W. Arias-Ramirez, W. Arias-Ramirez, B. Olson, W. Wolf grids with implicit dual time stepping E. Johnsen UNICAMP-Univ de Campinas C. Cox, C. Liang, M. Plesniak L9. CFD: Large Eddy L9.01 LES-Modeling of a Partially L9.02 Scale-truncating relaxation L9.03 Unsteady RANS and Large L9.04 LES of propelled bodies in L9.05 Large eddy simulation on L9.06 Large eddy simulation on Simulation I Premixed Flame using a Deconvolution models for large eddy simulations Eddy simulations of multiphase diesel crashback P.Kumar, K. Mahesh unstructured meshes using Lagrangian deforming unstructured meshes using Room: 109 Turbulence Closure Q. Wang, H. Wu, R. Verstappen, M. Silvis injection J. Philipp, M. Green, subgrid-scale model for complex Lagrangian subgrid-scale model Chair: M. Ihme, Stanford U. M. Ihme B. Akih-Kumgeh turbulent flows S. Tran, O. Sahni R. Cummings, O. Sahni, S. Tran L10. Granular Flows: General L10.01 Dynamics of a Tapped L10.02 Spreading granular material L10.03 Granular media in L10.04 DEM simulations of shear L10.05 Novel Discrete Element L10.06 Stability and Structure of Room: 110 Granular Column A. Rosato, with a blade E. Dressaire, V. Singh, transformation: dynamics and structure flow of spherical particles mixed with Method for 3D non-spherical granular Star-Shape Granules Y. Zhao, Chair: A. Rosato, NJIT D. Blackmore, L. Zuo, W. Hao, E. Grimaldi, A. Sauret A. Merceron, P.Jop, A. Sauret long granular rods O. Baran particles. L. Seelen, J. Padding, J. Bares, M. Zheng, K. Dierichs, D. Horntrop H. Kuipers A. Menges, R. Behringer

90 Monday Afternoon, 23 November 2015 Session 16:05 16:18 16:31 16:44 16:57 17:10 L11. Convection and L11.01 Re-orientations of the large L11.02 Azimuthal diffusion of the L11.03 Fluctuations of entropy L11.04 Quantifying Rayleigh-Benard L11.05 Forced Convection from L11.06 An analysis of spatially Buoyancy-Driven Flows: scale flow in turbulent convection with large-scale circulation of turbulent production rate in turbulent thermal convection via a symmetry approach Square Cylinder Placed Near a Wall varying turbulent Prandtl number in a Turbulence cubic confinement N. Foroozani, Rayleight-Benard´ convection X. He, convection F. Zonta, S. Chibbaro H. Zou, X. Chen, Y. Bao, F. Hussain, Using Variable Resolution Turbulence flow with local acceleration and Room: 111 J. Niemela, V. Armenio, K. Sreenivasan D. van Gils, E. Bodenschatz, G. Ahlers Z. She Modelling P.Ranjan, A. Dewan deceleration E. Jung, W. Lee, Chair: N. Foroozani, The Abdus Salam S. Kang, G. Iaccarino ICTP L12. Wind Turbines: Wind L12.01 Enhancing kinetic energy L12.02 Effect of topography on wind L12.03 Coupling the Weather L12.04 Optimal coordinated control L12.05 Low-order representations of L12.06 A simplified model for Farms II entrainment in LES of large wind farms turbine power and load fluctuations Research and Forecasting (WRF) of energy extraction in LES of wind a wind turbine array boundary layer via average kinetic energy flux within large Room: 200 by unconventional forcing at the turbine C. Santoni, U. Ciri, S. Leonardi model and Large Eddy Simulations farms: effect of turbine arrangement double POD N. Hamilton, M. Tutkun, wind turbine arrays C. Markfort, Chair: C. VerHulst, United States rotors C. VerHulst, C. Meneveau with Actuator Disk Model: predictions patterns J. Meyers, W. Munters, R. Cal W. Zhang, F. Porte-Agel Military Academy of wind farm power production J. Goit E. Garcia Cartagena, C. Santoni, U. Ciri, G. Iungo, S. Leonardi L13. Wind Turbines: Wakes L13.01 Modelling wind turbine wakes L13.02 Similarity considerations for a L13.03 Dynamic Mode L13.04 Optimal control of wind farms L13.05 Investigation on the L13.06 Studying Wake Deflection of Room: 201 using the turbulent entrainment turbulent axisymmetric wake with Decomposition Analysis of Wind for power tracking using simplified near-wake flow structures of a Wind Turbines in Yaw using Drag Disk Chair: P. Luzzatto-Fegiz, UC Santa hypothesis P.Luzzatto-Fegiz rotation subjected to a boundary layer Turbine Wakes V. Thomas, one-dimensional convection-diffusion utility-scale wind turbine using Experiments and Actuator Disk Barbara flow M. Wosnik C. VerHulst, C. Meneveau, D. Gayme equation C. Shapiro, P.Bauweraerts, snowflake based flow visualization Modeling in LES M. Howland, J. Meyers, C. Meneveau, D. Gayme T. Dasari , M. Toloui, M. Guala, J. Hong J. Bossuyt, J. Meyers, C. Meneveau L14. Aerodynamics: L14.01 Flag flapping in a channel L14.02 Fluidic harvesters in free L14.03 Experimental investigation of L14.04 Self-sustained oscillations of L14.05 Streamwise vortex-induced L14.06 One- versus Fluid-Structure Interaction II S. Alben, K. Shoele, R. Mittal, S. Jha, stream turbulence undergoing the effects of high-frequency a sinusoidally-deformed plate and galloping-like vibrations of a two-degree-of-freedom vortex-induced Room: 202 A. Glezer flow-induced vibrations or flutter electroactive morphing on the D. Muriel, E. Cowen rotating cylinder R. Bourguet, D. Lo vibrations of a circular cylinder at Chair: B. Karami, George Washington J. Gomez, V. Azadeh Ranjbar, shear-layer J. Scheller, K. Rizzo, Jacono Re=3900 S. Gsell, R. Bourguet, U. O. Goushcha, Y. Andreopoulos, G. Jodin, E. Duhayon, J. Rouchon, M. Braza N. Elvin J. Hunt, M. Braza L15. Flow Control: Vortices L15.01 Vorticity dynamics in the L15.02 PIV investigation of the L15.03 Pressure fluctuations and L15.04 The effect of butterfly-scale L15.05 Flow around new wind fence L15.06 Energetically efficient and Turbulence interaction of a single bubble with a intake flow in a parallel valves diesel time scales in turbulent channel flow inspired patterning on leading-edge with multi-scale fractal structure in an Proportional-Integral control of flow Room: 203 vortex ring R. Govardhan, N. Jha engine cylinder P.Alfredsson, K. Septham, J. Morrison, S. Diwan vortex growth J. Wilroy, A. Lang atmospheric boundary layer past a circular cylinder P.Kesavadas, Chair: R. Govardhan, IIS J. Rabault, J. Vernet, B. Lindgren S. McClure, S. Lee, W. Zhang V. Anand, B. Patnaik, A. Shaiju L16. Aerodynamics: L16.01 Experimental Investigation of L16.02 Experimental Investigation of L16.03 Analysis of the aerodynamic L16.04 Experimental investigation of L16.05 Investigation into the L16.06 The Direct Numerical Unsteady Aerodynamics I Dynamic Stall on a NACA0012 Airfoil Dynamic Stall on a Finite Span NACA interaction between two plunging a large aspect ratio flat plate Recovery of a Translating Flat Plate Simulation of the Deflected Wake Room: 204 Undergoing Sinusoidal Pitching 0012 Wing W. Spellman, D. Bohl plates in tandem at low Reynolds encountering a steam-wise gust Exposed to a Streamwise Acceleration Phenomenon around a Plunging Chair: D. Bohl, Clarkson U. D. Bohl, M. Green number for maximum propulsive K. Mulleners, P.Mancini, A. Jones P.Mancini, K. Mulleners, A. Jones NACA0012 Airfoil at Low Reynolds efficiency J. Ortega-Casanova, Numbers M. Sahin, S. Yucel, M. Unal R. Fernandez-Feria L17. Flow Instability: L17.01 Analytical expressions for the L17.02 Richtmyer–Meshkov mixing: L17.03 Interactions of Blast Waves L17.04 Evolution of the air/SF6 L17.05 Initial condition spectral L17.06 shock driven instability of a Richtmyer-Meshkov III asymptotic velocities in the linear Modeling and simulation of with Perturbed Interfaces M. Henry de turbulent mixing zone for different content effects on shock-driven multi-phase particle-gas system Room: 205 Richtmyer-Meshkov instability when a experiments N. Denissen, S. Kurien Frahan, E. Johnsen lengths of SF6: shock tube turbulent mixing. F. Grinstein, J. McFarland, W. Black, J. Dahal, Chair: J. Gustavo Wouchuk, shock is reflected. F. Cobos, visualizations and 3D simulations. N. Nelson B. Morgan Universidad de Castilla-La Mancha J. Wouchuk J. Haas, J. Griffond, D. Souffland, G. Bouzgarrou, Y. Bury, S. Jamme L18. Flow Instability: L18.01 Reactive thin film flows over L18.02 Thin-film coating of L18.03 Dynamics and stability of thin L18.04 Faraday instability in L18.05 Coherent-structure theory L18.06 Numerical and experimental Interfacial and Thin Films III spinning discs K. Zhao, A. Wray, surfactant-laden liquids on rotating films and drops subjected to magnetic electrostatically forced liquid-air and bound-state formation in electrified study of rotating jet flows S. Shin, Room: 206 J. Yang, O. Matar cylinders W. Li, S. Kumar fields D. Conroy, A. Wray, O. Matar systems K. Ward, F. Zoueshtiagh, falling films T. Lin, D. Tseluiko, Z. Che, L. Kahouadji, O. Matar, Chair: R. Narayanan, U. of Florida S. Matsumoto, R. Narayanan M. Blyth, S. Kalliadasis J. Chergui, D. Juric L19. Vortex Dynamics: Vortex L19.01 Linear Stability of Hill’s L19.02 An experimental study on the L19.03 The effect of entrainment on L19.04 The effect of aspect ratio on L19.05 Interaction of Vortex Ring L19.06 The dynamics of a vortex Rings Vortex to Axisymmetric Perturbations formation of negatively-buoyant vortex starting vortices G. Rosi, D. Rival vortex pinch-off over laminar and with Cutting Plate M. Musta ring crossing at density interface Room: 207 B. Protas rings J. Wu, G. Hunt turbulent regimes J. Fernando, R. Zenit, J. Dabiri Chair: B. Protas, McMaster U. D. Rival L20. Turbulence: L20.01 Lagrangian Stretching and L20.02 Alignment of Disks with L20.03 Distribution and velocity of L20.04 Relative diffusion of a pair of L20.05 Simulations of decaying L20.06 Inertial Range Scaling of Particle-Laden Flows the Dynamics of Anisotropic Particles Lagrangian Stretching in Turbulence inertial particles in a turbulent channel inertial particles in the inertial turbulence laden with particles: how Rotation Rates of Particles in Room: 208 in Turbulence G. Voth, C. Hunt, C. Hunt, L. Tierney, S. Kramel, G. Voth flow F. Coletti, K. Fong, A. Nemes, sub-range of turbulence K. Enohata, are statistics affected by two-way Turbulence B. Cole, S. Kramel, Chair: G. Voth, Wesleyan U. L. Tierney, S. Kramel N. Sloan K. Morishita, T. Ishihara coupling numerical scheme? G. Voth J. Horwitz, A. Mani

91 Monday Afternoon, 23 November 2015 Session 16:05 16:18 16:31 16:44 16:57 17:10 L21. Turbulence: L21.01 Log-law and compressibility L21.02 Turbulent Eddies in a L21.03 Development of turbulent L21.04 Identifying Coherent L21.05 Hydro-acoustic instabilities in L21.06 Geometric invariance of Compressible Boundary effects in transcritical turbulent Compressible Jet in Crossflow variable density mixing in jets with Structures in a 3-Stream Supersonic compressible turbulent channel flow compressible turbulent boundary layers Layers and Jets boundary layers at supercritical Measured using Pulse-Burst PIV coflow J. Charonko, K. Prestridge Jet Flow using Time-Resolved with porous walls C. Scalo, I. Rahbari W. Bi, B. Wu, Z. She, F. Hussain Room: 209 pressure S. Kawai S. Beresh, J. Wagner, J. Henfling, Schlieren Imaging A. Tenney, Chair: S. Beresh, Sandia National R. Spillers, B. Pruett T. Coleman, M. Berry, A. Magstadt, Laboratories S. Gogineni, B. Kiel L22. Turbulent Boundary L22.01 Thin shear layers in L22.02 General mechanisms of thin L22.03 Passive scalars in turbulent L22.04 Pressure gradient influence L22.05 Space filling attributes of the L22.06 Wall scaling laws for Layers IV homogeneous high Reynolds number layers in high Reynolds number channel flow at high Reynolds number in turbulent boundary layers turbulent motions responsible for the turbulent BL before and after the Room: 210 turbulence and in turbulent boundary turbulent flows J. Hunt, T. Ishihara, S. Pirozzoli, M. Bernardini, P.Orlandi N. Reuther, C. Kaehler generation of the Reynolds stress Reynolds shear stress maxima Chair: J. Hunt, U. College London layers T. Ishihara, K. Morishita, K. Morishita C. Morrill-Winter, J. Klewicki, J. Philip, N. Afzal, A. seena, B. Afzal J. Hunt I. Marusic L23. Biofluids: L23.01 Assessment Of Coronary L23.02 Wall shear stress manifolds L23.03 One-dimensional model for L23.04 Mathematical modelling of L23.05 Modelling Brain Temperature L23.06 A dimensionless parameter Cardiovascular Disease I: Artery Aneurysms Using Transluminal and near wall flow topology in the intracranial pulse morphological blood-brain barrier failure and edema and Perfusion for Cerebral Cooling for classifying hemodynamics in Aneurysms Attenuation Gradient And aneurysms A. Arzani, A. Gambaruto, analysis during hyperventilation and S. Waters, G. Lang, D. Vella, A. Goriely S. Blowers, P.Valluri, I. Marshall, intracranial. H. Asgharzadeh, Room: 300 Computational Modeling In Kawasaki G. Chen, S. Shadden CO2 inhalation tests J. Ryu, X. Hu, P.Andrews, B. Harris, M. Thrippleton I. Borazjani Chair: N. Gutierrez, Stanford U. Disease Patients N. Grande S. Shadden Gutierrez, et al. L24. Biofluids: L24.01 Fluid Dynamics of the L24.02 Computational 3D L24.03 Calibration of Blood Flow in L24.04 Time-resolved X-ray PIV L24.05 Effects of a protein L24.06 Particle tracking velocimetry Cardiovascular Fluid Generation and Transmission of Heart fluid-structure interaction for the aortic Simulations via Multi-fidelity Bayesian measurements of hemodynamic glycocalyx in the hemodynamics of using echocardiographic data resolves Dynamics II Sounds: (2): Direct Simulation using a valve H. Luo, Y. Chen, W. Sun Optimization P.Perdikaris, information of real pulsatile blood flows small blood vessels Y. Dimakopoulos, flow in the left ventricle K. Sampath, Room: 302 Coupled Hemo-Elastodynamic Method G. Karniadakis H. Park, E. Yeom, S. Lee G. Delidakis, J. Tsamopoulos T. Abd, R. George, J. Katz Chair: J. Seo, Johns Hopkins U. J. Seo, H. Bakhshaee, C. Zhu, R. Mittal L25. Biofluids: Cell L25.01 Emergent properties in L25.02 Chaotic mixing by L25.03 Preferential Transport Theory L25.04 Probing the Biophysics L25.05 Optimizing an undulating L25.06 Self-assembled controllable Interactions and Transport experiments with synthetic microswimmers moving on for Beta-Amyloid Clearance from the behind Flow-induced Amyloid magnetic microswimmer for cargo microswimmers G. Grosjean, Room: 304 micro-swimmers J. Palacci quasiperiodic orbits M. Jalali, Brain M. Coloma, D. Schaffer , Crystallization S. McBride, S. Sanford, towing Y. Or, E. Gutman G. Lagubeau, A. Darras, G. Lumay, Chair: J. Palacci, UCSD A. Khoshnood, M. Alam P.Chiarot , P.Huang J. Lopez, A. Hirsa M. Hubert, N. Vandewalle L26. Biofluids: Complex L26.01 A numerical investigation into L26.02 Running and tumbling with E. L26.03 Modular microrobot for L26.04 Characterization of L26.05 New rheometer geometry to L26.06 Role of elasticity on the Fluids: Locomotion and the effects of fluid rheology and stroke coli in polymeric solutions swimming in heterogeneous undulatory locomotion in granular characterize delicate biological fluids Rheological Response of the Uterus Rheology kinematics on swimming alga cells in A. Patteson, A. Gopinath, P.Arratia environments U. Cheang, media Z. Peng, O. Pak, G. Elfring in-situ. K. Connelly, E. Young, Tissue N. KHORASANI, Room: 306 complex fluids C. Li, R. Guy, M. Meshkati, H. Fu, M. Kim J. Hubschman, J. Eldredge, P.PIROOZRAM Chair: C. Li, UC Davis B. Thomases P.Kavehpour L27. Biofluids: Insect Flight: L27.01 Initial Observations of Fruit L27.02 Flight stability analysis under L27.03 Sparse Sensing of L27.04 Wing-pitch modulation in L27.05 Uncontrolled Stability in L27.06 Flapping of Insectile Wings Dynamics and Control Fly;s Flight with its b1 Motor Neuron changes in insect morphology Aerodynamic Loads on Insect Wings maneuvering fruit flies is explained by Freely Flying Insects J. Melfi Jr., Y. Huang, E. Kanso Room: 308 Altered Z. Wang, J. Melfi Jr R. Noest, Z. Wang K. Manohar, S. Brunton, J. Kutz an interplay between aerodynamics Z. Wang Chair: Z. Jane Wang, Cornell U. and a torsional spring T. Beatus, I. Cohen L28. Surface Tension Effects: L28.01 Oil capture from a water L28.02 Keeping warm with fur in cold L28.03 Simulation of drop L28.04 Drinking in Space: The L28.05 Bow and Oblique Shock L28.06 Blowing a liquid curtain Interfacial Phenomena surface by a falling sphere L. Smolka, water: entrainment of air in hairy tipstreaming in a flow focusing Capillary Beverage Experiment Formation in Soap Film I. Kim, H. Lhuissier, P.Brunet, S. Dorbolo Room: 309 C. McLaughlin, T. Witelski surfaces A. Nasto, M. Regli, P.Brun, geometry with a hybrid numerical A. Wollman, M. Weislogel, R. Jenson, S. Mandre Chair: L. Smolka, Bucknell U. C. Clanet, A. Hosoi method M. Booty, M. Siegel, J. Graf, D. Pettit, S. Kelly, K. Lindgren, J. Wrobel, Q. Wang K. Yui L29. Geophysical Fluid L29.01 Turning Ocean Mixing L29.02 Internal wave generation by L29.03 Experiments with mixing in L29.04 Transient triadic instability of L29.05 Impact of a mean current on L29.06 Determining Pressure and Dynamics: Internal Wave Upside Down R. Ferrari, A. Mashayek, tidal flow over random topography stratified flow over a topographic ridge internal gravity wave a new track to internal tide energy dissipation at the Velocity Fields from Experimental Dynamics J. Campin, T. McDougall, M. Nikurashin J. Zhao, L. Zhang, H. Swinney R. Griffiths, Y. Dossmann, M. Gamble turbulence in the lee of a topography critical latitude O. Richet, J. Chomaz, Schlieren Data F. Lee, M. Allshouse, Room: 310 Rosevear, A. McC. Hogg, G. Hughes, J. Chomaz, G. Lerisson C. Muller P.Morrison, H. Swinney Chair: R. Ferrari, MIT M. Copeland L30. Geophysical Fluid L30.01 Instability of Stratified Shear L30.02 Baroclinic Critical Layers and L30.03 Spontaneous layer formation L30.04 Energy and water vapor L30.05 Layering from anticyclonic L30.06 Turbulent mixing due to Dynamics: Stratified Flow: Intermittency and Length Scales the Zombie Vortex Instability (ZVI) in dynamics in stratified Taylor–Couette transport in a turbulent stratified vortices in a rotating stratified medium Holmboe wave instability in stratified Turbulence R. Ecke, P.Odier Stratified, Rotating Shear Flows: flow C. Leclercq, J. Partridge, environment L. Gallana, f. de santi, with combined salinity and temperature shear flows at high Reynolds numbers Room: 311 Where They Form and Why M. Wang, P.Augier, C. Caulfield, P.Linden, m. iovieno, r. richiardone, D. Tordella effects J. Sommeria, M. Burin, H. Salehipour, C. Caulfield, W. Peltier Chair: C. Caulfield, U. of Cambridge P.Huerre, C. Jiang, S. Pei, M. Rui, S. Dalziel S. Viboud P.Marcus

92 Monday Afternoon, 23 November 2015 Session 16:05 16:18 16:31 16:44 16:57 17:10 L31. Waves: Nonlinear Waves L31.01 Observation of resonant L31.02 Role of the basin boundary L31.03 Experiments on linear waves L31.04 Non local resonances in L31.05 Faraday waves on L31.06 Propagation of nonlinear and Turbulence interactions among gravity surface conditions in gravity wave turbulence propagating over a turbulent weak turbulence of gravity-capillary time-dependent domains M. Ghadiri, waves over submerged step: wave Room: 312 waves E. Falcon, F. Bonnefoy, M. Berhanu, L. Deike, B. Miquel, background P.Gutierrez, S. Aumaitre, water waves N. Mordant, Q. Aubourg R. Krechetnikov separation and subharmonic Chair: E. Falcon, CNRS, Paris, France F. Haudin, G. Michel, B. Semin, P.Gutierrez, T. Jamin, B. Semin, C. Falcon generation E. Monsalve, A. Maurel, T. Humbert, S. Aumaitre, M. Berhanu E. Falcon, F. Bonnefoy V. Pagneux, P.Petitjeans L32. Experiments: General L32.01 Rotating parallel ray L32.02 Wire-cooling based synthetic L32.03 Large Field of View PIV L32.04 The effect of freestream L32.05 The 2d-LCA as an alternative L32.06 Accidental Turbulent Methods omni-directional integration for experiment to evaluate multi-sensor Measurements of Air Entrainment by turbulence on the wake of a 2D square to x-wires J. Puczylowski, M. Holling,¨ Discharge Rate Estimation from Room: 313 instantaneous pressure reconstruction hotwire performance S. Zimmerman, SLS SMAT Water Sound Suppression prism D. Lander, C. Letchford, J. Peinke Videos E. Ibarra, F. Shaffer, ˙ Savas¸ Chair: X. Liu, San Diego State U. from measured pressure gradient C. Morrill-Winter, J. Klewicki System M. Stegmeir, S. Pothos, M. Amitay, G. Kopp X. Liu, S. Siddle-Mitchell D. Bissell L33. Experiments: PIV L33.01 Improvements on Digital L33.02 Volumetric L33.03 Effect of random errors in L33.04 Volumetric Real-time Wide L33.05 Characterization of Flow L33.06 Instantaneous, Techniques Inline Holographic PIV for Turbulent Echocardiographic Particle Image planar PIV data on pressure estimation Field Microscopy with Tunable Acoustic Bench Engine Testing A. Voris, phase-averaged, and time-averaged Room: Ballroom A Flow Measurement J. Hong, Velocimetry (V-Echo-PIV) in vortex dominated flows. J. McClure, Lens: A New Tool for MicroPIV L. Riley, P.Puzinauskas pressure from particle image Chair: J. Hong, U. of Minnesota M. Toloui, K. Mallery A. Falahatpisheh, A. Kheradvar S. Yarusevych T. Chen, C. Arnold velocimetry R. de Kat L35. Drops: Pinch-off and L35.01 Binary Raindrop Collisions L35.02 Coalescence between two L35.03 Scaling vs simulations in the L35.04 Oscillations of a liquid bridge L35.05 Dynamics of drop L35.06 Partial coalescence of soap Coalescence F. Testik, K. Rahman convex liquid surfaces F. Yang, head-on collision of viscous drops with resulting from the coalescence of two coalescence on under-liquid substrates bubbles D. Harris, G. Pucci, J. Bush Room: Ballroom B Z. Jian, E. Li, S. Thoroddsen insoluble surfactants C. Vannozzi droplets V. Chireux, D. Fabre, F. Risso, S. Mitra, S. Mitra Chair: F. Testik, UT San Antonio P.Tordjeman, S. Cazin L36. Bubbles: Cavitation and L36.01 A Numerical Investigation of L36.02 A cavitation bubble bursts L36.03 The Dynamics of Partial L36.04 Cavitation structures formed L36.05 Bubble coalescence at any L36.06 Coalescence of Bubbles in a Coalescence a Gaseous Jet Interacting with a near a particle S. Poulain, Cavities and Effect of during the collision of a sphere with an Reynolds number J. Munro, Newtonian Fluid C. Anthony, S. Thete, Room: Ballroom C Supercavity M. Kinzel, M. Moeny, G. Guenoun, S. Gart, W. Crowe, Non-Condensable Gas S. Makiharju, ultra-viscous wetted surface C. Anthony, O. Basaran, J. Lister J. Munro, J. Lister, M. Harris, Chair: M. Kinzel, Penn. State U. M. Krane, I. Kirschner S. Jung H. Ganesh, S. Ceccio M. Mansoor, J. Marston, J. Uddin, O. Basaran S. Thoroddsen L37. Minisymposium: L37.01 Bioeffects due to acoustic droplet vaporization J. Bull L37.02 Design and Control of Functional Microbubbles for Medical L37.03 Stretching cells and delivering drugs with bubbles C. Ohl, F. Li, Cavitation in Soft Tissue Applications of Ultrasound S. Takagi, T. Osaki, T. Ariyoshi, T. Azuma, C. Chon U, Y. Gao, C. Xu Room: Back Bay A M. Ichiyanagi, I. Kinefuchi Chair: E. Johnsen, U. of Michigan L38. Microscale Flows: L38.01 Generation of Monodisperse L38.02 Planar Microfluidic Drop L38.03 Droplet velocity in a L38.04 Interaction between L38.05 Nonlinear Dynamics of L38.06 The mysterious droplet birth Drops, Bubbles Liquid Droplets in a Microfluidic Chip Splitting and Merging S. Collignon, micrometric Hele-Shaw Cell microfluidic droplets in a Hele-Shaw Droplets in a Hele-Shaw Cell: in a microfluidic cross junction S. van Room: Back Bay B Using a High-Speed Gaseous J. Friend, L. Yeo B. Reichert, A. Huerre, O. Theodoly, cell I. Sarig, Y. Starosvetsky, A. Gat Short-Lived Solitary Waves in a 1D Loo, T. Gilet Chair: C. Hidrovo, Northeastern U. Microflow P.Tirandazi, C. Hidrovo I. Cantat, M. Jullien Lattice A. Gat, D. Meimukhin, Y. Starosvetsky L39. Microscale Flows: L39.01 Transition to collective motion L39.02 Phase transition of active L39.03 Electro-Orientation of L39.04 Magnetic self-assembly of L39.05 Quantum dots deposition in a L39.06 Oscillatory flow and induced Particles, Orientation, Active and mixing in suspensions of rotors due to passive particles K. Yeo, Boron-Nitride Nanotubes in Aqueous microparticle clusters in an aqueous capillary tube Y. Kong, F. Boulogne, steady streaming flow around two Matter and Self Assembly micro-rotors P.Vlahovska, E. Lushi E. Lushi, P.Vlahovska Solution S. Cetindag, S. Kim, two-phase microfluidic cross-flow H. Kim, J. Nunes, J. Feng, H. Stone spheres D. Fabre, J. Jalal, J. Leontini, Room: Back Bay C B. Tiwari, S. Bhandari, D. Zhang, N. Abbasi, S. Jones, B. Moon, S. Tsai R. Manasseh Chair: E. Lushi, Brown U. Y. Yap, J. Shan L40. Microscale Flows: L40.01 Corn-on-a-chip: Mini-channel L40.02 Flow fraction in charged L40.03 Deformability-based capsule L40.04 Multiphase ferrofluid flows for L40.05 Electrohydrodynamic L40.06 Magnetophoretic control of Microfluidic Devices I Device for Corn Root Growth K. Kreis, rectangular microchannel to optimally sorting A. Le Goff, N. Munier, P.Maire, micro-particle sorting R. Zhou, manipulation of particles adsorbed on water droplets in bulk ferrofluid Room: Back Bay D S. Ryu design hydrodynamic filtration chip for F. Edwards-Levy, A. Salsac C. Wang the surface of a drop E. Amah, G. Katsikis, A. Brant, M. Prakash Chair: S. Ryu, U. of Nebraska-Lincoln cell sorting M. Chun, S. Jeong, J. Kim, K. Shah, I. Fischer, P.Singh T. Lee L41. Russell Donnelly L41.01 Russell Donnelly at Chicago L41.02 An Instability in Stratified L41.03 Expanding Participation in L41.04 Russ Donnelly’s research at L41.05 Turbulent convection at high L41.06 Czech cryogenic fluid Minisymposium L. Kadanoff Taylor-Couette Flow H. Swinney Fluid Dynamics Research R. Tagg the University of Oregon J. Niemela Rayleigh numbers G. Ahlers dynamics inspired by Russ Donnelly Room: Constitution A L. Skrbek Chair: K. Sreenivasan, New York U.

93 Monday Afternoon, 23 November 2015 Session 17:23 17:36 17:49 18:02 18:15 18:28 L1. Porous Media Flows: L1.07 Application of particle image L1.08 Viscous fingering with partial L1.09 Modeling and simulation of L1.10 On the stabilizing role of L1.11 Evaporation and Settling in an General velocimetry to study the transition from miscible fluids X. Fu, multiphase multicomponent species diffusion in chemical enhanced Idealized Porous Medium Room: Auditorium steady to turbulent flow in a randomly L. Cueto-Felgueroso, R. Juanes multiphysics porous media flows in the oil recovery P.Daripa, C. Gin D. Anderson, M. Gerhart Chair: S. Llewellyn Smith, UCSD packed porous media R. Ziazi context of chemical enhanced oil recovery S. Dutta, P.Daripa L2. Particle-Laden Flows: L2.07 Accelerated Stochastic Vortex L2.08 Euler-Euler anisotropic L2.09 A high-order Legendre-WENO L2.10 A novel particle SGS model L2.11 Dynamics of kinetic energy Turbulence-Particle Structure Method for Transport of Gaussian mesoscale direct numerical kernel density function method for based on differential filter for LES of transfer in homogeneous bidisperse Interactions Interacting Particles in Turbulent Flow simulation of homogeneous and modeling disperse flows T. Smith, particle-laden turbulent flows G. Park, gas-solid flow using particle-resolved Room: 101 J. Marshall, K. Sala, F. Dizaji wall-bounded cluster-induce C. Pantano J. Urzay, P.Moin direct numerical simulation Chair: M. Reeks, U. of Newcastle gas-particle turbulence B. Kong, M. Mehrabadi, S. Subramaniam H. Feng, J. Capecelatro, O. Desjardins, R. Fox L3. General Fluid Dynamics: L3.07 Dynamical density functional L3.08 Solutions to the Navier-Stokes L3.09 Experimental Confirmation of L3.10 On a difficulty in eigenfunction L3.11 Description of the L3.12 The influence of inertia on the Theory theory for arbitrary-shape colloidal Equation in the complex plane a Causal, Covariant, Relativistic expansion solutions for the start-up of non-equilibrium extension of Tolman’s efflux velocity: From Daniel Bernoulli to Room: 102 fluids including inertia and J. Mestel, F. Boshier Theory of Dissipative Fluid Flow fluid flow I. Christov law in terms of kinetic theory: a contemporary theory A. Malcherek Chair: M. Brenner, Harvard U. hydrodynamic interactions D. Scofield, P.Huq suppression of the acceleration term M. Duran-Olivencia, B. Goddard, and the use of the geodesic in the S. Kalliadasis treatment of Boltzmann’s equation D. Brun-Battistini, et al. L4. Stratified Boundary L4.07 Internal length scales in L4.08 Laboratory experiments of an L4.09 Characteristics of the residual L4.10 Energy transfer in stably L4.11 LES of oscillating boundary L4.12 Turbulent flows over a Layers rotating and stratified Boussinesq flows atmospheric/oceanic turbulence stress tensor as a function of length stratified turbulence Y. Kimura, layers under neutrally stratified and modeled steep topography in a Room: 103 S. Kurien, X. Zhai, P.Yeung A. Thacker, O. Eiff scale in simulations of stably stratified J. Herring unstably stratified conditions M. Juha, thermally-stratified boundary layer. ´ Chair: J. R. Taylor, U. of Cambridge turbulence F. de Braganca Alves, J. Zhang, A. Tejada-Martinez W. Zhang, C. Markfort, F. Porte-Agel S. de Bruyn Kops L5. Jets III: General L5.07 Rapid mixing of viscous liquids L5.08 High-Fidelity Simulations of L5.09 Numerical and experimental L5.10 Effects of Annular and L5.11 Advanced Supersonic Nozzle L5.12 Experimental observations of Room: 104 by electrical coiling T. Kong, J. Li, Electrically-Charged Atomizing study of the dynamics of a superheated Rectangular Confinement on the Concepts: Experimental Flow a complex, supersonic nozzle concept Chair: S. Larsson, Lulea U. of Z. Liu, L. Wang, H. Shum Diesel-Type Jets B. Gaillard, jet A. Sinha, S. Gopalakrishnan, Hydrodynamics of Reacting, Swirling Visualization Results Paired With LES A. Magstadt, M. Berry, M. Glauser, Technology, Sweden M. Owkes, B. Van Poppel S. Balasubramanian Jets B. Emerson, T. Lieuwen M. Berry, A. Magstadt, C. Stack, C. Ruscher, S. Gogineni, B. Kiel D. Gaitonde, M. Glauser L6. CFD: Applications I L6.07 Numerical simulation of L6.08 Numerical modelling of L6.09 A New Simulation Framework L6.10 Understanding vapour plume L6.11 CFD modeling of a Room: 105 artificial and natural rough surfaces microdroplet self-propelled jumping on for the Natural Convection in Practical structure in indoor environments for the laboratory-scale underwater explosion Chair: C. Rycroft, Harvard U. R. Andersson, P.Andreasson, micro-textured surface S. Attarzadeh, Products C. Li, T. Makoto detection of explosives T. Foat created by a spark gap source G. Hellstrom,¨ A. Andersson A. Dolatabadi, K. Kim J. Esplin, M. Kinzel, B. Kim, R. Culver L7. CFD: Immersed Boundary L7.07 An efficient immersed L7.08 A discrete-forcing immersed L7.09 Numerical simulation of L7.10 Level set immersed boundary L7.11 A 2D domain decomposition, a L7.12 Detached eddy simulation of Method boundary projection method for flow boundary method with a semi-implicit Shallow water wave propagation method for gas-liquid-solid interactions customized immersed boundary high-Reynolds-number turbulent flows Room: 107 around moving bodies W. Huang, predictor for weakly-coupled around arrays of emerged bodies S. Wang, E. Balaras method and a zest of numerical using the immersed boundary method Chair: T. Colonius, Caltech R. Li, C. Xie, C. Xu fluid-structure interaction W. Kim, A. Zainali, R. Weiss dissipation: a successful cocktail to M. Bernardini, S. Pirozzoli, P.Orlandi I. Lee, H. Choi tackle turbulence on HPC systems S. Laizet, E. Lamballais, J. Vassilicos L8. CFD: High Order and L8.07 Quantifying numerical L8.08 Fully-Implicit Reconstructed L8.09 A new hybrid RANS/LES L8.10 Implicit LES using the L8.11 An Adaptive De-Aliasing L8.12 Adaptive entropy-constrained Discontinuous Galerkin dissipation rate for discontinuous Discontinuous Galerkin Method for Stiff technique based on Reynolds stress Embedded Discontinuous Galerkin Strategy for Discontinuous Galerkin discontinuous Galerkin method for Methods Galerkin methods J. Domaradzki, Multiphysics Problems R. Nourgaliev reconstruction M. Nini, A. Abba, method J. Moore methods A. Beck, D. Flad, H. Frank, simulation of turbulent flows Y. L v, Room: 108 G. Castiglioni, F. Schranner, N. Krais, M. Germano, M. Restelli C. Munz M. Ihme Chair: W. Arias-Ramirez, U. de A. Beck, C. Munz Campinas L9. CFD: Large Eddy L9.07 Numerical investigation of the L9.08 Implicit Large Eddy Simulation L9.09 Large-eddy simulations of a L9.10 Numerical Analysis of the L9.11 New approaches to the design 6 Simulation I convective heat transfer coefficient with of a wingtip vortex at Rec =1.2x10 propelled submarine model A. Posa, Acoustic Field of Tip-Clearance Flow optimization of hydrofoils P.Beyhaghi, Room: 109 longitudinal pitch variation in a J. Lombard, D. Moxey, S. Sherwin E. Balaras S. Alavi Moghadam G. Meneghello, T. Bewley Chair: M. Ihme, Stanford U. staggered tube bank A. Alfandi, et al. L10. Granular Flows: General L10.07 Simulating flow and L10.08 Cohesion of wet grains at L10.09 Electrification of Shaken L10.10 Flowing layer kinematics for L10.11 Models for grains and gas L10.12 Sound of silo’s: An Room: 110 segregation of cylindrical particles high liquid content P.Raux, Granular Media O. Kara, F. Nordsiek, constant dimension flowing layers with ejection dynamics from a silo Y. Zhou, experimental investigation into sound Chair: A. Rosato, NJIT Y. Zhao, P.Umbanhowar, R. Lueptow L. Bocquet, A. Biance D. Lathrop variable erosion velocities P.Aussillous, P.Ruyer emissions from granular flows in a A. Spitulnik, N. Pohlman vertical tube E. Porte, M. Masen, N. Vriend, A. de Boer 94 Monday Afternoon, 23 November 2015 Session 17:23 17:36 17:49 18:02 18:15 18:28 L11. Convection and L11.07 Effects of Natural Convection L11.08 Thermal Convection From a L11.09 Large-eddy simulation of L11.10 Energy spectrum of L11.11 A priori evaluation of Buoyancy-Driven Flows: on the Near-Wall Turbulence in Minimal Flow Unit to a Wide Fluid bubble-driven plume in stably stratified stably-stratified and convective subgrid-scale models using DNS of Turbulence Unstably Stratified Turbulent Channel Layer C. Hamman, P.Moin flow. D. Yang, B. Chen, S. Socolofsky, turbulent flows M. Verma, A. Kumar stratified turbulence S. Khani, Room: 111 Flows S. Sid, V. Terrapon, Y. Dubief M. Chamecki, C. Meneveau F. Port-Agel Chair: N. Foroozani, The Abdus Salam ICTP L12. Wind Turbines: Wind L12.07 A simple and complete L12.08 Physical Model Study of the L12.09 Assessing the Impacts of L12.10 Properties of wind turbine L12.11 Outer layer effects in L12.12 Influence of Coriolis forces Farms II two-interface model for spatially Fully Developed Wind Turbine Array Low Level Jets over Wind Turbines wakes under various atmospheric wind-farm boundary layers: Coriolis on the structure and evolution of Room: 200 developing flow in rigid and flexible Boundary Layer in the UNH Flow W. Gutierrez Rodriguez, G. Araya, stability conditions S. Xie, C. Archer forces and boundary layer height wind-turbine wakes M. Abkar, Chair: C. VerHulst, United States canopies S. Sadri, P.Luzzatto-Fegiz Physics Facility J. Turner, M. Wosnik A. Ruiz-Columbie, M. Tutkun, D. Allaerts, J. Meyers F. Port-Agel Military Academy L. Castillo L13. Wind Turbines: Wakes L13.07 A Stereo PIV Study on the L13.08 Effect of nacelle on wake L13.09 Dynamic Gaussian wake L13.10 An Immersed Boundary - L13.11 Wind tunnel measurements Room: 201 Wake Characteristics behind meandering in a laboratory scale wind meandering in a restricted nonlinear Adaptive Mesh Refinement solver of the power output variability and Chair: P. Luzzatto-Fegiz, UC Santa Dual-Rotor Wind Turbines H. Hu, turbine using LES D. Foti, X. Yang, simulation framework J. Bretheim, (IB-AMR) for high fidelity fully resolved unsteady loading in a micro wind farm Barbara Z. Wang, W. Tian M. Guala, F. Sotiropoulos F. Porte-Agel, D. Gayme, C. Meneveau wind turbine simulations D. Angelidis, model J. Bossuyt, M. Howland, F. Sotiropoulos C. Meneveau, J. Meyers L14. Aerodynamics: L14.07 Flow-Induced Vibration of a L14.08 Generalized “thick” strip L14.09 Large-eddy simulations of a L14.10 Aeroelastic Flutter Behavior L14.11 Flapping Instability of Two L14.12 Small-Scale Vortical Motions Fluid-Structure Interaction II Reed in a Channel: Effect of Reed modelling for vortex-induced vibration flexible cylinder in axial flow of Cantilever within a Nozzle-Diffuser Tandem Flexible Foils in Uniform Axial induced by Aeroelastically Fluttering Room: 202 Shape on Convective Heat Transfer of long flexible cylinders Y. Bao, B. Karami, E. Balaras, P.Bardet Geometry L. Tosi, C. Tim, S. Sherrit, Flow P.Gurugubelli, R. Jaiman, Reed for Enhanced Heat Transfer in a Chair: B. Karami, George Washington with Application to Electronic Cooling R. Palocios, S. Sherwin H. Lee C. Chua Rectangular Channel S. Jha, U. A. Rips, K. Shoele, A. Glezer, R. Mittal P.Hidalgo, A. Glezer L15. Flow Control: Vortices L15.07 Identification of secondary L15.08 Feedback Control of L15.09 A statistical approach L15.10 Characterization of base L15.11 On vortex pairing in several L15.12 Interaction of Suction and and Turbulence instabilities in the near wake of a blunt Bistability in the Turbulent Wake of an characterizing the effectiveness of flow pressure fluctuations in a blunt trailing free shear layer containing high Pulsed Blowing with a Laminar Room: 203 trailing edge profiled body Ahmed Body R. Brackston, A. Wynn, control on a dynamically pitching airfoil edge wake with three-dimensional Reynolds number flows M. Samimy, Boundary Layer A. Seifert, L. Marom Chair: R. Govardhan, IIS R. Cruikshank, W. Zhao, P.Lavoie J. Garcia de la Cruz, G. Rigas, K. Taylor, M. Amitay forcing H. Clark, P.Lavoie M. Crawley J. Morrison L16. Aerodynamics: L16.07 Wing Rock Motion and its L16.08 Unsteady Aerodynamics of L16.09 Aerodynamics of Unsteady L16.10 On leading-edge vortex L16.11 Effect of Trailing Edge Shape L16.12 Formation and Development Unsteady Aerodynamics I Flow Mechanism over a Chined-Body “Roll-Tacking” in Olympic Class Sailing Kinetics C. Keil, R. Schutt, attachment in rotary systems: Incident on the Unsteady Aerodynamics of of the Dynamic Stall Vortex on a Wing Room: 204 Configuration Y. Wang, Q. Li, W. Shi Sailboats R. Schutt, C. Williamson J. Borshoff, P.Alley, M. de Zegher, flow effects A. Medina, A. Jones Reverse Flow Dynamic Stall A. Lind, with Leading Edge Tubercles Chair: D. Bohl, Clarkson U. C. Williamson A. Jones J. Hrynuk, D. Bohl L17. Flow Instability: L17.07 Freeze-out of the linear L17.08 Effect of pressure field L17.09 Influence of interference of L17.10 Direct Numerical Simulation L17.11 Measurements of the L17.12 Experimental Investigation of Richtmyer-Meshkov III Richtmyer-Meshkov instability fluctuations on the nonlinear evolution perturbation waves on the dynamics of of Richtmeyer-Meshkov Instability turbulent development of Velocity Evolution in the Room: 205 J. Wouchuk, F.Cobos Campos, T. Sano of Richtmyer-Meshkov coherent Richtmyer-Meshkov flows A. Pandian, Using pWAMR T. Grenga, S. Paolucci Richtmyer-Meshkov instability Richtmyer-Meshkov Instability Chair: J. Gustavo Wouchuk, structure A. Bhowmick, S. Abarzhi S. Abarzhi V. Krivets, E. Sewell, Q. Xu, J. Jacobs D. Reese, J. Oakley, D. Rothamer, Universidad de Castilla-La Mancha R. Bonazza L18. Flow Instability: L18.07 Instability and pattern L18.08 Feedback control of falling L18.09 Accurate two-equation L18.10 Self-similarity of solitary L18.11 Parallelised direct numerical Interfacial and Thin Films III formation in electrifield liquid layers liquid films A. Thompson, S. Gomes, modelling of falling film flows pulses on falling liquid films F. Denner, simulation of three-dimensional wavy Room: 206 Q. Wang, D. Papageorgiou D. Tseluiko, G. Pavliotis, C. Ruyer-Quil A. Charogiannis, M. Pradas, falling films D. Juric, J. Chergui, Chair: R. Narayanan, U. of Florida D. Papageorgiou C. Markides, B. van Wachem, L. Kahouadji, O. Matar, S. Shin S. Kalliadasis L19. Vortex Dynamics: Vortex L19.07 High-Speed 3D Visualization L19.08 Interaction of multiple L19.09 Force due to vortex ring L19.10 Impact of a vortex ring on a L19.11 Evolution of an elliptic vortex L19.12 The analytical model for Rings of the Head-on Collision of Vortex co-axial co-rotating vortex rings impact D. Andrus, R. Jefferies, wall with a circular cutout J. Hu, ring in a viscous fluid J. Lou, vortex ring pinch-off process based on Room: 207 Rings R. McKeown, S. Rubinstein S. Qin, H. Liu, X. Liu, Y. Xiang M. Krane S. Peterson M. Cheng, T. Lim the energy extremum principle Chair: B. Protas, McMaster U. Y. Xiang, H. Liu, S. Qin, F. Wang L20. Turbulence: L20.07 Settling of inertial particles L20.08 Wake-driven dynamics of L20.09 Effects of ambient turbulence L20.10 Dynamics of Small L20.11 Single particle L20.12 Single particle Particle-Laden Flows through quiescent, weakly turbulent finite-sized buoyant spheres in on a particle plume A. Lai, J. Er, Inertia-Free Spheroidal Particles in a measurements of material line measurements of material line Room: 208 and strongly turbulent air A. Petersen, turbulence v. mathai, v. prakash, A. Law, E. Adams Turbulent Channel Flow stretching in turbulence: Experiments stretching in turbulence: Numerics Chair: G. Voth, Wesleyan U. D. Carter, L. Baker, F. Coletti j. Brons, C. Sun, D. Lohse N. Challabotla, L. Zhao, H. Andersson S. Kramel, S. Tympel, F. Toschi, G. Voth S. Tympel, S. Kramel, F. Toschi, G. Voth

95 Monday Afternoon, 23 November 2015 Session 17:23 17:36 17:49 18:02 18:15 18:28 L21. Turbulence: L21.07 A symmetry based approach L21.08 Effect of Pulsed Plasma Jets L21.09 Acoustic Radiation from a L21.10 Investigation of L21.11 MOVED TO D4.010 n. none L21.12 Investigation of corner shock Compressible Boundary to quantifying the compressible on the Recovering Boundary Layer Mach 14 Turbulent Boundary layer Shock-Induced Laminar Separation boundary layer interactions to Layers and Jets turbulent boundary layer B. Wu, W. Bi, Downstream of a Reflected Shock C. Zhang, L. Duan, M. Choudhari Bubble in a Supersonic Boundary understand inlet unstart Room: 209 Z. She, F. Hussain Interaction B. Greene, N. Clemens, Layer J. Sivasubramanian, H. Fasel M. Funderburk Chair: S. Beresh, Sandia National P.Magari, D. Micka, M. Ueckermann Laboratories L22. Turbulent Boundary L22.07 Arrangement of L22.08 Assessment of fluctuating L22.09 DNS of turbulence around a L22.10 DNS of self-similar adverse L22.11 Structural features of the L22.12 Vortex packet recovery in a 1 Layers IV scale-interaction and large-scale pressure gradient using acceleration wing section at moderate Reynolds pressure gradient turbulent boundary kx− region of turbulent pipe flow at turbulent boundary layer perturbed by Room: 210 modulation in high Reynolds number spectra in near wall flows D. Cadel, number P.Schlatter, S. Hosseini, layer at incipient separation J. Soria, Reτ =3008 J. Ahn, H. Sung an array of cylinders Y. Tan, Chair: J. Hunt, U. College London turbulent boundary layers W. Baars, K. Lowe R. Vinuesa, A. Hanifi, D. Henningson V. Kitsios, C. Atkinson, J. Sillero, E. Longmire N. Hutchins, I. Marusic G. Borrell, A. Gungar, J. Jimenez L23. Biofluids: L23.07 Numerical simulations of L23.08 Vortex Imprints at the Wall, L23.09 Fluid-Structure Interaction L23.10 A Thrombus Generation L23.11 Coupled simulation of Cardiovascular Disease I: post-surgical flow and thrombosis in But Not in the Bulk, Distinguish Modeling of Intracranial Aneurysm Model Applied to Aneurysms Treated vascular growth and remodeling, Aneurysms basilar artery aneurysms Ruptured from Unruptured Intracranial Hemodynamics: Effects of Different with Shape Memory Polymer Foam hemodynamics and stress-mediated Room: 300 S. Seshadhri, M. Lawton, L. Boussel, Aneurysms N. Varble, H. Meng Assumptions H. Rajabzadeh Oghaz, and Metal Coils J. Horn, J. Ortega, mechanotransduction J. Wu, Chair: N. Gutierrez, Stanford U. D. Saloner, V. Rayz R. Damiano , H. Meng J. Hartman, D. Maitland S. Shadden L24. Biofluids: L24.07 Data Assimilation and L24.08 Decoding Hemodynamics of L24.09 Multiple equilibrium states for L24.10 Fluid-Structure interaction L24.11 Fluid Dynamics of the L24.12 A universal number for wave Cardiovascular Fluid Propagation of Uncertainty in Large Vessels via Dispersion of blood flow in microvascular networks modeling in deformable porous arteries Generation and Transmission of Heart reflection optimization of the Dynamics II Multiscale Cardiovascular Simulation Contrast Agent in Cardiac Computed H. Pollock-Muskin, C. Diehl, R. Zakerzadeh, P.Zunino Sounds: (1) A Cardiothoracic Phantom mammalian cardiovascular system. Room: 302 D. Schiavazzi, A. Marsden Tomography P.Eslami, J. Seo, T. Abd, N. Mohamed, N. Karst, J. Geddes, Based Study of Aortic Stenosis N. Pahlevan, M. Gharib Chair: J. Seo, Johns Hopkins U. R. George, A. Lardo, M. Chen, B. Storey Murmurs H. Bakhshaee, et al. R. Mittal L25. Biofluids: Cell L25.07 Viscous constraints on L25.08 Magnetic microswimmers: L25.09 Low Re swimming in Interactions and Transport squirmer microswimmers approaching Controlling particle approach through suspensions J. Puente-Velazquez, Room: 304 suspended particles M. Jabbarzadeh, magnetic and hydrodynamic interaction F. Godinez, R. Zenit Chair: J. Palacci, UCSD H. Fu F. Meshkati, U. Cheang, M. Kim, H. Fu L26. Biofluids: Complex L26.07 Two-Point Particle Tracking L26.08 Local aggregation L26.09 Spatially and temporally L26.10 The Effects of Hemodynamic L26.11 Non-Newtonian fluid flow L26.12 A new look on blood shear Fluids: Locomotion and Microrheology of Nematic Complex characteristics of microscale blood resolved quantification of endothelial Shear Stress on Stemness of over a heterogeneously slippery thinning M. Abkarian, L. Lanotte, Rheology Fluids M. Gomez-Gonzalez, J. del flows E. Kaliviotis, J. Sherwood, cell modification in response to shear Acute Myelogenous Leukemia (AML) surface A. Haase, J. Wood, J. Fromental, S. Mendez, D. Fedosov, Room: 306 Alamo J. Dusting, S. Balabani stress L. Lambert, I. Pipinos, A. Raddatz, U. Triantafillu, Y. Kim L. Sprakel, R. Lammertink G. Gompper, J. Mauer, V. Claveria Chair: C. Li, UC Davis T. Baxter, R. Leighton, T. Wei L27. Biofluids: Insect Flight: L27.07 Kinematics and L27.08 Beetle wings are inflatable L27.09 Comparative study of solid L27.10 Aerodynamics of a beetle in L27.11 Interaction of the elytra and L27.12 Numerical and Experimental Dynamics and Control Aerodynamics of Backward Flying origami R. Chen, J. Ren, S. Ge, D. Hu and bristled wings in flapping flight of take-off flights B. Lee, H. Park, S. Kim hind wing of a rhinoceros beetle Investigation of Flow Structures During Room: 308 Dragonflies A. Bode-Oke, tiny insects C. Terrill, (Trypoxylus dichotomus) during a Insect Flight C. Badrya, J. Baeder Chair: Z. Jane Wang, Cornell U. S. Zeyghami, H. Dong A. Santhanakrishnan take-off mode S. Oh, S. Oh, H. Choi, B. Lee, H. Park, S. Kim L28. Surface Tension Effects: L28.07 Dynamic wetting failure in L28.08 Dewetting of microliquid film L28.09 Dynamic contact angle at the L28.10 A fluid-dynamical model for L28.11 Influence of L28.12 Towards unravelling Interfacial Phenomena surfactant solutions C. Liu, E. Vandre, via vapor-mediated Marangoni effect advancing contact line on an the “anti-surfactant” behaviour of salt Marangoni-driven flows on A + B C surfactant transport M. Sellier, → Room: 309 M. Carvalho, S. Kumar S. Kim, H. Kim accelerating vertical rod T. Ito, solutions S. Wilson, J. Conn, reaction fronts L. Rongy, R. Tiani S. Panda Chair: L. Smolka, Bucknell U. K. Yokoi, K. Katoh, T. Wakimoto, D. Pritchard, B. Duffy, P.Halling, Y. Yamamoto, Y. Tsuji K. Sefiane L29. Geophysical Fluid L29.07 Internal Wave Generation by L29.08 Experiments on topographies L29.09 Transient Growth in Internal L29.10 Impulse response of an L29.11 Instability and mixing of L29.12 Internal Wave Apparatus for Dynamics: Internal Wave Tide-Topography Interactions in the lacking tidal conversion L. Maas, Solitary Waves K. Helfrich, internal gravity vawe and the absolute stratified shear layers forced by internal Copepod Behavior Assays S. Jung, Dynamics Presence of a Vertically Sheared A. Paci, B. Yuan P.Passaggia, B. White or convective nature of the triadic wave strain A. Kaminski, J. Taylor K. Haas, D. Webster Room: 310 Background Current K. Lamb, instability G. Lerisson, J. Chomaz, Chair: R. Ferrari, MIT M. Dunphy S. Ortiz L30. Geophysical Fluid L30.07 Mixing efficiency L30.08 Biases in Thorpe scale L30.09 An analysis of diapycnal L30.10 The Efficiency of Deep and L30.11 Plankton dynamics in L30.12 An affordable and accurate Dynamics: Stratified dependence on overturning and estimates of turbulence dissipation mixing efficiency in stably stratified Abyssal Ocean Turbulent Mixing thermally-stratified free-surface conductivity probe for density Turbulence turbulence intensity in stratified shear A. Scotti turbulent flows A. Garanaik, A. Mashayek, C. Caulfield, R. Ferrari, turbulence S. Lovecchio, A. Soldati measurements in stratified flows Room: 311 layers C. Caulfield, A. Mashayek, S. Venayagamoorthy, D. Stretch M. Nikurashin, R. Peltier M. Carminati, P.Luzzatto-Fegiz Chair: C. Caulfield, U. of Cambridge W. Peltier

96 Monday Afternoon, 23 November 2015 Session 17:23 17:36 17:49 18:02 18:15 18:28 L31. Waves: Nonlinear Waves L31.07 Vortex kinematics and L31.08 Experimental observation of L31.09 On the structure of L31.10 Interactions of steep and L31.11 Effect of progressive surface L31.12 Rogue waves for a system of and Turbulence dynamics in deep-water breaking steady inertial wave turbulence in deep turbulence dissipation rate under breaking waves with winds and solid waves on near-surface transport of coupled derivative nonlinear Room: 312 waves K. Melville, N. Pizzo, L. Deike rotating flows E. Yarom, E. Sharon unsteady breaking waves M. Derakhti, bodies Z. Yang, L. Shen scalars by turbulent wind L. Shen, Schrodinger¨ equations H. Chan, Chair: E. Falcon, CNRS, Paris, France J. Kirby D. Yang B. Malomed, K. Chow L32. Experiments: General L32.07 Thermal conductivity L32.08 Toward the measurement of L32.09 Optical Properties of L32.10 Transient laminar opposing L32.11 A Discretized Method for Methods measurements using hot-wires at small differentiable high resolution profile Inductively RF Discharge for Argon (Ar) mixed convection in a symmetrically Deriving Vortex Impulse from Room: 313 Peclet number G. Arwatz, Y. Fan, data in wall turbulence J. Elsnab, M. Tanisli, N. Sahin, S. Mertadam heated duct with a plane symmetric Volumetric Datasets N. Buckman, Chair: X. Liu, San Diego State U. M. Hultmark J. Monty, C. White, M. Koochesfahani, sudden contraction-expansion: L. Mendelson, A. Techet J. Klewicki Buoyancy an inclination effects L. MartInez-Su´ astegui,´ E. Barreto, C. Trevino˜ L33. Experiments: PIV L33.07 Error propagation in L33.08 PIV-based estimation of L33.09 Combined PIV, PLIF, and L33.10 DeepPIV: Particle image L33.11 A method to resolve low L33.12 Image-processing method for Techniques PIV-based Poisson pressure unsteady loads on a flat plate at high laser focal displacement velocimetry measurements using velocities in a PIV system near-wall PIV measurement around a Room: Ballroom A calculations Z. Pan, J. Whitehead, angle of attack using momentum measurements (LFDM) to quantify deep-sea, remotely operated vehicles S. Bharadwaj, M. Alam moving interface L. Jia, Y. Zhu, Chair: J. Hong, U. of Minnesota S. Thomson, T. Truscott equation approaches A. Guissart, gas-liquid interfacial shear stress K. Katija, A. Sherman, D. Graves, H. Yuan, C. Lee L. Bernal, G. Dimitriadis, V. Terrapon I. McCarthy, D. Hann, D. Klimov, C. Kecy, B. Robison B. Hewakandamby, B. Azzopardi L35. Drops: Pinch-off and L35.07 Coalescence of L35.08 In-flight surface tension and L35.09 Assessment of Droplet L35.10 Stability and motion of liquid L35.11 Surfactant effect on drop L35.12 Small drops from large Coalescence surfactant-laden drops in liquids viscosity measurements of inkjet Collision Models in Pulsed Sprays bridges between non-parallel surfaces coalescence and film drainage nozzles A. Castrejon-Pita, A. Said Room: Ballroom B E. Nowak, M. Simmons printed droplets H. Staat, A. van der G. Brereton, F. Roshanghalb M. Ataei, H. Chen, T. Tang, A. Amirfazli hydrodynamics W. Weheliye, Mohamed, J. Castrejon-Pita, Chair: F. Testik, UT San Antonio Bos, M. van den Berg, H. Reinten, M. Chinaud, V. Voulgaropoulos, M. Herrada H. Wijshoff, M. Versluis, D. Lohse P.Angeli L36. Bubbles: Cavitation and L36.07 Bubble coalescence in a L36.08 Numerical simulations of the L36.09 Measurements of planing L36.10 Experimental study on the L36.11 High temperatures produced L36.12 Investigation of cavitating Coalescence power-law fluid P.Kamat, S. Thete, translation of collapsing bubbles forces and cavity shapes on cylindrical onset of cavitation induced by an by bubble collapse near a rigid wall flows by X-ray and optical imaging Room: Ballroom C O. Basaran E. Igualada-Villodre, D. Fuster, afterbodies A. Hellum, J. Belden, impact A. Kiyama, C. Kurihara, S. Alahyari Beig, B. Aboulhasanzadeh, O. Coutier-Delgosha, S. Fuzier, Chair: M. Kinzel, Penn. State U. J. Rodriguez-Rodriguez D. Beal, S. Huyer, C. Henoch, Y. Tagawa E. Johnsen I. Khlifa, K. Fezzaa D. Hrubes L37. Minisymposium: L37.04 Bubble-cell interactions with laser-activated polymeric L37.05 Microcavitation as a Neuronal Damage Mechanism in Blast L37.06 Bubble dynamics in high-amplitude ultrasound therapies Cavitation in Soft Tissue microcapsules M. Versluis, G. Lajoinie, T. van Rooij, I. Skachkov, Traumatic Brain Injury C. Franck, J. Estrada E. Johnsen, L. Mancia Room: Back Bay A K. Kooiman, N. de Jong Chair: E. Johnsen, U. of Michigan L38. Microscale Flows: L38.07 Flow regimes in a T-mixer L38.08 Droplet migration toward and L38.09 Droplet Trajectory Control L38.10 Droplets in microchannels: L38.11 Counter-current L38.12 Numerical Simulations of Drops, Bubbles operating with a binary mixture away from wall in micro-flow Y. Chen, Using Light-Induced Thermocapillary dynamical properties of the lubrication thermocapilllary migration of bubbles in Droplet Dynamics in PEM Fuel Cell Room: Back Bay B S. Camarri, L. Siconolfi, C. Galletti, S. Wang, W. Yeh Effects in a Microchannel J. Won, film A. Huerre, O. Theodoly, microchannels using self-rewetting Microchannels E. Cauble, M. Owkes Chair: C. Hidrovo, Northeastern U. M. Salvetti S. Kang, S. Song A. Leshansky, M. Valignat, I. Cantat, liquids R. Nazareth, P.Saenz, M. Jullien P.Valluri, K. Sefiane L39. Microscale Flows: L39.07 Particle trajectory L39.08 Dynamic self-assembly of L39.09 Forming particle chains in L39.10 Quantifying colloidal particle L39.11 Hydrodynamic alignment and L39.12 Effect of flow on Janus rods Particles, Orientation, Active entanglement in microfluidic channels microscale rotors and swimmers inertial microfluidic devices K. Hood, bands and their formation in combined assembly of nano-fibrillated cellulose in organization in polymer blends Matter and Self Assembly A. Marin, M. Rossi, C. Kahler¨ M. Davies Wykes, J. Palacci, T. Adachi, L. Liu, M. Roper electroosmotic and Poiseuille flow the laminar extensional flow: Effects of S. Khani, S. Jamali, A. Boromand, Room: Back Bay C L. Ristroph, Y. Liu, X. Zhong, J. Zhang, A. Yee, N. Cevheri, M. Yoda solidifying agents N. Mittal, F. Lundell, J. Maia Chair: E. Lushi, Brown U. M. Ward, M. Shelley D. Soderberg L40. Microscale Flows: L40.07 Contactless, high-throughput L40.08 A modular and lowcost L40.09 Hydrodynamics and Mass L40.10 Valve-less microdispenser L40.11 Design of an Efficient L40.12 Fabrication and Microfluidic Devices I determination of electrical conductivity 3D-printed microfluidic device with Transfer Characteristics of Laminar M. Tan, W. Xin, W. Lee Turbulent Micro-Mixer for Protein characterization of vertically aligned Room: Back Bay D of one-dimensional nanomaterials by assembly of capillaries for droplet Bioelectrochemical Systems, a Folding Experiments V. Inguva, carbon-nanotube membranes Chair: S. Ryu, U. of Nebraska-Lincoln solution-based electro-orientation mass production A. Aguirre-Pablo, Summary W. Cheng, R. Sadr B. Perot R. Castellano, C. Akin, M. Purri, spectroscopy C. Akin, J. Yi, J. Zhang, E. Li, S. Thoroddsen J. Shan, S. Kim, F. Fornasiero L. Feldman, J. Shan, C. Durand, S. Hus, A. Li, M. Filler L41. Russell Donnelly L41.07 Quantised vortices in L41.08 Visualization in quantum L41.09 Direct and inverse energy L41.10 Russell Donnelly’s last L41.11 Decaying turbulence at the L41.12 Granular materials and their Minisymposium polariton lattices N. Berloff fluids D. Lathrop transfers in superfluid turbulence legacy: Pursuing grid turbulence in laminar-turbulence transition in a pipe connection to Russell Donnelly 4 Room: Constitution A C. Barenghi superfluid He G. Ihas, J. Yang N. Goldenfeld, T. Hsieh, H. Shih B. Behringer Chair: K. Sreenivasan, New York U.

97 98

Tuesday, 24 November 2015 Sessions M – R Tuesday, 24 November 2015 Sessions M – R

99 Tuesday Morning, 24 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 M1. Industrial Applications III M1.01 Thermal striping in nuclear M1.02 Planar Flow Casting: M1.03 WITHDRAWN . M1.04 Squeeze flow with capillary M1.05 A comparative study of SU-8 M1.06 Fluid Mechanics Optimising Room: Auditorium reactors: POD analysis of LES Crystalline and Non-crystalline Ribbon effect in Nano Imprint Lithography (NIL) and wax based paper-fluidic device Organic Synthesis E. Leivadarou, Chair: E. Merzari, Argonne National simulations and experiment Formation J. Mattson, E. Theisen, process B. Nunna, S. Zhuang, E. Lee with respect to channel geometry S. Dalziel Laboratory E. Merzari, A. Alvarez, O. Marin, P.Steen J. Lee, A. Jafry, H. Lim A. Obabko, S. Lomperski, S. Aithal M2. Flames: Non-premixed M2.01 Scaling of velocity and mixture M2.02 A model for the M2.03 Hydrodynamic and chemical M2.04 In-Situ Analysis of Gradient M2.05 Local Velocity Field M2.06 Effects of local extinction on Flames fraction fields in laminar counterflow effective/turbulent Lewis numbers in effects of hydrogen dilution on soot Trajectories in a Reactive Turbulent Measurements towards Understanding mixture fraction and scalar dissipation Room: 101 configurations F. Bisetti, G. Scribano turbulent non-premixed flames evolution in turbulent nonpremixed bluff Shear Flow F. Dietzsch, M. Gauding, Flame Stabilization of Turbulent statistics in turbulent nonpremixed Chair: F. Bisetti, King Abdullah U. of N. Burali, G. Blanquart body ethylene flames S. Deng, C. Hasse Non-premixed Jet Flames in Vitiated flames A. Attili, F. Bisetti Science and Technology M. Mueller, Q. Chan, N. Qamar, Coflow A. Ramachandran, A. Mothe, B. Dally, Z. Alwahabi, G. Nathan V. Narayanaswamy M3. Suspensions: General M3.01 Mobility of membrane-trapped M3.02 Eulerian flow modeling of M3.03 Migration of rigid particles in M3.04 Elliptical Particle Clustering in M3.05 General and Rigorous M3.06 Gravity-Driven Particle-Laden Room: 102 particles H. Masoud, H. Stone suspensions containing interacting two-phase shear flow of viscoelastic Cellular Flows S. Atis, T. Sapsis, Framework for Particle Adsorption on Flow on an Incline S. Burnett, Chair: T. Sapsis, MIT nano-particles: application to colloidal fluids P.Anderson, N. Jaensson, T. Peacock Fluid Interfaces M. Schmuck, J. Kreger, H. Kristensen, A. Stocker, film drying. I. Gergianakis, M. Hulsen S. Kalliadasis J. Wong, L. Wang, A. Bertozzi M. Meireles, P.Bacchin, Y. Hallez M4. Particle-Laden Flows: M4.01 Strongly coupled turbulent M4.02 Analysis and Comparison with M4.03 Experimental studies of M4.04 Study of snow-atmosphere M4.05 Preferential accumulation and M4.06 Bringing Clouds into Our Lab! Clustering and Dispersion II gas-particle flows in vertical channels DNS of a Stochastic Model for the gas-particle mixtures under sudden interactions over an Antarctic surface enhanced relative velocity of inertial - The Influence of Turbulence on the Room: 103 R. Fox, J. Capecelatro, O. Desjardins Relative Motion of expansion H. Zunino, R. Adrian, using large eddy simulations coupled droplets due to interactions with Early Stage Rain Droplets M. Yavuz, Chair: R. O. Fox, Iowa State U. High-Stokes-Number Particles in A. Clarke with a Lagrangian stochastic model homogeneous isotropic turbulence R. Kunnen, G. Heijst, H. Clercx Isotropic Turbulence R. Dhariwal, F. Comola, et al. C. Bateson, A. Aliseda S. Rani, D. Koch M5. Nonlinear Dynamics: M5.01 Topological entropy and M5.02 Passive scalars chaotic M5.03 Maximal stochastic transport M5.04 Flow primitives to manipulate M5.05 Neimark-Sacker bifurcation M5.06 Topology of three-dimensional General symbolic dynamics for dynamics induced by two vortices in a in the Lorenz equations S. Agarwal, the dynamics of inertial particles and evidence of chaos in a discrete steady cellular flow in a two-sided Room: 104 three-dimensional fluid mixing two-layer geophysical flow with shear J. Wettlaufer S. Sudarsanam, P.Tallapragada dynamical model of walkers lid-driven cavity F. Romano, Chair: K. Mitchell, U. of California, K. Mitchell, B. Maelfeyt, J. Arenson and rotation E. Ryzhov A. Rahman S. Albensoeder, H. Kuhlmann Merced M6. Nonlinear Dynamics: M6.01 Invariant solutions organizing M6.02 Experimental observations of M6.03 Numerical investigation of M6.04 Rare event statistics and M6.05 Numerical investigation of M6.06 System Size Dependence of Transition and Turbulence turbulence in pipe flow experiments direct laminar-turbulent transition in direct laminar-turbulent transition in characteristic lifetimes in transient transition critical Reynolds number of Finite-Amplitude Thresholds for Room: 105 S. Altmeyer, J. Khnen, M. Schaner, counter-rotating Taylor-Couette flow counter-rotating Taylor-Couette flow turbulence T. Kreilos, L. Hentgen, channel flow. Y. Zhang Transition to Turbulence in Chair: S. Altmeyer, Institute of Science B. Hof C. Crowley, M. Krygier, M. Krygier, R. Grigoriev B. Eckhardt, T. Schneider Taylor-Couette Flow and Technology D. Borrero-Echeverry, R. Grigoriev, D. Borrero-Echeverrry, B. Morrison, M. Schatz E. Peairs M7. CFD: High Performance M7.01 Effect of asynchrony on M7.02 A Multiscale/Multifidelity CFD M7.03 Fast linear solvers for variable M7.04 Direct numerical simulation of M7.05 FFeasibility of Amazon Cloud M7.06 Repartitioning Strategies for Computing numerical simulations of fluid flow Framework for Robust Simulations density turbulent flows H. Pouransari, fluid-particle mass, momentum, and Computing Platform for Parallel Massively Parallel Simulation of Room: 107 phenomena A. Konduri, B. Mahoney, S. Lee, Y. Kevrekidis, G. Karniadakis A. Mani, E. Darve heat tranfers in reactive systems. Multi-phase Flow Simulations Reacting Flow P.Pisciuneri, A. Zheng, Chair: D. Donzis, Texas A&M U. D. Donzis A. Hammouti, A. Wachs C. Freniere, A. Pathak, M. Raessi P.Givi, A. Labrinidis, P.Chrysanthis M8. Microscale Flows: M8.01 Transition States for M8.02 Instantaneous Slip Length in M8.03 Predicting apparent slip at M8.04 Slip length measurement M8.05 Transient coating of M8.06 Hydrodynamic fundamentals Interfaces and Wetting Submerged Superhydrophobic Superhydrophobic Microchannels liquid-liquid interfaces without an using BBM A. Ahmadzadegan, substrates with variable topography by of slippage over a superhydrophobic Room: 108 Surfaces: Partially-Pinned Air-Water A. Hemeda, H. Tafreshi interface slip condition P.Poesio, C. Snoeyink viscous films N. Lampropoulos, surface C. Schonecker,¨ D. Schaffel,¨ Chair: H. Tafreshi, Virginia Interface H. Tafreshi, A. Hemeda A. Damone, O. Matar Y. Dimakopoulos, J. Tsamopoulos K. Koynov, D. Vollmer, H. Butt Commonwealth U. M9. Nanoscale Flows: M9.01 Hybrid molecular-continuum M9.02 Microscal Thermal Flow Field M9.03 Atomistic study of a M9.04 Scattering of water molecules M9.05 Mass transfer properties of M9.06 A Nanoscale Hydrodynamical Computations techniques for micro and nano flows Fractionation of DNA by Size nanometer-scale pump based on the on silicon surface: Molecular beam nanoconfined fluids at solid-liquid Model for Transport of Water Room: 109 J. Reese, K. Ritos, M. Borg, J. Pearce, F. Alfahani thermal ratchet concept E. Oyarzua, experiments and molecular dynamics interfaces: from atomistic simulations R. Bhadauria, T. Sanghi, N. Aluru Chair: J. Reese, Edinburgh U. D. Lockerby J. Walther, H. Zambrano simulations Y. Kotsubo, I. Kinefuchi, to continuum models M. Morciano, et S. Takagi al. M10. Convection and M10.01 Effect of weak rotation on M10.02 Rayleigh- and M10.03 Tuning transitions in rotating M10.04 Combined effects of a M10.05 Energetic dynamics of a M10.06 Natural Convection in a Buoyancy-Driven Flows: the large-scale circulation in turbulent Prandtl-number dependence of the Rayleigh-Benard´ convection P.Joshi, magnetic field and a helical force on rotating horizontal convection model rotating multilayer spherical shell Rotation convection with a Prandtl number large-scale flow-structure in R. Kunnen, H. Clercx the onset of a rotating Rayleigh-Benard´ with wind forcing V. Zemskova, system with self gravity F. Lira Rangel, Room: 110 Pr = 12.3 P.Wei, G. Ahlers weakly-rotating turbulent thermal convection with free-free boundaries B. White, A. Scotti R. Avila Rodriguez, A. Cabello ´ Chair: S. Weiss, U. of Michigan convection S. Weiss, P.Wei, G. Ahlers J. Chabi Orou, G. Pomalegni Gonzalez

100 Tuesday Morning, 24 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 M11. Convection and M11.01 Transition to geostrophic M11.02 Buoyancy induced M11.03 Compressible convection in M11.04 Eddy Sensitivity to M11.05 Quantitative saltwater M11.06 Effect of inlet conditions on Buoyancy-Driven Flows: convection: the role of boundary modification of the law-of-the-wall in an geophysical fluids: comparison of Resolution and Viscosity in Density modeling for validation of sub-grid the turbulent statistics in a buoyant jet Numerical Studies conditions R. Kunnen, unstably stratified turbulent channel anelastic, anelastic liquid and full Driven Ocean Currents S. Reckinger, scale LES turbulent mixing and R. Kumar, A. Dewan Room: 111 R. Ostilla-Monico,´ E. van der Poel, flow F. Toschi, A. Scagliarini, numerical simulations J. Curbelo, M. Petersen, S. Reckinger transport models for fire P.Maisto, Chair: R. Kunnen, Eindhoven U. of R. Verzicco, D. Lohse H. Einarsson, A. Gylfason T. Alboussiere, S. Labrosse, A. Marshall, M. Gollner Technology F. Dubuffet, Y. Ricard M12. Granular Flows: Shear M12.01 Energy Dissipation in Inertial M12.02 A system-spanning vortex in M12.03 Anisotropy in rotating drums M12.04 Dynamics of an intruder M12.05 Continuum equations for M12.06 Drag on intruder in dense and Drag Granular Flow E. DeGiuli, granular shear flow explains a stress T. Povall, A. McBride, I. Govender pulled slowly from a granular material dense shallow granular flows granular flows H. Zheng, J. Bares, Room: 200 J. McElwaine, M. Wyart anomaly P.Nott, K. K P,P.Dsouza Y. Zhang, A. Clark, R. Behringer V. Kumaran D. Wang, R. Behringer Chair: E. DeGiuli, NYU M13. Aerodynamics: M13.01 Energy Harvesting for M13.02 A novel immersed boundary M13.03 Theoretical and M13.04 Kite propulsion: single and M13.05 Coupling between a flag and M13.06 Interaction between two Membranes and Flutter Micropower Applications by method applied to the inverted flag Experimental Comparison of multi-kite stability E. du Pontavice, a spring-mass oscillator E. Virot, side-by-side inverted flags Room: 201 Flow-Induced Flutter of an Inverted problem A. Goza, T. Colonius Aerodynamic Characteristics for Y. Parlier, D. Quer´ e,´ C. Clanet X. Amandolese, P.Hemon C. Huertas-Cerdeira, B. Fan, Chair: K. Shoele, Johns Hopkins U. Piezoelectric Flag K. Shoele, R. Mittal Flexible Membrane Wings with A. Barizien, M. Gharib Cambered Frames A. Wrist, J. Hubner M14. Vortex Dynamics: M14.01 The role of Reynolds M14.02 Defining and Computing M14.03 Vortex force generation of M14.04 Transient Crossings of a M14.05 Pressure Evolution in the M14.06 Objective detection of General number in the fluid-elastic instability of Vortices Objectively from the Vorticity an impulsively started wing at high NACA0012 Wing into a Shear Layer of Vortex Rings as an vortices in massively-separated flow Room: 202 tube arrays N. Kevlahan, A. Ghasemi G. Haller, A. Hadjighasem, angle of attack X. Fu, F. Wang, H. Liu, Streamwise-Oriented Vortex Indicator of Pinch-Off K. Schlueter, Y. Huang, A. Hadjighasem, M. Green, Chair: N. Kevlahan, McMaster U. M. Farazmand, F. Huhn S. Qin, Y. Xiang D. Garmann, M. Visbal J. Dabiri G. Haller M15. Vortex Dynamics: M15.01 Helicity Annihilation in Trefoil M15.02 3D characterization of M15.03 The Flow Dynamics of the M15.04 Flow development over low M15.05 Vortex-induced vibration of a M15.06 Drag and Strouhal number Applications Reconnection: Simulations R. Kerr leading-edge vortex formation and Garden-Hose Instability F. Xie, aspect ratio cantilevered circular harbor-vibrissa-shaped cylinder: measurements for porous circular Room: 203 growth K. Onoue, K. Breuer X. Zheng, M. Triantafyllou, cylinders in the laminar shedding Experimental measurements. Y. Liu, cylinders A. Kanale, P.Sellappan, Chair: R. Kerr, U. of Warwick Y. Constantinides, G. Karniadakis regime C. Morton, M. Saeedi, S. Wang M. Luhar R. Martinuzzi M16. Flow Instability: M16.01 Elastohydrodynamics of a M16.02 Effect of surfactants on M16.03 Oscillatory behavior in M16.04 Interfacial instability of thin M16.05 Direct Numerical Simulation M16.06 Temporal interfacial Interfacial and Thin Films IV free cylinder near a soft wall inverted thin film flow D. Henry, two-pulse dynamics in liquid films at the walls of a of Nanofilm Instability Driven by instability in vertical gas-liquid flows Room: 204 L. Mahadevan, T. Salez J. Uddin, J. Marston, M. Mansoor, active-dissipative systems M. Pradas, parallel-plate channel, sheared by Liquid/Solid Interactions K. Mahady, P.Schmidt, L. ON´ araigh,´ ´ Chair: L. Mahadevan, Harvard U. S. Thoroddsen T. Lin, D. Tseluiko, S. Kalliadasis pressure-driven gas flow M. Vecsei, S. Afkhami, L. Kondic M. Lucquiaud, P.Valluri M. Dietzel, S. Hardt M17. Flow Instability: M17.01 Three-dimensional M17.02 The stability of Taylor M17.03 The stability of Taylor M17.04 Parallel direct numerical M17.05 Stability of a liquid jet in a M17.06 Drop size selection in axially Multiphase Flow numerical simulations of three-phase bubbles in large-diameter tubes: Linear bubbles in large-diameter tubes: direct simulation of three-dimensional spray weak crossflow G. Amini, M. Jadidi, heated co-axial fiber capillary instability Room: 205 slug flows in horizontal pipes Y. Wang, theory H. Abubakar, O. Matar numerical simulations A. Dhanjal, formation J. Chergui, D. Juric, S. Shin, A. Dolatabadi S. Mowlavi, P.Brun, F. Gallaire Chair: O. Matar, Imperial College J. Yang, O. Matar M. Saravan-Butler, S. Smith, J. Yang, L. Kahouadji, O. Matar London O. Matar M18. Flow Instability: M18.01 Rayleigh-Taylor mixing with M18.02 Stochastic model of M18.03 The Evolution of the M18.04 Simulations of mixing in M18.05 Rayleigh-Taylor instability M18.06 A 3D Bubble Merger Model Rayleigh-Taylor II time-dependent acceleration Rayleigh-Taylor mixing with single-mode Rayleigh-Taylor instability Inertial Confinement Fusion with front (RTI) for a yield-stress fluid for RTI Mixing B. Cheng Room: 206 S. Abarzhi time-dependent acceleration under the influence of time-dependent tracking and sub-grid scale models I. Maimouni, J. Goyon, E. Lac, Chair: S. Abarzhi, Carnegie Mellon U. N. Swisher, S. Abarzhi accelerations P.Ramaprabhu, V. Rana, H. Lim, J. Melvin, B. Cheng, N. Flamant, T. Pringuey, P.Coussot V. Karkhanis, R. Banerjee, J. Glimm, D. Sharp H. Varshochi, M. Khan, A. Lawrie M19. Turbulence: M19.01 The Decay of Turbulence M19.02 On the Relation between M19.03 Correlational signatures of M19.04 Determining the direction of M19.05 On velocity gradient M19.06 Multi-level segment analysis: Measurements After it Stops Rotating. J. Perot, Spatio-Temporal Forcing and Structure time-reversal symmetry breaking in a turbulent cascade W. Goldburg, dynamics and fine-scale structure: definition and applications in Room: 207 C. Zusi of Turbulence D. Carter, F. Coletti two-dimensional flow C. Hogg, R. Cerbus experiments support DNS and models turbulence L. Wang Chair: B. Perot, U. of Massachusetts, N. Ouellette J. Lawson, J. Dawson Amherst M20. Turbulence: Wakes and M20.01 Turbulence decay M20.02 Some effects of vortex M20.03 Alignments and small scale M20.04 Decay of grid turbulence in a M20.05 The turbulent flow generated M20.06 Power Law Decay in High Flows Behind Grids downstream of an active grid shedding in grid-generated turbulence statistics in the production region of closed box S. Perrard, W. Irvine by inhomogeneous multiscale grids Intensity Turbulence T. Koster, Room: 208 G. Bewley, E. Bodenschatz G. Melina, P.Bruce, J. Vassilicos grid turbulence I. Paul, G. Papadakis, S. Zheng, P.Bruce, J. Graham, A. Puga, B. Nguyen, J. LaRue Chair: G. Bewley, Max Planck Institute J. Vassilicos J. Vassilicos for Dynamics and Self-Organization, Germany

101 Tuesday Morning, 24 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 M21. Turbulence: Modeling II M21.01 A low-dimensional model for M21.02 Revisit on Proper M21.03 Interaction of M21.04 The effect of a solid M21.05 Counter gradient diffusion in M21.06 Hierarchical Structure of Room: 209 large-scale coherent structures Orthogonal Decomposition Method two-dimensional turbulence with a boundary on homogeneous isotropic a plane wall jet O. Ramesh, Fast Stretching Vortices in Turbulent Chair: K. Bai, Yale U. K. Bai, D. Ji, E. Brown M. Hosseinali, J. Hall sheared channel flow: a numerical turbulence: an experimental V. Dhamotharan Flows M. Hirota, Y. Nishio, S. Izawa, study L. Kamp, V. Marques Rosas investigation B. Johnson, E. Cowen Y. Fukunishi Fernandes, G. van Heijst, H. Clercx M22. Turbulence: Multiphase M22.01 Realistic simulations of M22.02 DNS of coflowing planar jet M22.03 Droplet dynamics in M22.04 Rain formation via turbulent M22.05 Scalewise investigation of M22.06 Bubble-induced turbulence Flows coaxial atomisation S. Zaleski, et al. atomization: can one reach homogeneous isotropic turbulence mixing of droplet distributions two-phase flow turbulence in upward study in homogeneous turbulent flow Room: 210 convergence? Y. Ling, et al. D. Albernaz, M. Do-Quang, G. Amberg M. Kree, J. Kalda turbulent bubbly pipe flows J. Lee, using DNS approach J. Feng, Chair: S. Zaleski, U. Paris VI H. Kim, H. Park I. Bolotnov M23. Biofluids: Undulatory M23.01 Undulatory swimming in M23.02 Undulatory swimming in M23.03 Locomotion in a liquid M23.04 A Simple Method to M23.05 Flow analysis of C. elegans M23.06 Maneuverability and Swimming in Newtonian and non-Newtonian fluids A. Ardekani, shear-thinning fluids: Experiments with crystal near a wall T. Powers, Measure Nematodes’ Propulsive swimming T. Montenegro-Johnson, chemotaxis of Caenorhabditis elegans Non-Newtonian Fluids G. Li Caenorhabditis elegans D. Gagnon, M. Krieger, S. Spagnolie Thrust and the Nematode Ratchet. D. Gagnon, P.Arratia, E. Lauga in three-dimensional environments Room: 300 P.Arratia H. Bau, J. Yuan, D. Raizen J. Blawzdziewicz, A. Bilbao, A. Patel, Chair: A. Ardekani, Purdue U. S. Vanapalli M24. Biofluids: M24.01 Fluid dynamics of M24.02 Optimization of the assisted M24.03 Computational fluid M24.04 Lagrangian coherent M24.05 Experimental Comparison of M24.06 Numerical modeling of the Cardiovascular Disease II coarctation of the aorta: analytical bidirectional Glenn for single ventricle dynamics study of commercially structures and turbulence the Hemodynamic Effects of fetal blood flow in the placental Room: 302 solution, in vitro validation and in vivo palliation A. Marsden, J. Shang, available stents inside an idealised characteristics downstream of Bifurcating Coronary Stent circulatory system A. Shannon, Chair: Z. Keshavarz-Motamed, MIT evaluation Z. Keshavarz-Motamed M. Esmaily-Moghadam, R. Figliola, curved coronary artery W. Chen, prosthetic aortic valves M. de Tullio Implantation Techniques M. Brindise, S. Gallucci, P.Mirbod O. Reinhartz, T. Hsia A. Ooi, N. Hutchins, E. Poon, P.Vlachos V. Thondapu, P.Barlis M25. Biofluids: Transport and M25.01 Modeling Self-Induced M25.02 Optimal Sensor Layouts in M25.03 Sinusoidal Forcing of M25.04 Why are there no short M25.05 Modeling and Simulation of M25.06 Three-dimentional Control Effects is Important for Flow-Relative Underwater Locomotory Systems Interfacial Films F. Rasheed, circuits in the arterial network? Cardiogenic Embolic Particle Transport simulation of flow-induced platelet Room: 304 Control A. Gao, M. Triantafyllou B. Colvert, E. Kanso A. Raghunandan, A. Hirsa, J. Lopez S. Chang, S. Tu, Y. Liu, V. Savage, to the Brain D. Mukherjee, N. Jani, activation in artificial heart valves Chair: A. Gao, MIT S. Hwang, M. Roper S. Shadden M. Hedayat, H. Asgharzadeh, I. Borazjani M26. Biofluids: Medical M26.01 Hydrodynamics of jets in M26.02 A Computational and M26.03 Simultaneous measurement M26.04 Effects of bileaflet M26.05 Numerical Simulations of the M26.06 Correlation between Devices needle-free injections J. Marston, Mathematical Model for Device of hemorheological and hemodynamic mechanical heart valve orientation on Mechanics of Vitrectomy E. Young, Hemodynamics and Treatment Room: 306 M. Moradi Induced Thrombosis W. Wu, N. Aubry, properties using a rat extracorporeal coronary flow L. Haya, S. Tavoularis J. Eldredge, J. Hubschman Outcome of Intracranial Aneurysms Chair: J. Marston, Texas Tech U. M. Massoudi, J. Antaki model E. Yeom, S. Lee after Intervention with Flow Diverters N. Paliwal, R. Damiano, J. Davies, A. Siddiqui, H. Meng M27. Experiments: Analysis, M27.01 On the Singular Value M27.02 Iterative Blind Deconvolution M27.03 Machine learning and M27.04 The Anatomy of M27.05 Empirical mode M27.06 New Reconstruction Image Processing and Decomposition of Measured Data Algorithm for Deblurring PSP Image of synthetic aperture refocusing approach Fourier-Based Correlation Image decomposition profilometry: small Accuracy Metric for 3D PIV Algorithms B. Epps Rotating Surfaces A. Pandey, for more accurate masking of fish Velocimetry and Sources of scale capabilities and comparison to A. Bajpayee, A. Techet Room: 308 J. Gregory bodies in 3D PIV data L. Ford, Decorrelating Errors M. Giarra, Fourier Transform Profilometry Chair: B. Epps, Dartmouth A. Bajpayee, A. Techet P.Vlachos G. Lagubeau, P.Cobelli, T. Bobinski, A. Maurel, V. Pagneux, P.Petitjeans M28. Experiments: M28.01 Time-Resolved Visualization M28.02 Spectral Measurements M28.03 High-Speed OH* M28.04 The 3D flow structures M28.05 Color gradient background M28.06 Femtosecond laser flow Visualization, Tagging and of Gortler¨ Vortices in a Pulsed Convex from the Optical Emission of the A.C. Chemiluminescence Imaging of Shock generated by a pair of cubic roughness oriented schlieren imaging F. Mier, tagging in non-air flows Y. Zhang, Tracking Wall Jet using Fast Pressure-Sensitive Plasma Anemometer E. Matlis, Tube End-Wall V. Troutman, V. Miller, elements in a turbulent channel flow M. Hargather N. Calvert Room: 309 Paint J. Gregory, R. Danon, C. Marshall, T. Corke, S. Gogineni C. Strand, A. Tulgestke, M. Campbell, resolved using holographic microscopy Chair: J. Gregory, The Ohio State U. D. Greenblatt D. Davidson, R. Hanson J. Gao, J. Katz M29. Geophysical Fluid M29.01 Moffatt eddies at the base of M29.02 Forced convective melting at M29.03 Direct numerical simulation M29.04 Subglacial hydrology as a M29.05 A Theoretical and M29.06 Stability of lubricated ice Dynamics: Cryosphere and ice sheets C. Meyer, T. Creyts, J. Rice an evolving ice-water interface of convection and dissolution at a control on ice stream shear margin Experimental Investigation of Ice-Shelf sheets. K. Kowal, M. Worster Ice-Ocean Interactions E. Ramudu, B. Hirsh, P.Olson, vertical ice-seawater interface locations T. Perol, J. Rice, J. Platt, Flow Dynamics M. Wearing, Room: 310 A. Gnanadesikan B. Gayen, R. Griffiths, R. Kerr J. Suckale G. Worster, R. Hindmarsh Chair: C. Meyer, Harvard U. M30. Geophysical Fluid M30.01 Lock-release gravity currents M30.02 Dynamics of double-diffusive M30.03 Mixing Induced by Colliding M30.04 Circulation-based modeling M30.05 Entrainment dynamics in M30.06 Gravity currents down a Dynamics: Gravity Currents over a sparse and dense rough bottom lock-exchange gravity currents Gravity Currents Q. Zhong, C. Hocut, of gravity currents propagating into self-adjusting gravity currents using slope in the acceleration phase Room: 311 C. Cenedese, R. Nokes, J. Hyatt N. Konopliv, E. Meiburg F. Hussain, H. Fernando ambients with arbitrary shear and simultaneous velocity-density Y. Huang, A. Dai Chair: C. Cenedese, WHOI density stratification M. Nasr-Azadani, measurements S. Balasubramanian, E. Meiburg Q. Zhong, H. Fernando

102 Tuesday Morning, 24 November 2015 Session 08:00 08:13 08:26 08:39 08:52 09:05 M31. Waves: Internal and M31.01 Internal wave bolus M31.02 Geometric focusing of M31.03 Internal wave focusing by M31.04 Nonlinear harmonic M31.05 Convective Excitation of M31.06 Simultaneous generation Interfacial Waves detection and analysis by a Lagrangian internal waves: Experimental study annular forcing: theory B. Voisin, generation by diurnal tides S. Wunsch Internal Waves D. Lecoanet, M. Le and scattering of internal tides by Room: 312 coherent structure method N. Shmakova, E. Ermanyuk, B. Voisin, E. Ermanyuk, N. Shmakova, J. Flor´ Bars, K. Burns, G. Vasil, E. Quataert, ocean floor topography M. Mathur ´ Chair: M. R. Allshouse, U. of Texas at M. Allshouse, G. Salvador-Vieira, J. Flor B. Brown, J. Oishi Austin H. Swinney M32. Drops: Impact on M32.01 Initiation of liquid-solid M32.02 Non continuum effects M32.03 Characterization of drop M32.04 Drop impact on permeable M32.05 How wettability affects sand M32.06 Spreading behavior of a Surfaces contact beneath an impacting drop influence in splashing dynamics impact based on internal flow meshes with yield-stress fluids cratering after drop impact R. de drop upon impact onto a moving Room: 313 S. Rubinstein, J. Kolinski C. Josserand, M. Gallais, L. Duchemin quantification R. De, A. Karn, R. Ewoldt, B. Blackwell, A. Nadhan Jong, S. Zhao, D. van der Meer surface H. Almohammadi, A. Amirfazli Chair: S. Rubinstein, Harvard U. J. Noonan, B. Rosiejka, R. Arndt, J. Hong M33. Drops: Walking Drops M33.01 The interaction of a walking M33.02 Visualization of M33.03 Faraday Pilot-Waves: M33.04 Schrodinger’s¨ drop in a box: M33.05 Simulations of walking M33.06 Stochastic trajectories of a Room: Ballroom A droplet and a pillar J. Bush, D. Harris, hydrodynamic pilot-wave dynamics Generation and Propagation wave-droplet interaction in a circular droplets in a harmonic potential walking drop in a harmonic potential Chair: J. Bush, MIT P.Brun V. Prost, J. Quintela, D. Harris, P.Brun, C. Galeano-Rios, P.Milewski, cavity T. Gilet K. Dettmers, D. Harris, A. Oza, M. Biamonte, A. Oza, A. Nachbin, J. Bush A. Nachbin, J. Bush R. Rosales, J. Bush J. Bush M35. Drops: General M35.01 Unraveling expressionism M35.02 3D tomographic M35.03 Dye doped micro-droplets as M35.04 Harnessing Nanoparticles to M35.05 Dissolution of a M35.06 Marangoni stresses and Room: Ballroom B T. Truscott, B. Darbois-Texier, B. Lovett, reconstruction of the internal velocity a sensor for fluid dynamics applications Control Evaporation at Liquid-Vapor multicomponent droplet in an drop breakup due to wall shear in a Chair: T. Truscott, Utah State U. M. Brandenbourger , L. Maquet, field of an immiscible drop in a shear T. Ioppolo, M. Manzo Interfaces X. Yong immiscible ambient fluid: Application of partially filled rotating cylinder Z. Pan, T. Gilet, D. Strivay, S. Dorbolo flow P.Kerdraon, S. Dalziel, the distribution law S. Chu, A. White, A. Odesanya, T. Ward R. Goldstein, J. Landel, F. Peaudecerf A. Prosperetti M36. Bubbles: Cavitation, M36.01 Direct visualization of M36.02 Cavitation-induced damage M36.03 Toward the development of M36.04 Bubble Cloud Dynamics in a M36.05 Steady streaming around a M36.06 Modes of elastic plates and Acoustics and Biomedical I microalgae rupture by in soft tissue phantoms by focused erosion-free ultrasonic cavitation Focused Ultrasound Field K. Maeda, pulsating Bubble located at the velocity shells in water driven by modulated Room: Ballroom C ultrasound-driven bubbles ultrasound bursts P.Movahed, cleaning with gas-supersaturated water T. Colonius, W. Kreider, A. Maxwell, antinode of a Standing Wave radiation pressure of focused Chair: P. Marston, Washington State U. A. Pommella, I. Harun, A. Pouliopoulos, W. Kreider, A. Maxwell, M. Bailey, T. Yamashita, K. Ando B. Cunitz, M. Bailey M. AlHamli, S. Satwindar ultrasound P.Marston, T. Daniel, J. Choi, K. Hellgardt, V. Garbin S. Hutchens, J. Freund A. Abawi, I. Kirsteins M39. General Fluid Dynamics: M39.01 Vortex propagation around a M39.02 Pressure-Velocity M39.03 Structural Affects on the M39.04 Experimental Investigations M39.05 Wave impact on walls M39.06 Flow-induced vibration of an Obstacles and Boundaries wall-mounted obstacle in pulsatile flow Correlations in the Cove of a Leading Slamming Pressures of High-Speed of Flow past Spinning Cylinders with/without parapets J. Frandsen, array of cylindrical pendulums J. Kim, Room: Back Bay C I. Carr, M. Plesniak Edge Slat S. Wilkins, P.Richard, Planing Craft C. Ikeda, B. Taravella, P.Carlucci, L. Buckley, I. Mehmedagic, O. Tremblay, R. Xharde H. Kim, D. Kim Chair: M. Plesniak, George J. Hall C. Judge D. Carlucci, S. Thangam Washington U. M40. Focus Session: M40.01 Reconfiguration of a flexible M40.02 Large Deformation of an M40.03 Numerical simulation of the M40.04 Influence of blade motion on M40.05 Beds of reconfigurable M40.06 Wave-forced reconfiguration Reconfiguration flat plate under snow loading Elastic Rod with Structural Anisotropy dynamics of a flexible cantilevered mass flux to a model seagrass blade angled hairs rectify Stokes flows of a 2D artificial canopy S. Barsu, Room: Back Bay D F. Gosselin, E. de Langre Subjected to Fluid Flow M. Hassani, plate subjected to a perpendicular or a J. Lei, H. Nepf J. Alvarado, J. Comtet, A. Hosoi D. Doppler, N. Rivire, M. Lance Chair: F. Gosselin, Ecole N. Mureithi, F. Gosselin parallel fluid flow F. Sansas, Polytechnique de Montreal E. Laurrendeau, F. Gosselin

103 Tuesday Morning, 24 November 2015 Session 09:18 09:31 09:44 09:57 10:10 M1. Industrial Applications III M1.07 Microfluidic IEF technique for M1.08 Capacitive Deionization: M1.09 Characterization of M1.10 Crackle noise from Room: Auditorium sequential phosphorylation analysis of Performance Improvement Using desalination performance of CDI high-speed free-shear-flow turbulence Chair: E. Merzari, Argonne National protein kinases N. Choi, S. Song, Multistep Buffered Arrangement and electrode materials using extended D. Buchta, J. Freund Laboratory H. Choi, B. Lim, Y. Kim Ordered Mesoporous Carbon electroimpedance spectroscopy Electrodes Y. Salamat, C. Rios Perez, C. Rios Perez, E. Wilkes, C. Hidrovo A. Gurijala, R. Erb, C. Hidrovo M2. Flames: Non-premixed M2.07 Turbulent non - premixed M2.08 Strain rate effects on soot M2.09 Coherent structure dynamics Flames flames driven by the evolution in turbulent nonpremixed during turbulence-flame interaction Room: 101 Richtmyer-Meshkov Instability flames J. Lew, M. Mueller, E. Haffner, M. Green, E. Oran Chair: F. Bisetti, King Abdullah U. of H. Varshochi, N. Attal, P.Ramaprabhu S. Mahmoud, Z. Alwahabi, B. Dally, Science and Technology G. Nathan M3. Suspensions: General M3.07 Particle-induced viscous M3.08 Reverse drainage of a M3.09 Spreading dynamics of a M3.10 Transport and Deposition of Room: 102 fingering F. Xu, D. Strack, G. Fomani, particle-laden thin film. suspension atop a spinning disc Electrosprayed Nanoparticles Chair: T. Sapsis, MIT C. Lopez, S. Lee A. Mastroberardino, J. Siddique P.Doshi, M. Kulkarni, S. Sahoo, N. Brown, P.Chiarot A. Orpe M4. Particle-Laden Flows: M4.07 Quantification of statistical M4.08 Turbulent Soret Effect M4.09 Caustics and collisions of M4.10 Condensing aerosol Clustering and Dispersion II phenomena in turbulent dispersions D. Mitra, N. Haugen, I. Rogachevskii inertial particles R. Govindarajan, Dynamics in homogeneous isotropic Room: 103 M. Yates, D. Hann, B. Hewakandamby S. Ravichandran, S. Ray, P.Deepu turbulence A. Alshaarawi, A. Attili, Chair: R. O. Fox, Iowa State U. F. Bisetti M5. Nonlinear Dynamics: M5.07 Using Persistent Homology to M5.08 Characterizing mixing in time M5.09 Computing the Evans function M5.10 Learning Flow Regimes from General Describe Rayleigh-Benard´ Convection periodic planar flows through the via solving a linear boundary value Snapshot Data M. Hemati Room: 104 J. Tithof, B. Suri, M. Xu, M. Kramar, topology of almost cyclic sets P.Rao, ODE C. Wahl, R. Nguyen, N. Ventura, Chair: K. Mitchell, U. of California, R. Levanger, K. Mischaikow, M. Paul, M. Stremler, S. Ross B. Barker, B. Sandstede M. Schatz Merced Break, 10:10–10:40 M6. Nonlinear Dynamics: M6.07 Sudden relaminarisation and M6.08 Disruption of the vortex-wave M6.09 Connecting exact coherent M6.10 Temporal and spatial Transition and Turbulence lifetimes in forced isotropic turbulence interaction self-sustaining process in states to turbulent dynamics in channel intermittencies within Newtonian Halls C and D Room: 105 M. Linkmann, A. Morozov stratified plane Couette flow T. Eaves, flow J. Park, M. Graham turbulence A. Kushwaha, M. Graham Chair: S. Altmeyer, Institute of Science C. Caulfield and Technology

A GPU-accelerated Discrete Particle Model for M7. CFD: High Performance M7.07 M7.08 Refreshment Computing semi-implicit ADI method for Porous Media Flow using OpenFOAM Room: 107 incompressible and compressible at Intel Xeon Phi Coprocessors Chair: D. Donzis, Texas A&M U. Navier-Stokes equations S. Ha, Z. Shang, K. Nandakumar, H. Liu, D. Yo u M. Tyagi, J. Lupo, K. Thompson M8. Microscale Flows: M8.07 Robust liquid-infused surfaces M8.08 The shear-driven failure of M8.09 A computational DFT study of M8.10 Analysis for Ca 0 of Interfaces and Wetting through patterned wettability J. Wexer, liquid-infused surfaces and structural transitions in textured smearing during gravure printing→ Room: 108 A. Grosskopf, M. Chow, Y. Fan, superhydrophobic surfaces. Y. Liu, solid-fluid interfaces P.Yatsyshin, U. Ceyhan, S. Morris Chair: H. Tafreshi, Virginia I. Jacobi, H. Stone J. Wexler, H. Stone A. Parry, S. Kalliadasis Commonwealth U. M9. Nanoscale Flows: M9.07 A multiscale quasi-continuum M9.08 Simulation of flow through M9.09 Dissipative particle dynamics M9.10 Effect of variable magnetic Computations theory to determine thermodynamic nanochannels: a novel multi-scale incorporating non-Markovian effect field on nanofluid flow and heat transfer Room: 109 properties of fluid mixtures in approach F. Jaeger, A. Wray, I. Kinefuchi, Y. Yoshimoto, S. Takagi M. Sadoughi, M. Sheikholeslami, Chair: J. Reese, Edinburgh U. nanochannels M. Motevaselian, E. Muller, P.Poesio, O. Matar H. Shariatmadar S. Mashayak , N. Aluru M10. Convection and M10.07 Transitions in turbulent M10.08 Lagrangian analysis of M10.09 Retrograde rotation of the M10.10 The Gottingen¨ rotating Buoyancy-Driven Flows: rotating convection H. Rajaei, rotating Rayleigh-Benard´ turbulence large-scale flow in turbulent rotating turbulent Rayleigh–Benard´ convection Rotation K. Alards, R. Kunnen, F. Toschi, K. Alards, H. Rajaei, R. Kunnen, Rayleigh-Benard convection with high facility E. Bodenschatz, D. van Gils, Room: 110 H. Clercx F. Toschi, H. Clercx Rossby number J. Zhong, H. Li, X. He, G. Ahlers Chair: S. Weiss, U. of Michigan X. Wang

104 Tuesday Morning, 24 November 2015 Session 09:18 09:31 09:44 09:57 10:10 M11. Convection and M11.07 The Role of Convective and M11.08 Adjoint-based shape M11.09 Simulation of a Supercritical Buoyancy-Driven Flows: Diffusive Mixing in Porous Media optimization of fin geometry for Fluid Flow with Large Temperature Numerical Studies S. Gopalakrishnan, enhanced solid/liquid phase-change Difference under the Assumption of Room: 111 J. Carballido-Landeira, A. De Wit, process K. Morimoto, Y. Suzuki Constant Pressure S. Komurasaki Chair: R. Kunnen, Eindhoven U. of B. Knaepen Technology M12. Granular Flows: Shear M12.07 Steady State Erosion of M12.08 DEM simulation of flow of M12.09 The propagation and M12.10 How do fish hide in the sand: and Drag Granular Particles by Shear Flow dumbbells on a rough inclined plane deposition process of a finite dry erosion by an oscillating foil A. Sauret, Room: 200 B. Allen, A. Kudrolli S. Mandal, D. Khakhar granular mass down a rough incline C. Morize, G. Quibeuf, P.Gondret Chair: E. DeGiuli, NYU G. Lee, F. Yang M13. Aerodynamics: M13.07 Coupled-flutter of two M13.08 Charge Capacity of M13.09 Non-Linear Aerodynamic M13.10 Stability and scalability of Membranes and Flutter slender flags M. Jer´ ome,ˆ Piezoelectric Membrane Wings Coupling of Piezoelectric Harvesters in piezoelectric flag X. Wang, S. Alben, Room: 201 M. Sebastien,´ D. Olivier M. Grybas, J. Hubner Grid Turbulence A. Danesh-Yazdi, C. Li, Y. Young Chair: K. Shoele, Johns Hopkins U. O. Goushcha, N. Elvin, Y. Andreopoulos M14. Vortex Dynamics: M14.07 On the growth of enstrophy M14.08 Darwinian drift: Effects of M14.09 Momentum transport in the M14.10 Rolling up of Large-scale General in axisymmetric 3D Euler flows with Wake Vortices and Multiple Obstacles wake of a finite-length thin flat plate Laminar Vortex Ring from Synthetic Jet Room: 202 swirl D. Ayala, C. Doering S. Melkoumian, B. Protas A. Hemmati, D. Wood, R. Martinuzzi Impinging onto a Wall Y. Xu, C. Pan, Chair: N. Kevlahan, McMaster U. J. Wang M15. Vortex Dynamics: M15.07 A thin-walled Taylor column M15.08 Effects of Canard on the M15.09 Characterization of a vortical Applications surrounding a bathtub vortex in rotating Flowfield over a Wing A. Nayebzadeh, gust generator using PIV Room: 203 tank. C. Chu, K. Lai, Y. Chen, H. Tabkhi E. Hufstedler, B. McKeon Chair: R. Kerr, U. of Warwick C. Chang Break, 10:10–10:40 M16. Flow Instability: M16.07 Dripping under an inclined M16.08 Role of slip on the M16.09 Thin film instabilities on M16.10 On Pore Dynamics and Halls C and D Interfacial and Thin Films IV plane N. Kofman, F. Gallaire, Yih-Marangoni instability in an interface heated substrates: conjugate heat Calcite Solubility in Carbonaceous Room: 204 B. Scheid dominated channel flow transfer M. Dallaston, D. Tseluiko, Aquifers used in Energy Storage Chair: L. Mahadevan, Harvard U. G. Chattopadhyay, R. Usha S. Kalliadasis Applications B. Tilley, D. Brady, M. Ueckert, T. Baumann

Flapping jets and Solutal Marangoni instability The effect of surfactant on Stability analysis of two M17. Flow Instability: M17.07 M17.08 M17.09 M17.10 Refreshment Multiphase Flow monodisperse droplets formed by the in layered two-phase flow J. Picardo, counter-current gas-liquid flows in phase stratified flow in a rectangular Room: 205 Kelvin-Helmholtz instability O. McRae, T. Radhakrishna, S. Pushpavanam vertical tubes I. Zadrazil, O. Matar, channel D. Bhagavatula, P.S Chair: O. Matar, Imperial College A. Gaillard, J. Bird C. Markides London M18. Flow Instability: M18.07 The effect of an obstruction M18.08 Dripping from a curved M18.09 Validation of Nek5000 M18.10 Scale-coupling and Rayleigh-Taylor II on the Rayleigh-Taylor instability ceiling: a linear optimal transient against low-Atwood, single-mode Nonlinear Dynamics in Compressible Room: 206 C. Brown, S. Dalziel growth analysis G. Balestra, A. Lee, Rayleigh Taylor experiments Rayleigh-Taylor Instability D. Zhao, Chair: S. Abarzhi, Carnegie Mellon U. J. Marthelot, P.Brun, P.Reis, F.Gallaire M. Hutchinson H. Aluie, R. Betti M19. Turbulence: M19.07 Estimation of Turbulent Wall M19.08 An experimental Lagrangian M19.09 Skin-Friction Measurements M19.10 Inner–outer interactions in a Measurements Jet Velocity Fields for Noise Prediction study of inhomgeneous turbulence on Mathematically Generated turbulent boundary layer overlying Room: 207 A. Nickels, L. Ukeiley, R. Reger, N. Stelzenmuller, N. Mordant Roughness in a Turbulent Channel complex roughness G. Pathikonda, Chair: B. Perot, U. of Massachusetts, L. Cattafesta Flow J. Barros, M. Schultz, K. Flack K. Christensen Amherst M20. Turbulence: Wakes and M20.07 Dissipative Effects on M20.08 Interaction of two high M20.09 Scale-by-scale energy fluxes M20.10 On the Large Scale Flows Behind Grids Inertial-Range Statistics at High Reynolds number axisymmetric in anisotropic non-homogeneous Dynamics in the Wake of a Fractal Room: 208 Reynolds Numbers M. Sinhuber, turbulent wakes M. Obligado, S. Klein, turbulence behind a square cylinder Obstacle J. Higham, W. Brevis Chair: G. Bewley, Max Planck Institute G. Bewley, E. Bodenschatz J. Vassilicos F. Alves Portela, G. Papadakis, for Dynamics and Self-Organization, J. Vassilicos Germany

105 Tuesday Morning, 24 November 2015 Session 09:18 09:31 09:44 09:57 10:10 M21. Turbulence: Modeling II M21.07 Evolution of the velocity M21.08 On the Distribution of M21.09 On the viscosity stratification Room: 209 gradient tensor in the near field of a Velocity Gradients, Viscosity and in temporal mixing layer L. Danaila, Chair: K. Bai, Yale U. square cylinder M. Breda, O. Buxton Reynolds Stresses in Varied Bed N. Taguelmimt, A. Hadjadj Elevation Turbulent Flow H. Tabkhi, A. Nayebzadeh M22. Turbulence: Multiphase M22.07 Influence of bubble clusters M22.08 Numerical simulations of M22.09 Two-dimensional Turbulence M22.10 Suppression of turbulent Flows over the turbulent structure in upward bubbly Taylor-Couette turbulence in co- in Symmetric Binary-Fluid Mixtures: energy cascade due to phase Room: 210 bubbly channel flows Y. Sekiguchi, and counter rotating regime Coarsening Arrest by the Inverse separation in homogenous binary Chair: S. Zaleski, U. Paris VI W. Zhang, H. Nakanishi, J. Sakakibara, V. Spandan, R. Verzicco, D. Lohse Cascade P.Perlekar, N. Pal, R. Pandit mixture fluid Y. Takagi, S. Okamoto S. Takagi M23. Biofluids: Undulatory M23.07 Amplitude transitions of M23.08 Flexibility, stroke, and M23.09 Swimming sheet in a M23.10 Swimming Speeds of Swimming in Newtonian and swimmers and flexors in viscoelastic dimensionless parameters: the Newtonian fluid confined by a Filaments in Viscous Fluids with Non-Newtonian Fluids fluids R. Guy, B. Thomases importance of telling the whole story for Brinkman medium S. Mirbagheri, Resistance N. Ho, S. Olson Room: 300 swimming micro-organisms in complex H. Fu Chair: A. Ardekani, Purdue U. fluids B. Thomases, R. Guy M24. Biofluids: M24.07 Hemodynamics in an Aorta M24.08 A numerical investigation of M24.09 Tubular Heart Pumping M24.10 Effect of Trabeculae on the Cardiovascular Disease II with Bicuspid and Trileaflet Valves a simplified human birth model Mechanisms in Ciona Intestinalis Hemodynamics of an Embryonic Left Room: 302 A. Gilmanov, F. Sotiropoulos R. Pealatere, A. Baumer, L. Fauci, N. Battista, L. Miller Ventricle V. Vedula, J. Lee, T. Hsiai, Chair: Z. Keshavarz-Motamed, MIT M. Leftwich A. Marsden M25. Biofluids: Transport and M25.07 Platelets aggregation in M25.08 A simple numerical model M25.09 Three-dimensional flow and Control pathological conditions: role of local for membrane oxygenation of an vorticity transport in idealized airway Room: 304 shear rates and platelet activation artificial lung machine S. Subraveti, model from laminar to turbulent Chair: A. Gao, MIT delay time. H. Li, A. Zarif Khalili P.Sai, V. Viswanathan Pillai, B. Patnaik regimes S. Jalal, T. Van de Moortele, Yazdani, G. Karniadakis A. Nemes, A. Eslam Panaha, F. Coletti Break, 10:10–10:40 M26. Biofluids: Medical M26.07 Computational modeling of M26.08 Flow diversion and coil M26.09 Computational fluid Devices Endovascular Chemofiltration device embolization may perform best in dynamics evaluation of incomplete Halls C and D Room: 306 for removing toxins from blood conjunction for treatment of intracranial stent apposition in a tapered artery Chair: J. Marston, Texas Tech U. V. Rayz, B. Tompkins, A. Chin, A. Patel, aneurysms: a hemodynamic E. Poon, V. Thondapu, A. Ooi, S. Hetts investigation R. Damiano, D. Ma, U. Hayat, P.Barlis, S. Moore A. Siddiqui , H. Meng

How To Efficiently Sample Modal Energy Flow Analysis Flow classification using Image Processing Method of M27. Experiments: Analysis, M27.07 M27.08 M27.09 M27.10 Refreshment Image Processing and Data For Computation Of Statistics the Highly Modulated Wake of a machine learning on sparsely sampled the Motion-Capturing PSP/TSP for the Algorithms B. Smith, D. Neal Wall-mounted Square-based Pyramid experimental flow visualization data Measurement of a Free-Flight Object Room: 308 R. Martinuzzi, Z. Hosseini, B. Noack Z. Bai, S. Brunton, B. Brunton, J. Kutz, M. Ishii, H. Goya, T. Miyazaki, Chair: B. Epps, Dartmouth E. Kaiser, A. Spohn, B. Noack H. Sakaue M28. Experiments: M28.07 A method for extracting the M28.08 Study of gas-liquid flow in M28.09 Measuring turbulent fluid M28.10 Improvements of a Visualization, Tagging and turbulence intensity and integral length model porous media for dispersion using laser induced nano-scale crossed hot-wire for high Tracking scale form single-component molecular heterogeneous catalysis M. Francois, phosphorescence D. van der Voort, Reynolds number measurements Room: 309 tagging velocimetry D. Olson, H. Bodiguel, P.Guillot N. Dam, W. van de Water, R. Kunnen, Y. Fan, M. Hultmark Chair: J. Gregory, The Ohio State U. A. Naguib, M. Koochesfahani H. Clercx, G. van Heijst M29. Geophysical Fluid M29.07 Free fingering at the contact M29.08 Formation of snow M29.09 The dynamics of a M29.10 Turbulent plumes from ice Dynamics: Cryosphere and between spreading viscous fluids penitentes by radiative instabilities suspension of solidifying, buoyant ice melting into a linearly stratified ocean Ice-Ocean Interactions J. Neufeld, L. Gell, F. Box W. Rohlfs crystals D. Rees Jones, A. Wells A. Wells, S. Magorrian Room: 310 Chair: C. Meyer, Harvard U. M30. Geophysical Fluid M30.07 Vorticity models for gravity M30.08 On the propagation of a M30.09 Intrusive gravity currents M30.10 Front conditions for gravity Dynamics: Gravity Currents currents propagating into two-layer gravity current into a fluid with interacting with obstacles in a currents in channels of general Room: 311 stratified ambients M. Khodkar, horizontal and vertical density gradient continuously stratified environment cross-section: some general Chair: C. Cenedese, WHOI M. Nasr-Azadani, E. Meiburg H. Pham, S. Sarkar J. Zhou, S. Venayagamoorthy conclusions M. Ungarish

106 Tuesday Morning, 24 November 2015 Session 09:18 09:31 09:44 09:57 10:10 M31. Waves: Internal and M31.07 Linear waves in two-layer M31.08 An experimental M31.09 Nonlinear effects on internal M31.10 Boundary forced internal Interfacial Waves fluids over periodic bottoms J. Yu, investigation of evanescent wave reflection at an interface waves in a non-uniform stratification: Room: 312 L. Maas wave propagation through a turning J. McHugh diminution and resonant pathways to Chair: M. R. Allshouse, U. of Texas at depth A. Lee, J. Crockett instability S. Ghaemsaidi, T. Peacock Austin M32. Drops: Impact on M32.07 Numerical Study of M32.08 Droplet Impact on Inclined M32.09 Drop impact of microbubbles M32.10 Creating a urine black hole Surfaces High-Speed Droplet Impact on Surfaces for Forensic Bloodstain suspensions J. Fernandez, R. Hurd, Z. Pan, A. Meritt, J. Belden, Room: 313 Surfaces and its Physical Cleaning Analysis M. Smith, M. Lockard, F. Campo-Cortes T. Truscott Chair: S. Rubinstein, Harvard U. Effects T. Kondo, K. Ando G. Neitzel M33. Drops: Walking Drops M33.07 The uncertain trajectory of a M33.08 Orbiting pairs of walking M33.09 Onset of chaos in orbital M33.10 Orbiting droplets on a Room: Ballroom A pilot-wave A. Nachbin droplets E. Siefert, J. Bush, A. Oza pilot-wave dynamics L. Tambasco, vibrated bath N. Sampara, L. Burger, Chair: J. Bush, MIT D. Harris, A. Oza, R. Rosales, J. Bush T. Gilet Break, 10:10–10:40 M35. Drops: General M35.07 Optical whispering gallery M35.08 Washing wedges: a capillary M35.09 Generation of highly-viscous M35.10 From bubble bursting to Halls C and D Room: Ballroom B mode induced interface deformation of instability in a gradient of confinement microjets Y. Tagawa, H. Onuki, Y. Oi droplet evaporation in the context of Chair: T. Truscott, Utah State U. liquid droplets P.Zhang, S. Jung, L. Keiser, R. Herbaut, J. Bico, champagne aerosols T. Seon, Y. Xu, A. Lee E. Reyssat E. Ghabache, A. Antkowiak, G. Liger-Belair

Adding Some Gas Can Linear Stability Analysis of Photoacoustic shock wave Drop fragmentation by M36. Bubbles: Cavitation, M36.07 M36.08 M36.09 M36.10 Refreshment Acoustics and Biomedical I Completely Change How an Object in an Acoustically Vaporized Droplet emission and cavitation from structured laser-induced cavitation bubbles Room: Ballroom C a Liquid-Filled Housing Responds to J. Siddiqui, A. Qamar, R. Samtaney optical fiber tips M. Mohammadzadeh, S. Gonzalez-A, P.Kerssens, C. Ohl Chair: P. Marston, Washington State U. Vibration J. Torczynski, T. O’Hern, S. Gonzalez Avila, Y. Wan, X. Wang, J. Clausen H. Zheng, C. Ohl M39. General Fluid Dynamics: M39.07 Golf in the Wind: Exploring M39.08 Resonance wave pumping Obstacles and Boundaries the Effect of Wind on the Accuracy of with surface waves R. Carmigniani, Room: Back Bay C Golf Shots N. Yaghoobian, R. Mittal M. Gharib, D. Violeau Chair: M. Plesniak, George Washington U. M40. Focus Session: M40.07 Drag reduction of flexible M40.08 Drag reduction by M40.09 Impacts of the M40.10 Reconfiguration of tree Reconfiguration beams in shear flow T. Leclercq, E. de reconfiguration of a full tree in a wind Reconfiguration of Flexible Plants on architecture under the effect of wind, Room: Back Bay D Langre tunnel E. de Langre, L. Tadrist, the Structure of Turbulence and competition for light, and annual growth Chair: F. Gosselin, Ecole T. Leclercq, P.Hemon, X. Amandolese, Dispersion of Particles Y. Pan, C. Eloy Polytechnique de Montreal M. Saudreau, A. Marquier, G. Knapp, E. Follett, M. Chamecki, H. Nepf, O. Flamand S. Isard

107 108 Tuesday Morning, 24 November 2015

Invited Session N1 10:40 – 11:15, Room: Auditorium Chair: Patrice Le Gal, CNRS Flows Driven By Libration, Precession, And Tides, In Planetary Cores Michael Le Bars, IRPHE, CNRS and Aix-Marseille University, France

Invited Session N34 10:40 – 11:15, Room: Ballroom BC Chair: J. Kim, University of California, Los Angeles New Methods For State Estimation And Adaptive Observation Of Environmental Flow Systems Leveraging Coordinated Swarms Of Sensor Vehicles Thomas Bewley, UCSD Flow Control & Coordinated Robotics Labs

Mini Break, 11:15 – 11:20

Session P1: Francois N. Frenkiel Award Lecture 11:20 – 11:40, Room: Auditorium Chair: Sutanu Sarkar, University of California, San Diego Francois N. Frenkiel Award Talk: Swimming Bacteria At Complex Interfaces Diego Lopez, LMFA, INSA de Lyon and Eric Lauga, University of Cambridge

Session P34: Andreas Acrivos Dissertation Award Lecture 11:20 – 11:40, Room: Ballroom BC Chair: Sivaramkrishnan Balachandar, University of Florida Acrivos Award Talk Sujit Sankar Datta, California Institute of Technology

Lunch Break, 11:40 – 12:50

109 Tuesday Noon, 24 November 2015 Session 12:50 13:03 13:16 13:29 13:42 13:55 R1. Industrial Applications IV: R1.01 Performance and Near-Wake R1.02 The influence of surface R1.03 The effect of wall proximity on R1.04 Effect of Free Stream R1.05 Experimental/Numerical R1.06 Flow structure in the near Marine Hydrokinetic Energy Flow field of A Marine Hydrokinetic waves on performance characteristics energy harvesting using a pitching and Turbulence on the Performance of a Comparison of Turbine Efficiency and wake of a horizontal axis marine Conversion Turbine Operating in Free surface and wake measurements of a heaving hydrofoil Y. Su, M. Miller, Marine Hydrokinetic Turbine A. Vinod, Wake Structure in an Array of 3 current turbine under steady and Room: Auditorium Proximity A. Banerjee, N. Kolekar horizontal axis marine current turbine S. Mandre, K. Breuer A. Banerjee Scale-Model Marine Hydrokinetic unsteady inflow conditions L. Luznik, Chair: A. Banerjee, Lehigh U. K. Flack, E. Lust, L. Luznik Turbines D. Sale, J. Bates, B. Polagye, E. Lust, K. Flack A. Aliseda R2. Detonation and Explosion R2.01 Detonation Initiation with R2.02 Experimental investigation of R2.03 Exhaust Gas Emissions from R2.04 Investigation of detonation R2.05 Numerical investigation of the R2.06 Dynamics of galloping Room: 101 Thermal Deposition due to Pore turbulent mixing in post-explosion a Rotating Detonation-wave Engine propagation through an array of density effect in modeling detonation detonations: inert hydrodynamics with Chair: J. Zhang, Florida Institute of Collapse in Energetic Materials - environment J. Smith, M. Hargather K. Kailasanath, D. Schwer random discrete energy sources using propagation in high explosives pulsed energy release M. Radulescu, Technology Towards the Coupling between Micro- the reactive Burgers’ analog G. Di C. Chiquete, C. Meyer, M. Short J. Shepherd and Macroscale J. Zhang, T. Jackson Labbio, C. Kiyanda, X. Mi, A. Higgins, N. Nikiforakis, H. Ng R3. CFD: Large Eddy R3.01 Quantifying Numerical R3.02 Pressure-Velocity-Scalar R3.03 Large-eddy simulation of flow R3.04 Large Eddy Simulation of R3.05 Large-eddy simulation of a R3.06 How Many Grid Points Are Simulation II Dissipation due to Filtering in Implicit Filtered Mass Density Function for past a circular cylinder W. Cheng, Multiple Turbulent Round Jets spatially-evolving turbulent mixing layer Required for Time Accurate Room: 102 LES F. Cadieux, J. Domaradzki Large Eddy Simulation of D. Pullin, R. Samtaney, W. Zhang G. Balajee, N. Panchapakesan F. Capuano, P.Catalano, A. Mastellone Simulations? A. Edoh, A. Karagozian, Chair: F. Cadieux, Johns Hopkins U. Compressible Turbulent Flow A. Nouri N. Mundis, V. Sankaran Gheimassi, P.Givi, M. B. Nik, S. B. Pope R4. CFD: Applications II R4.01 Three-dimensional numerical R4.02 Simulation of bubble growth R4.03 A compressible real gas R4.04 Wall-Modeled Large-Eddy R4.05 Computational Fluid Dynamics R4.06 Numerics of surface acoustic Room: 103 simulations of falling films using an and coalescence in reacting polymer eulerian model for LES of fuel sprays Simulation of Turbulent Flow Past an Analysis of Canadian Supercritical wave (SAW) driven acoustic streaming Chair: C. Pain, Imperial College adaptive unstructured mesh C. Pain, foams D. Marchisio, M. Karimi E. Knudsen, E. Doran Airfoil W. Gao, W. Zhang, Water Reactor (SCWR) M. Movassat, and radiation force N. Nama, London Z. Xie, O. Matar R. Samtaney J. Bailey, M. Yetisir R. Barnkob, C. Kahler, F. Costanzo, T. Jun Huang R5. CFD: Uncertainty R5.01 A new paradigm for R5.02 Uncertainty Quantification R5.03 Uncertainty quantification of R5.04 Quantifying Model-Form R5.05 Model-Form Uncertainty R5.06 Assessment of the DNS Data Quantification variable-fidelity stochastic simulation applied to flow simulations in thoracic box model and CFD predictions for Uncertainties in Reynolds Averaged Quantification in RANS Simulation of Accuracy Using RANS-DNS Room: 104 and information fusion in fluid aortic aneurysms A. Boccadifuoco, night-time ventilation in Stanford’s Navier-Stokes Equations: An Wing-Body Junction Flow J. Wu, Simulations J. Colmenares F., Chair: D. Venturi, UC Santa Cruz mechanics D. Venturi, L. Parussini, A. Mariotti, S. Celi, N. Martini, Y2E2 building C. Gorle, G. Iaccarino Open-Box, Physics-Based, Bayesian J. Wang, H. Xiao S. Poroseva, S. Murman P.Perdikaris, G. Karniadakis M. Salvetti Approach H. Xiao, J. Wu, J. Wang, R. Sun, C. Roy R6. CFD: General R6.01 Numerical Simulations of R6.02 An Eulerian-based Bubble R6.03 Direct Numerical Simulation of R6.04 Aiding Design of Wave Energy R6.05 An Assessment of R6.06 The Immersed Interface Room: 105 Curvature Effects in Laminar Channel Dynamics Model for Computational bursting of laminar separation bubbles Converters via Computational Supercavitation Transition using Method for Flow Around Non-Smooth Chair: S. Sowah, Princeton U. Flows S. Sowah, M. Mueller, H. Stone Fluid Dynamics A. Balu, M. Kinzel A. Mitra, O. Ramesh Simulations H. Jebeli Aqdam, Computational Fluid Dynamics Boundaries. Y. Liu, S. Xu B. Ahmadi, M. Raessi, M. Tootkaboni M. Fronzeo, M. Kinzel R7. CFD: Algorithms R7.01 Physical diffusion suppresses R7.02 Diablo 2.0: A modern R7.03 Integral Method for the R7.04 A coarse-grid-projection R7.05 High-order provably stable R7.06 Study of time-accurate Room: 107 the carbuncle instability K. Shi, DNS/LES code for the incompressible Assessment of U-RANS Effectiveness acceleration method for finite-element overset grid methods for hyperbolic integration of the variable-density Chair: J. Powers, U. of Notre Dame A. Jemcov, J. Powers NSE leveraging new time-stepping and in Non-Equilibrium Flows and Heat incompressible flow computations problems, with application to the Euler Navier-Stokes equations X. Lu, multigrid algorithms D. Cavaglieri, Transfer I. Pond, A. Edabi, Y. Dubief, A. Kashefi, A. Staples equations N. Sharan, C. Pantano, C. Pantano T. Bewley, A. Mashayek C. White D. Bodony R8. Microscale Flows: R8.01 Forces on particles in R8.02 Size-selective sorting in R8.03 Drag and diffusion coefficient R8.04 Size-sensitive particle R8.05 In-situ Microfluidic R8.06 MicroPIV measurements of Particles microstreaming flows S. Hilgenfeldt, bubble streaming flows: Particle of a spherical particle attached to a trajectories in three-dimensional Measurement of the Dielectric flows induced by rotating microparticles Room: 108 B. Rallabandi, R. Thameem migration on fast time scales fluid interface S. Hardt, A. Doerr, micro-bubble acoustic streaming flows Constant of Colloidal Particles near a boundary J. Ali, M. Kim Chair: S. Hilgenfeldt, U. of Illinois at R. Thameem, B. Rallabandi, H. Masoud, H. Stone A. Volk, M. Rossi, S. Hilgenfeldt, S. Manafirasi, T. Leary, C. Maldarelli ¨ Urbana-Champaign S. Hilgenfeldt B. Rallabandi, C. Kahler, A. Marin R9. Microscale Flows: R9.01 Simulations of Micropumps R9.02 Using micro-3D printing to R9.03 Inertial microfluidic pump R9.04 Convective flow reversal in R9.05 Chemically generated R9.06 Optimized open-flow mixing: Microfluidic Devices II Based on Tilted Flexible Fibers build acoustically driven P.Kornilovitch, A. Govyadinov, self-powered enzyme micropumps convective transport of micron sized insights from microbubble streaming Room: 109 M. Hancock, N. Elabbasi, M. Demirel microswimmers. N. Bertin, D. Markel, E. Torniainen H. Shum, I. Ortiz-Rivera, A. Agrawal, particles O. Shklyaev, S. Das, B. Rallabandi, C. Wang, L. Guo, Chair: M. Hancock, Veryst Engineering O. Stephan, P.Marmottant, A. Sen, A. Balazs A. Altemose, H. Shum, A. Balazs, S. Hilgenfeldt T. Spelman, E. Lauga A. Sen R10. Convection and R10.01 Aerodynamical sealing by air R10.02 Thermal Convection on an R10.03 Collective motion of multiple R10.04 Mixing and Displacement R10.05 Influence of mushy zone R10.06 Coolant Design System for Buoyancy-Driven Flows: curtains D. Frank, P.Linden Ablating Target I. Mehmedagic, rafts on the Rayleigh-Benard Buoyancy-Driven Exchange Flow constant on the solid-liquid phase Liquid Propellant Aerospike Engines General S. Thangam convection F. Nugroho, D. Martanti, Between Adjacent Zones S. Nabi, change process modeled by M. McConnell, R. Branam Room: 110 R. Pratama, A. Bambang S.U., M. Flynn enthalpy-porosity technique S. Tiari, Chair: D. Frank, U. of Cambridge P.Nurwantoro, D. Artha K M. Mahdavi, S. Qiu

110 Tuesday Noon, 24 November 2015 Session 12:50 13:03 13:16 13:29 13:42 13:55 R11. Convection and R11.01 Experimental Investigation of R11.02 Transient Convection from R11.03 Physical modelling of LNG R11.04 Exchange flow of two R11.05 A cryostat device for liquid R11.06 The shape and behaviour of Buoyancy-Driven Flows: Transport Enhancement in Convective Forced to Natural with Flow Reversal rollover in a depressurized container immiscible Newtonian fluids in a nitrogen convection experiments a horizontal buoyant jet adjacent to a Experimental Studies Air Flow by the Use of a Vortex on a Vertical Flat Plate B. Lance, filled with water D. Maksim, vertical tube P.Varges, F. Nascentes, C. Dubois, A. Duchesne, H. Caps surface H. Burridge, G. Hunt Room: 111 Promoter Y. Jaluria, K. Gomes B. Smith P.Denissenko, A. Hubert, S. Dembele, B. Fonseca, P.de Souza Mendes, Chair: Y. Jaluria, Rugers U. J. Wen M. Naccache R12. Granular Flows: R12.01 Avalanches in a V-shape: R12.02 Continuum modelling of R12.03 Plane shock waves and R12.04 Rarefaction effects in dilute R12.05 Transition in a granular chute R12.06 Nonlinear instability and Fluctuations and Instabilities inverted roll-waves and a curved free piston driven shock waves through Haff’s law in a granular gas L. Reddy, granular Poiseuille flow: Knudsen flow due to periodic and aperiodic convection in a vertically vibrated Room: 200 surface N. Vriend, J. McElwaine granular gases and ensuing pattern M. Alam minimum and temperature bimodality perturbations B.S,K.V granular bed P.Shukla, I. Ansari, Chair: N. Vriend, U. of Cambridge formations N. Sirmas, M. Radulescu A. Mahajan, M. Alam D. van der Meer, D. Lohse, M. Alam R13. Aerodynamics: R13.01 Adjoint-based optimization R13.02 Wing-Fixed PIV and force R13.03 Proper Orthogonal R13.04 On the correlation between R13.05 Effect of advanced and R13.06 A Lagrangian approach to Unsteady Aerodynamics II: for the understanding of the measurements of a large transverse Decomposition of Flow-Field in force production and the flow field delayed rotation on the dominant flow study flow topology around a flapping Flapping and Flexible Wings aerodynamics of a flapping plate gust encounter G. Perrotta Non-Stationary Geometry V. Troshin, around a flapping flat-plate wing pattern and its temporal evolution flat-plate wing S. Krishna, Room: 201 M. Wei, M. Xu A. Seifert, D. Sidilkover, G. Tadmor S. Oz,¨ S. Krishna, K. Mulleners E. Uksul, S. Krishna, K. Mulleners K. Mulleners, M. Green Chair: M. Wei, New Mexico State U. R14. Aerodynamics: General R14.01 Experimental Study of Thin R14.02 Formation Flight: Upstream R14.03 Interaction of a perturbed R14.04 Numerical Investigation of R14.05 Numerical investigation of R14.06 Large-eddy simulation of a Room: 202 and Thick Airfoils at Low Reynolds Influence of a Wing on a Streamwise trailing vortex with a wing G. Fishman, Capability of Self-Starting and the effect of sphere dimples on the turbulent flow over a heavy vehicle with Chair: V. Durgesh, Cal State U. - Numbers V. Durgesh, E. Garcia, Vortex C. McKenna, D. Rockwell D. Rockwell Self-Rotating of a Vertical Axis Wind drag crisis and the Magnus effect drag reduction devices S. Lee, Northridge H. Johari Turbine H. Tsai, T. Colonius J. Li, M. Tsubokura, M. Tsunoda M. Kim, D. You R15. Vortex Dynamics: R15.01 Metriplectic Simulated R15.02 Simulating Multi-scale Fluid R15.03 A high order multi-resolution R15.04 Coupling of a compressible R15.05 The Finite Time Lyapunov R15.06 New Vortex Shedding Theory Annealing P.Morrison, G. Flierl Flows Using Adaptive Mesh solver for the Poisson equation with vortex particle-mesh method with a Exponent Field of N Interacting Criteria for Low Order Models of Room: 203 Refinement Methods K. Rowe, application to vortex methods near-body compressible discontinuous Vortices in the Zero Viscosity Limit Unsteady Plate Motion F. Manar, Chair: P. J. Morrison, U. of Texas at K. Lamb M. Hejlesen, H. Spietz, J. Walther Galerkin solver P.Parmentier, R. Galvez, M. Green A. Jones Austin G. Winckelmans, P.Chatelain, K. Hillewaert R16. Flow Instability: R16.01 On the influence of initial R16.02 Features of the Interface R16.03 Self-similar rupture of thin R16.04 Competing disturbance R16.05 Instability of floating R16.06 Flow patterns in free liquid Interfacial and Thin Films V geometry on the evolution of liquid Equation Coupling Thin and Thick Film free films of power law fluids S. Thete, amplification mechanisms in two-fluid extensional flows R. Sayag, film caused by thermocapillary effect Room: 204 filaments L. Kondic, K. Mahady, Regimes in Conduction-Triggered C. Anthony, O. Basaran, P.Doshi boundary layers S. Saha, J. Page, G. Worster I. Ueno, L. Fei, Y. Kowata, T. Kaneko, Chair: L. Kondic, New Jersey Institute S. Afkhami Thermocapillary Flows Z. Nicolaou, T. Zaki D. Pettit of Technology S. Troian R17. Flow Instability: R17.01 Predator-prey effective R17.02 Linear stability analysis of R17.03 Transition to turbulence in R17.04 Turbulent structures in R17.05 Turbulent structures in R17.06 Determining the universality Transition to Turbulence model for the laminar-turbulent flows in a grooved channel pipe flow as a phase transition Kolmogorovian shear flows: DNS Kolmogorovian shear flows: Models class of the transition to turbulence Room: 205 transition in a pipe H. Shih, T. Hsieh, A. Mohammadi, J. Floryan M. Vasudevan, B. Hof L. Tuckerman, M. Chantry, D. Barkley M. Chantry, L. Tuckerman, D. Barkley G. Lemoult, B. Hof Chair: N. Goldenfeld, U. Illinois N. Goldenfeld Urbana-Champaign R18. Boundary Layers: R18.01 Traces of surfactants limit the R18.02 Effect of Interface Curvature R18.03 Skin-Friction Drag Reduction R18.04 Effects of the pitch length of R18.05 Pool boiling thermal R18.06 Direct Numerical Simulation Superhydrophobic Surfaces drag reduction potential of on Super-Hydrophobic Drag Reduction over Super-Hydrophobic Materials in superhydrophobic surfaces on the transport through micro-patterned of turbulent flows over Room: 206 superhydrophobic surfaces in realistic A. Rastegari, R. Akhavan Fully-Developed Turbulent Flow effective slip length and skin-friction metal superhydrophobic surfaces superhydrophobic surfaces: capillary Chair: J. Crockett, Bringham Young U. applications F. Peaudecerf, J. Landel, J. Gose, K. Golovin, S. Ceccio, drag T. Jung, H. Choi, J. Kim M. Searle, D. Maynes, J. Crockett waves on gas-liquid interface J. Seo, P.Luzzatto-Fegiz M. Perlin, A. Tuteja R. GarcIa-Mayoral´ , A. Mani R19. Turbulence: Theory II R19.01 A Generalized Brownian R19.02 Turbulent Damping without R19.03 Two-point Spectral Modeling R19.04 Irreversibility and small-scale R19.05 On the power law of passive R19.06 The structure of energy Room: 207 Motion Model for Turbulent Relative Eddy Viscosity S. Thalabard of Anisotropic Rapid Distortion generation in 3-dimensional turbulent scalars in turbulence T. Gotoh, transfer in homogeneous turbulence Chair: B. Shivamoggi, U. Central Particle Dispersion B. Shivamoggi T. Clark, S. Kurien, R. Rubinstein, flows A. Pumir, H. Xu, R. Grauer, T. Watanabe J. Cardesa, A. Vela-Martin, Florida C. Zemach E. Bodenschatz A. Lozano-Duran, J. Jimenez R20. Turbulence: Theory: R20.01 Streamwise mean flow and R20.02 Modeling height-dependent R20.03 Scaling laws of turbulent R20.04 Properties of the total kinetic R20.05 High Reynolds number R20.06 Large eddy simulation study Wall-Bounded Flows turbulent intensity profiles in turbulent spatio-temporal spectra in Couette flow with wall-normal energy balance in wall-bounded decay of turbulent Taylor-Couette flow of spanwise spacing effects on Room: 208 pipe flow J. Vassilicos, J. Laval, wall-bounded turbulence M. Wilczek, transpiration S. Kraheberger, turbulent flows A. Zhou, J. Klewicki R. Verschoof, S. Huisman, R. van der secondary flows in turbulent channel Chair: J. Christos Vassilicos, Imperial J. Foucaut, M. Stanislas R. Stevens, C. Meneveau M. Oberlack, S. Hoyas Veen, C. Sun, D. Lohse flow M. AliakbariMiyanmahaleh, College London W. Anderson

111 Tuesday Noon, 24 November 2015 Session 12:50 13:03 13:16 13:29 13:42 13:55 R21. Turbulence: DNS R21.01 Energy spectrum in high R21.02 Direct numerical simulation R21.03 A lattice-Boltzmann scheme R21.04 Turbulence structure R21.05 Extreme events and R21.06 Optimization of flow Room: 209 Reynolds number turbulence - high of incompressible acceleration-driven of the Navier-Stokes equations on a 3D subjected to “precession-like” rotation small-scale structure in computational initialization and perturbation forcing Chair: D. Goldstein, U. of Texas at resolution DNS results K. Morishita, variable-density turbulence I. Gat, cuboid lattice H. Min, C. Peng, K. Iyer, I. Mazzitelli, L. Biferale, turbulence X. Zhai, P.Yeung, for fast transition towards fully Austin T. Ishihara, Y. Kaneda, M. Yokokawa, G. Matheou, D. Chung, P.Dimotakis L. Wang F. Bonaccorso K. Sreenivasan developed turbulent channel flow A. Uno X. Wen, C. Peng, L. Wang R22. Turbulent Boundary R22.01 Characteristics of secondary R22.02 The effect of R22.03 Direct numerical simulations R22.04 High Reynolds number R22.05 Coupling between R22.06 Scaling of the wall-pressure Layers: Roughness flows in rough-wall turbulent boundary transitionally-rough surfaces on of the dense regime of roughness rough-wall turbulent boundary layers roughness and freestream acceleration spectrum from turbulent Room: 210 layers C. Vanderwel, near-wall turbulence M. MacDonald, L. Chan, D. Chung, D. Squire, C. Morrill-Winter, M. Schultz, in turbulent boundary layers J. Yuan, boundary-layer flows over rough Chair: C. Vanderwel, U. of B. Ganapathisubramani N. Abderrahaman-Elena, N. Hutchins, A. Ooi N. Hutchins, J. Klewicki, I. Marusic U. Piomelli surfaces N. Chang, J. Forest, J. Rast Southampton R. Garca-Mayoral R23. Biofluids: Red Blood R23.01 The flow of red blood cells in R23.02 Reduced-order models of R23.03 Mesoscopic Modeling of R23.04 Effect of Strain Rate on the R23.05 Chaotic dynamics of red R23.06 Mechanosensing Dynamics Cell Dynamics and Clotting stenosed microvessels and the the coagulation cascade K. Hansen, Blood Clotting: Coagulation Cascade Deformation of Red Blood Cells blood cells in oscillating shear flow of Red blood Cells J. Wan Room: 300 influence of red blood cells on S. Shadden and Platelets Adhesion A. Yazdani, Entering a Constriction J. Mancuso, P.Bagchi, D. Cordasco Chair: X. Yong, State U. of New York wall-bounded rolling motion of Z. Li, G. Karniadakis W. Ristenpart microparticles K. Vahidkhah, P.Balogh, P.Bagchi R24. Biofluids: R24.01 Clinical Assessment of R24.02 Optimization of the Outflow R24.03 Wall shear stress indicators R24.04 The Generation and R24.05 A Computational R24.06 Ansys Fluent versus Sim Cardiovascular Disease III Intraventricular Blood Transport in Graft Position and Angle in a Left in abnormal aortic geometries Propagation of Arterial Murmurs from a Chemo-Fluidic Modeling for the Vascular for 4-D patient-specific Room: 302 Patients Undergoing Cardiac Ventricular Assist Device P.McGah, L. Prahl Wittberg, S. van Wyk, Stenosed Artery: A Computational Investigation of Patient-Specific Left computational hemodynamics in renal Chair: L. Rossini, UC San Diego Resynchronization Therapy A. Prisco, J. Beckman, N. Mokadam, L. Fuchs, E. Gutmark, I. Gutmark-Little Study C. Zhu, J. Seo, H. Bakhshaee, Ventricle Thrombogenesis R. Mittal, arteries A. Mumbaraddi, H. Yu, L. Rossini, et al. C. Mahr, A. Aliseda R. Mittal J. Seo, T. Abd, R. George A. Sawchuk, M. Dalsing R25. Multiphase Flows: R25.01 DNS and Modeling of R25.02 Nucleation of Super-Critical R25.03 Effect of different wall R25.04 Investigation of Gas Holdup R25.05 Turbulent hydraulic jumps: R25.06 A Study of the Influence of Bubbly Flows, Cavitation and Turbulent Gas-Liquid Channel Flows Carbon Dioxide in a Venturi Nozzle boundary conditions on the numerical in a Vibrating Bubble Column Effect of Weber number and Reynolds Numerical Diffusion on Gas-Solid Flow Ventilation G. Tryggvason, M. Ma, J. Lu D. Jarrahbashi, S. Pidaparti, D. Ranjan simulation of bubbling fluidized beds S. Mohagheghian, B. Elbing number on air entrainment and Predictions in Fluidized Beds Room: 304 M. Haghgoo, D. Bergstrom, R. Spiteri micro-bubble generation R. Ghandriz, R. Sheikhi Chair: G. Tryggvason, Notre Dame M. Mortazavi, A. Mani R26. Multiphase Flows: R26.01 Transport of R26.02 Modeling Two-point Particle R26.03 Actuation of interfacial waves R26.04 Flow development R26.05 Droplet Size Distributions R26.06 Modelling the General temperature-velocity covariance in Dynamics of Homogeneous Gas-Solid in oil-water flows K. Park, investigation of concentrated unstable Resulting form Entrainment of Surface Hydrodynamics and Transport in Room: 306 gas-solid flow and its relation to the Flows to describe Clustering and W. Weheliye, M. Chinaud, P.Angeli oil-water dispersions in turbulent pipe Oil Slick by Breaking Waves C. Li, Multiphase Microreactors L. Yang, Chair: S. Subramaniam, Iowa State U. axial dispersion coefficient Stability E. Murphy, M. Mehrabadi, flows V. Voulgaropoulos, W. Weheliye, J. Katz Y. Shi, M. Abolhasani, K. Jensen S. Subramaniam, B. Sun S. Tenneti, S. Subramaniam M. Chinaud, P.Angeli R27. Experiments: Particles, R27.01 Multiple light scattering R27.02 Turbulent crude oil jets in R27.03 Confined nanoparticle R27.04 Multi-camera PIV imaging in R27.05 A Method to Improve the R27.06 Aqueous ammonium Drops, and Bubbles methods for multiphase flow crossflow: holographic measurements measurement using Bessel Beam two-phase flow for improved Accuracy of Particle Diameter thiocyanate solutions as refractive Room: 308 diagnostics J. Estevadeordal of droplet size distributions X. Xue, Microscopy C. Chakraborty, dispersed-phase concentration and Measurements from Shadowgraph index-matching fluids with low density Chair: J. Estevadeordad, N.D. State D. Murphy, J. Katz C. Snoeyink velocity calculation C. Liu, K. Kiger Images M. Erinin, D. Wang, X. Liu, and viscosity B. Morrison, J. Duncan D. Borrero-Echeverry R28. Geophysical Fluid R28.01 Eddy transport of reacting R28.02 Eulerian and Lagrangian R28.03 Levy´ Dynamics of Stretching R28.04 A Dynamical System R28.05 Lagrangian coherent R28.06 Vortex Ring Induce Mixing: A Dynamics: General substances G. Flierl statistics in fully developed rotating in 2-Dimensional Steady Random Flow Approach to the Surface Search of structures in the Gulf Stream Y. Liu, Mixing Model J. Olsthoorn, S. Dalziel Room: 309 turbulent flows. L. Biferale, et al. Fields M. Dentz, T. Le Borgne, Debris from MH370 A. Mancho, C. Wilson, M. Green Chair: G. Flierl, MIT D. Lester, F. de Barros V. Garcia-Garrido, S. Wiggins, C. Mendoza R29. Geophysical Fluid R29.01 Onset and cessation of grain R29.02 Wave-Induced Pressure R29.03 Highly-resolved numerical R29.04 Two-dimensional PIV R29.05 Local and non-local effects R29.06 Improved resuspension flux Dynamics: Sediment motion in fluid-sheared beds A. Clark, Under an Internal Solitary Wave and Its simulations of bed-load transport in a measurements for studying the effect of spanwise finite perturbations in model based on local shear stress and Transport J. Salevan, M. Shattuck, N. Ouellette, Impact at the Bed G. Rivera, turbulent open-channel flow of bed permeability on incipient motion erodible river bathymetries M. Musa, particle Reynolds number Room: 310 C. O’Hern P.Diamesis, J. Jenkins, D. Berzi B. Vowinckel, T. Kempe, V. Nikora, of synthetic sediment particles H. Wu, C. Hill, M. Guala M. Shringarpure, S. Balachandar ¨ Chair: N. Ouellette, Stanford U. R. Jain, J. Frohlich C. Zuniga Zamalloa, J. San Juan Blanco, B. Landry, M. Garcia R30. Astrophysical Fluid R30.01 A New Generalized Thermal R30.02 Zombie Vortex Instability: R30.03 Experimental Simulation of R30.04 Experiments on the impact R30.05 Laboratory Observation of R30.06 A Multiscale Dynamo Model Dynamics Wind Equation and its Application to Effects of Non-uniform Stratification & Buoyancy-Driven Vortical Flow in and turbulent coalescence of a blob at Instabilities in Stratified Taylor-Couette Driven by Quasi-geostrophic Room: 311 Zonal Flows on the Gas Giant Planets Thermal Cooling J. Barranco, S. Pei, Jupiter Great Red Spot a liquid-liquid interface M. Landeau, Flow B. Rodenborn, R. Ibanez, Convection K. Julien, M. Calkins, Chair: P. Marcus, UC Berkeley P.Marcus, J. Tollefson, I. de Pater P.Marcus, C. Jiang H. Makhmalbaf, T. Liu, P.Merati P.Olson, R. Deguen , B. Hirsh H. Swinney S. Tobias, J. Aurnou

112 Tuesday Noon, 24 November 2015 Session 12:50 13:03 13:16 13:29 13:42 13:55 R31. Waves: Surface Waves R31.01 The Wave Carpet: An R31.02 Cloaking water waves via an R31.03 DNS of scalar transfer R31.04 Laboratory measurements of R31.05 Influence of wave age on the R31.06 Surface waves in a square Room: 312 Omnidirectional and Broadband Wave elastic buoyant carpet A. Zareei, across an air-water interface during the inception and evolution of Langmuir structure of the airflow above surface container due to its resonant horizontal Chair: M. Alam, U. of California - Energy Converter M. Alam M. Alam inception and growth of Langmuir Turbulence Y. Ma, F. Veron, waves. M. Buckley, F. Veron elliptic motion M. Funakoshi, Berkeley circulation A. Hafsi, A. Tejada-Martinez, A. Hafsi A. Hiramitsu A. Tejada-Martinez, F. Veron, Y. Ma R32. General Fluid Dynamics: R32.01 Thermodynamic Phase R32.02 Heat transfer analysis in R32.03 Convective flow patterns in R32.04 Interpreting global behavior R32.05 Transient growth and its R32.06 Numerical and Experimental Rotating Flows and Transitions and Creeping Flows in rotating sphericall shells A. Cabello, inclined rectangular cavities with of quasi-Keplerian flows as a response consequences in rotating channel flow study of secondary flows in a rotating Multi-Physics Phenomena Cavities M. Kaufman, P.Fodor R. Avila rotation R. Avila, D. Perez-Espejel to boundary forcing E. Edlund, H. Ji S. Jose, V. Prasad, B. Pier, two-phase flow: the tea leaf paradox Room: 313 R. Govindarajan A. Calderer, et al. Chair: M. Kaufman, Cleveland State U. R33. Drops: Wetting and R33.01 Finite time singularity in a R33.02 Spreading of viscoelastic R33.03 The inner region of the R33.04 Numerical study of liquid-gas R33.05 Bifurcation analysis of the R33.06 Drop spreading on Spreading glass F. Gallaire, F. Viola, B. Dollet, droplets Y. Wang, D. Minh, G. Amberg moving contact line - diffusive and flow on complex boundaries S. Wang, behavior of partially wetting liquids on under-liquid substrates: Inertial to Room: Ballroom A P.Brun nanoscale models A. Nold, D. Sibley, O. Desjardins a rotating cylinder D. Tseluiko, T. Lin, Viscous Regimes N. Gunda, S. Mitra, Chair: F. Gallaire, EPFL B. Goddard, S. Kalliadasis U. Thiele S. Mitra R35. Drops, Bubbles and R35.01 The Effect of Slight R35.02 Colloidal building blocks R35.03 Bursting of a bubble confined R35.04 Approaching behavior of a R35.05 Coalescence preference in R35.06 Parallelizable flood fill Foams: Collective Dynamics Deformation on Binary Interactions of made with microfluidics J. Ricouvier, in between two plates M. Murano, pair of spherical bubbles in quiescent dense packing of bubbles Y. Kim, algorithm and corrective interface Room: Ballroom B Sedimenting Drops with Partially P.Tabeling N. Kimono, K. Okumura liquids T. Sanada, H. Kusuno B. Gim, . Lim, B. Weon tracking approach applied to the Chair: M. Rother, U. of Minnesota Mobile Interfaces M. Rother simulation of multiple finite size Duluth bubbles merging with a free surface N. Lafferty, H. Badreddine, B. Niceno, H. Prasser R36. Bubbles: Dynamics R36.01 Rising motion of a bubble R36.02 Bubble dynamics in a R36.03 Simulations of Non-spherical R36.04 Bubbles in a R36.05 From viscous to elastic R36.06 Modelling of bubble Room: Ballroom C layer near a vertical wall S. Dabiri, variable gap Hele-Shaw cell Bubble Collapse Dynamics in Viscous superhydrophobic tube H. de sheets: Dynamics of smectic bubbles trajectories in a pump impeller Chair: S. Dabiri, Purdue U. P.Bhuvankar S. Piedra, R. Domiguez, E. Ramos and Viscoelastic Media Near a Maleprade, C. Clanet, D. Quere K. Harth, T. Trittel, D. van der Meer, M. Dupoiron, P.Linden Compliant Object M. Rodriguez, R. Stannarius E. Johnsen R37. Biofluids: Swimming R37.01 Diving birds C. Clanet, R37.02 Calanoid Copepod Behavior R37.03 Larvacean kinematics: a R37.04 Studying large jellyfish R37.05 Mechanical and scaling R37.06 Flapping, wobbling, and Animals l. masson, G. McKinley, R. Cohen in Thin Layer Shear Flows: Freshwater biological model of flapping flexible foils swimming hydrodynamics using a considerations for efficient jellyfish zig-zagging: Tomographic PIV Room: Back Bay A Versus Marine A. Skipper, D. Webster, A. Baumer, K. Katija, M. Leftwich biomimetic robot named Cyro 2 swimming A. Hoover, L. Miller, measurements of Antarctic sea Chair: C. Clanet, cole Polytechnique J. Ye n C. Stewart, G. Krummel, A. Villanueva, B. Griffith butterfly “flying” underwater K. Marut, S. Priya D. Adhikari, D. Webster, J. Yen R38. Biofluids: Flexible R38.01 Application of PIV-based R38.02 Non-invasive 3D geometry R38.03 Resistive and reactive force R38.04 Optimality Principles of R38.05 The Hydrodynamics of R38.06 Fluid Dynamics of Swimmers III pressure measurements to the study of extraction of a Sea lion foreflipper production in actuated elastic Undulatory Swimming N. Nangia, Plesiosaurs L. Muscutt, Clap-and-Fling with Highly Flexible Room: Back Bay B aquatic propulsion K. Lucas, J. Dabiri, C. Friedman, M. Watson, P.Zhang, swimmers R. Godoy-Diana, R. Bale, N. Patankar B. Ganapathisubramani, G. Dyke, Wings inspired by the Locomotion of Chair: G. Lauder, Harvard U. G. Lauder M. Leftwich M. Pineirua, B. Thiria G. Weymouth Sea Butterflies Z. Zhou, K. Shoele, D. Adhikari, J. Yen, D. Webster, R. Mittal R39. Biofluids: R39.01 Microscopic suspension R39.02 Does the stalk contractility of R39.03 Traction reveals mechanisms R39.04 Propulsion of flexible helical R39.05 The biofouling potential of R39.06 The Effect of Brownian Swimmer-Surface feeders near boundaries: Effects of Vorticella convallaria depend on the of wall-effects for microswimmers near flagella near a rigid boundary flow on corrugated surfaces G. Mino,˜ Motion on the Trajectory of Interactions external water flow R. Pepper, stalk length? E. Chung, S. Ryu boundaries X. Shen, -. Marcos, H. Fu M. Jawed, P.Reis R. Rusconi, V. Kantsler, R. Stocker Diffusiophoretic Locomotors near a Room: Back Bay C M. Koehl Solid Boundary A. Mozaffari, Chair: R. Pepper, U. of Puget Sound N. Sharifi-Mood, J. Koplik, C. Maldarelli R40. Focus Session: R40.01 On the dynamics of flexible R40.02 Mechanisms and models R40.03 Reconfiguration of a flexible R40.04 Effect of herbivore damage R40.05 The reconfiguration of broad R40.06 Reconfiguration parameters Reconfiguration blades in oscillatory flows M. Luhar, which govern bending and fiber immersed in a 2D dense granular on broad leaf motion in wind leaves in strong winds and currents for drag of flexible cylindrical elements Room: Back Bay D H. Nepf reconfiguring of trees under water flow flow close to the jamming transition N. Burnett, A. Kothari L. Miller, A. Hoover, J. Marzuola C. John, B. Wilson, J. Gulliver Chair: M. Luhar, USC action C. Wilson, P.Whittaker E. Kolb, N. Algarra, D. Vandembroucq, A. Lazarus R41. Minisymposium on R41.01 John Leask Lumley: In Memoriam S. Leibovich R41.02 Fine-scale turbulence R41.03 Reduced order modeling of R41.04 POD analysis of turbulent R41.05 Low dimensional modeling of Turbulence in Honor of John induced axial flow and instability of a wall turbulence P.Moin pipe flow A. Smits, L. Hellstrom,¨ wall turbulence N. Aubry L. Lumley vortex column F. Hussain B. Ganapathisubramani Room: Constitution A Chair: N. Aubry, Northeastern U.

113 Tuesday Noon, 24 November 2015 Session 14:08 14:21 14:34 14:47 15:00 15:13 R1. Industrial Applications IV: R1.07 Wake structure of axial-flow R1.08 Estimation of water flow added R1.09 Development of a towing tank R1.10 Experimental and Numerical R1.11 Design of Bi-Directional R1.12 Phase Resolved Angular Marine Hydrokinetic Energy hydrokinetic turbines in tri-frame damping on a propeller turbine blade PIV system and a wake survey of a Study on Performance of Ducted Hydrofoils for Tidal Current Turbines Velocity Control of Cross Flow Turbines Conversion arrangement S. Chawdhary, X. Yang, using numerical simulations marine current turbine under steady Hydrokinetic Turbines with Pre-Swirl I. Nedyalkov, M. Wosnik B. Strom, S. Brunton, B. Polagye Room: Auditorium C. Hill, A. Khosronejad, M. Guala, J. Gauthier, F. P.Gosselin, S. Etienne conditions E. Lust, L. Luznik, K. Flack Stator Blades. A. Gish Chair: A. Banerjee, Lehigh U. F. Sotiropoulos R2. Detonation and Explosion R2.07 Detonation Propagation R2.08 Theory of weakly nonlinear R2.09 On the quasi-one dimensional R2.10 Flame Acceleration and R2.11 Liquid explosions induced by Room: 101 through Nitromethane Embedded multidimensional detonations L. Faria, structure of the cellular detonation in a Transition to Detonation in Channels X-ray laser pulses C. Stan, et al. Chair: J. Zhang, Florida Institute of Metal Foam B. Lieberthal, W. Maines, A. Kasimov, R. Rosales two-dimensional duct C. Uyeda, G. Goodwin, R. Houim, E. Oran Technology D. Stewart M. Kurosaka, A. Ferrante R3. CFD: Large Eddy R3.07 An improved numerical R3.08 Unstructured finite element R3.09 Large Eddy Simulation of R3.10 Reynolds-constrained R3.11 Energy based hybrid R3.12 A Zonal Hybrid RANS-LES Simulation II scheme for a dynamic LES model simulations of compressible phase Supersonic Cold Flow in Ramp-Cavity large-eddy simulation of compressible turbulence modeling S. Haering, Method with Adaptive Stochastic Room: 102 B. Basara change phenomena E. Shams, Combustor with Fuel Injector flow over a compression ramp R. Moser Forcing E. Parish Chair: F. Cadieux, Johns Hopkins U. F. Yang, Y. Zhang, O. Sahni, Z. Ghiasi, D. Li, J. Komperda, Z. Xiao, L. Chen M. Shephard, A. Oberai F. Mashayek R4. CFD: Applications II R4.07 Streaming Potential and R4.08 Polarizable protein model for R4.09 Polarizable water model for R4.10 Modeling of mesoscopic R4.11 Modeling of Room: 103 Energy Conversion in Nanochannel Dissipative Particle Dynamics Dissipative Particle Dynamics electrokinetic phenomena using advection-diffusion-reaction processes Chair: C. Pain, Imperial College Grafted With Poly-Zwitterion Brushes E. Peter, K. Lykov, I. Pivkin I. Pivkin, E. Peter charged dissipative particle dynamics using transport dissipative particle London J. Patwary, G. Chen, S. Das M. Deng, Z. Li, G. Karniadakis dynamics Z. Li, A. Yazdani, A. Tartakovsky, G. Karniadakis R5. CFD: Uncertainty R5.07 A fast algorithm for the R5.08 Turbulence model form R5.09 Representing Model R5.10 Uncertainty Quantification of R5.11 Impact of uncertainties in free R5.12 Stochastic sensitivity analysis Quantification estimation of statistical error in DNS (or uncertainty quantification in Inadequacy in Combustion the Dynamic Mode Decomposition stream conditions on the aerodynamics to grid resolution and modeling in LES Room: 104 experimental) time averages OpenFOAM Z. Hao, S. Zeoli, Mechanisms of Laminar Flames A. DeGennaro, S. Dawson, C. Rowley of a rectangular cylinder A. Mariotti, of the flow around a rectangular ´ Chair: D. Venturi, UC Santa Cruz P.Luchini, S. Russo L. Bricteux, C. Gorle R. Morrison, R. Moser, T. Oliver P.Shoeibi Omrani, J. Witteveen, cylinder M. Salvetti, L. Siconolfi, M. Salvetti A. Mariotti R6. CFD: General R6.07 Computational Framework for R6.08 Lagrangian Proper Orthogonal R6.09 Simulations of incompressible Room: 105 a Fully-Coupled, Decomposition of the Wake Navier Stokes equations on curved Chair: S. Sowah, Princeton U. Collocated-Arrangement Flow Solver Downstream of a Cylinder J. Rossetti, surfaces using discrete exterior Applicable at all Speeds C. XIao, M. Green, J. Dannenhoffer calculus R. Samtaney, M. Mohamed, F. Denner, B. van Wachem A. Hirani R7. CFD: Algorithms R7.07 Spatially-Anisotropic Parallel R7.08 A Fully Conservative and R7.09 Characteristic-based Volume R7.10 Implementing Multiscale Fluid R7.11 A low-dissipation numerical Room: 107 Adaptive Wavelet Collocation Method Entropy Preserving Cut-Cell Method Penalization Method for Arbitrary Mach Simulations using Multiscale Universal scheme on Voronoi grids for complex Chair: J. Powers, U. of Notre Dame O. Vasilyev, E. Brown-Dymkoski for Incompressible Viscous Flows on Flows Around Moving and Deforming Interface Y. Tang, S. Kudo, X. Bian, geometries F. Ham, S. Bose, Staggered Cartesian Grids V. Le Complex Geometry Obstacles Z. Li, G. Karniadakis B. Hejazi, V. Mittal Chenadec, Y. Bay N. Kasimov, E. Brown-Dymkoski, O. V. Vasilyev R8. Microscale Flows: R8.07 Hydrodynamic repulsion of R8.08 Collective effects in the R8.09 High-Throughput, R8.10 Continuous size separation of R8.11 Control of Lateral Inertial Particles elastic dumbbells M. Ekiel-Jezewska, flotation of electrically charged Motility-Based Sorter for micro/nano particles using ridged Migration Rate of Particles in Room: 108 M. Bukowicki, M. Gruca particles at an interface D. Lee, Microswimmers and Gene Discovery microchannel by controlling particle Microchannels A. Karimi, R. Roy, Chair: S. Hilgenfeldt, U. of Illinois at P.Cictua, D. Vella Platform J. Yuan, D. Raizen, H. Bau position in the z-direction S. Bray, D. Di Carlo Urbana-Champaign B. Tasadduq, G. Wang, W. Mao, W. Lam, A. Alexeev, A. Sarioglu, T. Sulchek R9. Microscale Flows: R9.07 Magnetically Actuated Cilia for R9.08 3D flow focusing for R9.09 Viscoelastic focusing and R9.10 Paper-based flow fractionation R9.11 Fabrication of R9.12 Roll-to-Roll Nanoimprint Microfluidic Devices II Microfluidic Manipulation microfluidic flow cytometry with separation of bioparticles in straight system for preconcentration and thermo-responsive microfluidic Lithography Simulations for Flexible Room: 109 S. Hanasoge, D. Owen, M. Ballard, ultrasonics V. Gnyawali, E. Strohm, microchannels G. Hu, C. Liu field-flow fractionation. S. Hong, membrane using photopolymerization Substrates A. Spann, A. Jain, Chair: M. Hancock, Veryst Engineering P.Hesketh, A. Alexeev Y. Daghighi, M. Van de Vondervoort, R. Kwak, W. Kim patterning H. Kim, S. Lee R. Bonnecaze M. Kolios, S. Tsai R10. Convection and R10.07 Bounds on heat transport in Buoyancy-Driven Flows: Rayleigh’s and related models of General Benard´ convection C. Doering, Room: 110 A. Souza, B. Wen, G. Chini, Chair: D. Frank, U. of Cambridge R. Kerswell

114 Tuesday Noon, 24 November 2015 Session 14:08 14:21 14:34 14:47 15:00 15:13 R11. Convection and R11.07 Dissolution patterns on R11.08 Spatio-temporal Buoyancy-Driven Flows: caramel blocks C. Cohen, J. Derr, intermittency in stratified shear flow: Experimental Studies M. Berhanu, S. Courrech du Pont effects of Prandtl number A. Lefauve, Room: 111 P.Linden Chair: Y. Jaluria, Rugers U. R12. Granular Flows: R12.07 Low-frequency oscillation in R12.08 Motion of a Short Granular R12.09 Transverse Diffusion in R12.10 On creating macroscopically R12.11 Rare events in granular R12.12 Evolution of injected air Fluctuations and Instabilities a narrow vibrated granular system Polymer in Vibrations P.Huang, J. Wu, Bedload Transport O. Devauchelle, identical granular systems with media: a volcanic-like explosion stream in granular bed R. Maiti, Room: 200 L. Oyarte Glvez, D. van der Meer C. Tao, Y. Chen, J. Tsai A. Abramian, G. Seizilles, different numbers of particles D. van E. Khain, L. Sander G. Das, p. Das Chair: N. Vriend, U. of Cambridge E. Lajeunesse der Meer, N. Rivas R13. Aerodynamics: R13.07 Vortical Flow Structures in R13.08 Chord-wise Tip Actuation on R13.09 Efficient passive pitching R13.10 On the thrust performance of R13.11 Locomotion of a flapping R13.12 Thrust and Lift generation of Unsteady Aerodynamics II: the Near-Wake of a Heaving Airfoil with Flexible Flapping Plates N. Martin, motion caused by elastic deformation a 2D flapping foil in a forward flight flexible plate in ground effect X. Lu, heaving and pitching oscillating foil Flapping and Flexible Wings Passively Actuated Leading and M. Gharib in flexible flapping wing MAVs condition S. Dash, K. Lua, T. Lim C. Tang propulsion in ground effect Room: 201 Trailing Flaps. F. Siala, A. Totpal, T. Nguyen, T. Truong, K. Yeo, T. Lim A. Mivehchi, J. Dahl, S. Licht Chair: M. Wei, New Mexico State U. J. Liburdy R14. Aerodynamics: General R14.07 On the lift increments with R14.08 Reynolds number effects on R14.09 Reynolds Number Effects on R14.10 Numerical Investigations of R14.11 Comparative Study of Airfoil R14.12 A Computational Modeling Room: 202 the occurrence of airfoil tones at low flow over twisted cylinder with drag Helicopter Rotor Hub Flow D. Reich, an Optimized Airfoil with a Rotary Flow Separation Criteria N. Laws, Mystery Involving Airfoil Trailing Edge Chair: V. Durgesh, Cal State U. - Reynodls numbers T. Ikeda, reduction and vortex suppression S. Willits, S. Schmitz Cylinder K. Gada, H. Rahai W. Kahouli, B. Epps Treatments Y. Choo, B. Epps Northridge D. Fujimoto, A. Inasawa, M. Asai J. Jung, H. Yoon R15. Vortex Dynamics: R15.07 Vorticity Curvature Criterion R15.08 A higher-order asymptotic R15.09 Classification and transitions R15.10 Construction of initial R15.11 Contour surgery in R15.12 Added mass and critical Theory for the Identification of formula for velocity of a viscous vortex of streamline topologies of structurally vortex-surface fields and Clebsch multiply-connected domains mass in vortex induced vibration Room: 203 Two-Dimensional Vortex Structures pair Y. Fukumoto, U. Habibah stable incompressible flows T. Sakajo, potentials for flows with high-symmetry R. Nelson E. Konstantinidis Chair: P. J. Morrison, U. of Texas at J. Elsas, L. Moriconi T. Yokoyama using first integrals P.He, Y. Yang Austin R16. Flow Instability: R16.07 A Combined R16.08 Breakup of partially wetting R16.09 Surface tension gradient R16.10 Two layer flow between R16.11 Laminar flow over a Interfacial and Thin Films V Lagrangian-Thin Film Model for nanoscale nematic liquid films M. Lam enhanced thin film flow for particle corrugated electrodes E. Dubrovina, three-dimensional thin film T. Ward Room: 204 Investigating Film to Rivulet Transition deposition J. Gilchrist, K. Joshi, R. Craster, D. Papageorgiou Chair: L. Kondic, New Jersey Institute on Surfaces with Various Wettabilities T. Muangnapoh, M. Stever of Technology M. Tembely, I. Dizon, A. Dolatabadi R17. Flow Instability: R17.07 The behavior of R17.08 New experiment in Plane R17.09 WITHDRAWN . R17.10 Transition to turbulence in Transition to Turbulence droplet-laden pipe flow at the onset of Poiseuille flow with zero mean pulsatile pipe flow B. Hof, D. Xu Room: 205 turbulence K. Winters, E. Longmire advection velocity: observation of Chair: N. Goldenfeld, U. Illinois stationary turbulent spots L. Klotz, Urbana-Champaign G. Lemoult, J. Wesfreid R18. Boundary Layers: R18.07 Velocity and Reynolds R18.08 Lift and Drag Measurements R18.09 Turbulent boundary layer R18.10 Superhydrophobic surfaces R18.11 Direct Numerical Simulation R18.12 Enhanced convective Superhydrophobic Surfaces Stress Profiles in The Inner Part of a of Superhydrophobic Hydrofoils over a convergent and divergent in turbulent channel flow Y. Li, of Superhydrophobic Surfaces transport from an isothermal circular Room: 206 Turbulent Boundary Layer over S. Sur, J. Kim, J. Rothstein superhydrophobic surface K. Mahesh K. Alame, K. Mahesh cylinder with hydrodynamic slip Chair: J. Crockett, Bringham Young U. Super-Hydrophobic Surfaces H. Ling, M. Nadeem, J. Hwang, H. Sung boundary condition N. Abdul J. Katz, S. Srinivasan, G. McKinley Rehman, R. Shukla R19. Turbulence: Theory II R19.07 Large Deviation Statistics of R19.08 Spatial-temporal spectra of R19.09 Effects of the mean velocity R19.10 Scaling of Lyapunov R19.11 Intermittency in an ensemble R19.12 Dynamical similarities of the Room: 207 Vorticity Stretching in Isotropic velocity fluctuations in turbulent shear field on the renormalized turbulent Exponents in Homogeneous, Isotropic of Gaussian velocity fields with direct and inverse turbulent cascades Chair: B. Shivamoggi, U. Central Turbulence P.Johnson, C. Meneveau flows G. He, T. Wu, X. Zhao viscosity and correlation function Turbulence P.Mohan, N. Fitzsimmons, fluctuating characteristic scales A. Vela-Martin, J. Jimenez Florida A. Kumar, M. Verma R. Moser L. Lukassen, M. Wilczek R20. Turbulence: Theory: R20.07 Finite Reynolds number R20.08 Transport of heat and R20.09 Isotropic boundary adapted R20.10 A Reduced Nonlinear Model R20.11 Non-unique frictional drag in R20.12 Mean dynamics of a Wall-Bounded Flows properties of a turbulent channel flow momentum in oscillatory wall-bounded wavelets for coherent vorticity of Wall-Bounded Shear Flow turbulent plane Couette flows turbulent plane wall jet F. Mehdi, Room: 208 similarity solution J. Klewicki, flow A. Ebadi, D. Biles, C. White, extraction in turbulent channel flows Turbulence B. Farrell, P. Ioannou, D. Zhang, G. Gioia, P.Chakraborty J. Klewicki Chair: J. Christos Vassilicos, Imperial M. Oberlack I. Pond, Y. Dubief M. Farge, T. Sakurai, K. Yoshimatsu, M. Nikolaidis, A. Lozano-Duran, College London K. Schneider, K. Morishita, T. Ishihara J. Jimenez, D. Gayme, V. Thomas

115 Tuesday Noon, 24 November 2015 Session 14:08 14:21 14:34 14:47 15:00 15:13 R21. Turbulence: DNS R21.07 The effect of spatial R21.08 A numerical study of R21.09 The intense vorticity R21.10 Direct Numerical Simulations R21.11 A constant-energy Room: 209 discretization upon traveling wave body turbulence under time-dependent structures in isotropic turbulence with a of Sound-Orifice-Boundary Layer physical-space forcing method for Chair: D. Goldstein, U. of Texas at forcing of a turbulent wall-bounded flow axisymmetric contraction and “Carreau-Yasuda” fluid A. Ghira, Interaction Q. Zhang, D. Bodony steadier statistics and faster Austin S. You, D. Goldstein subsequent relaxation M. Clay, C. Silva convergence to P.Yeung, Z. Warhaft homogeneous-isotropic turbulence M. Bassenne, J. Urzay, G. Park, P.Moin R22. Turbulent Boundary R22.07 Turbulent boundary layer R22.08 Micro PIV measurements of R22.09 Turbulent shear-flow over R22.10 DNS study of amplitude R22.11 Amplitude modulation of R22.12 A phenomenological model Layers: Roughness over 2D and 3D large-scale wavy walls turbulent flow over 2D structured fractal arrays of surface-mounted modulation statistics of turbulent streamwise velocity fluctuations in the for the roughness function in turbulent Room: 210 L. Chamorro, A. Hamed, L. Castillo roughness J. Hartenberger, M. Perlin cubes D. Wise, W. Brevis channel flows over rough walls S. Wu, roughness sublayer: evidence from boundary layers with macro-scale Chair: C. Vanderwel, U. Southampton K. Christensen, C. Pantano large-eddy simulations A. Awasthi, roughness elements. J. Sadique, W. Anderson X. Yang, C. Meneveau, R. Mittal R23. Biofluids: Red Blood R23.07 Shape Recovery of Elastic R23.08 A simple model to R23.09 Quantification of R23.10 Coarse-grained theory to R23.11 Experimental comparison of R23.12 Patient-specific modeling Cell Dynamics and Clotting Red Blood Cells from Shear Flow understand the role of membrane hydrodynamic factors influencing cell predict red blood cell migration in mammalian and avian blood flow in and analysis of dynamic behavior of Room: 300 Induced Deformation in Three shear elasticity and stress-free shape lateral migration S. Nix, Y. Imai, pressure-driven flow at zero Reynolds microchannels K. Fink, D. Liepmann individual sickle red blood cells under Chair: X. Yong, State U. of New York Dimensions Y. Peng, J. Gounley on the motion of red blood cells in T. Ishikawa number Q. Qi, V. Narsimhan, hypoxic conditions X. Li, E. Du, Z. Li, shear flow A. Viallat, M. Abkarian, E. Shaqfeh Y. Tang, L. Lu, M. Dao, G. Karniadakis J. Dupire R24. Biofluids: R24.07 Numerical simulation of R24.08 A Computational Approach R24.09 Intraventricular filling under R24.10 Measurements of flow R24.11 Right Heart 4DMRI Flow R24.12 Right Heart Vorticity and Cardiovascular Disease III hemorrhage in human injury to Model Vascular Adaptation During increasing left ventricular wall stiffness structure interaction in a plaqued Visualization in Normal and Right Ventricular Diastolic Dysfunction Room: 302 K. Chong, C. Jiang, A. Santhanam, Chronic Hemodialysis: Shape and heart rates M. Samaee, H. Lai, artificial artery using an index matched Hypertensive subjects J. Hertzberg, J. Browning, J. Hertzberg, B. Fenster, Chair: L. Rossini, UC San Diego P.Benharash, J. Teran, J. Eldredge Optimization as a Substitute for Growth J. Schovanec, A. Santhanakrishnan, flow facility A. Jain, L. Brock, J. Sheng J. Browning, B. Fenster, J. Schroeder J. Schroeder Modeling S. Mahmoudzadeh Akherat, S. Nagueh M. Boghosian, K. Cassel, M. Hammes R25. Multiphase Flows: R25.07 Effect of cavitation in R25.08 Measurements of Jet Effect R25.09 LES of turbulent cavitation R25.10 Cavitation dynamics on a R25.11 X-ray densitometry based R25.12 On the relationship between Bubbly Flows, Cavitation and high-pressure direct injection on a Ventilated Cavity I. Kirschner, A. Gnanaskandan, K. Mahesh NACA0015 hydrofoil using time void fraction flow field measurements air entrainment, internal flows and Ventilation B. Aboulhasanzadeh, E. Johnsen M. Moeny, M. Krane, M. Kinzel resolved X-ray densitometry of cavitating flow in the wake of a closure mechanism in a ventilated Room: 304 H. Ganesh, J. Wu, S. Ceccio circular cylinder T. Sun, H. Ganesh, supercavity A. Karn, R. Arndt, J. Hong Chair: G. Tryggvason, Notre Dame S. Ceccio R26. Multiphase Flows: R26.07 Linear stability analysis and R26.08 Flow of two immiscible fluids R26.09 Reduced order modelling of R26.10 Two-Phase Flow R26.11 Experimental results and a R26.12 The lifetime of evaporating General direct numerical simulation of two layer in a periodically constricted tube: counter-current two-layer flows Hydrodynamics in Superhydrophobic self-consistent model of evaporation dense sprays A. de Rivas, Room: 306 channel flow K. Sahu, Transitions to stratified, segmented, G. Lavalle, M. Lucquiaud, P.Valluri Channels K. Stevens, J. Crockett, and high heat flux extraction by E. Villermaux Chair: S. Subramaniam, Iowa State U. R. Govindarajan, M. Tripathi churn, spray or segregated flow D. Maynes, B. Iverson evaporating flow in a micro-grooved J. Tsamopoulos, D. Fraggedakis, blade R. Monazami, M. Saadat, Y. Dimakopoulos J. Zhu, H. Haj-Hariri R27. Experiments: Particles, R27.07 Effect of Polymer R27.08 Manipulation of Nano-/Micro R27.09 Experimental study on R27.10 A novel technique to control R27.11 Light Attenuation Method for R27.12 Velocity and size distribution Drops, and Bubbles Confinement on the Film Drainage Particles Using Light-Actuated bi-phase flow Air-Oil in Water Emulsion the bubble formation process in a 3D data acquisition (LAM3D) of bottom measurement of suspension droplets Room: 308 Behavior– An RICM Study S. Borkar, Marangoni Tweezers C. Lu, D. Arnone, P.Poesio co-flow configuration with planar particle deposits J. Er, A. Law, using PDPA technique S. Amiri, Chair: J. Estevadeordad, N.D. State A. Ramchandran S. Varanakkottu, S. Hardt geometry J. Ruiz-Rus, et al. E. Adams, Y. Yang A. Akbarnozari, C. Moreau, A. Dolatabadi R28. Geophysical Fluid R28.07 On accuracy of R28.08 From convection rolls to R28.09 Mixing in the spiral roll state R28.10 The Modified R28.11 Transition to Turbulence in R28.12 Self-similar behavior of Dynamics: General overturn-based estimates of turbulent finger convection in double-diffusive in heat convection between concentric Rayleigh-Benard Convection Problem the Infrared - Revisited R. Leighton, non-planar non-circular gravity currents Room: 309 dissipation in a Luzon Strait model turbulence Y. Yang, R. Verzicco, double spherical boundaries T. Itano, and its Application to Permafrost G. Smith T. Bonometti, N. Zgheib, Chair: G. Flierl, MIT simulation with realistic topography D. Lohse T. Ninomiya, K. Iida, M. Sugihara-Seki Methane Emission Modeling S. Balachandar M. Jalali, V. Chalamalla, S. Sarkar I. Sudakov, S. Vakulenko R29. Geophysical Fluid R29.07 On the intermittency of R29.08 Morphodynamics of a R29.09 Two modes for dune R29.10 Self-similar evolution of 2D R29.11 Large-eddy simulation of R29.12 Scour of Sand-Gravel Dynamics: Sediment sediment transport in conditions near granular bed in a water-filled cylinder orientation S. Courrech du Pont, aquatic dunes over an erodible bed sand dune morphodynamics Beaches in Front of Seawalls Transport the threshold of motion C. Gonzalez, subjected to perturbed oscillations C. Narteau, X. Gao D. Doppler, P.Lagree,´ P.Gondret, A. Khosronejad, F. Sotiropoulos R. Xharde, J. Frandsen, Room: 310 C. Escauriaza, D. Richter, D. Bolster, M. Duran-Matute, T. van Gorp, G. van M. Rabaud O. Gauvin-Tremblay Chair: N. Ouellette, Stanford U. J. Calantoni Heijst R30. Astrophysical Fluid R30.07 Numerical and Statistical R30.08 The Non-linear Saturation of R30.09 Hydromagnetic Dynamics R30.10 Elastorotational instability in R30.11 Stability of an accretion disk: R30.12 Microwaves from Extra Dynamics Simulations of an Idealized Model the Goldreich-Schubert-Fricke and Magnetic Field Enhancement in a Taylor-Couette flow with Keplerian ratio nonlinear small-scale analysis of a Galactic Radio Pulsars are found to Room: 311 Tachocline A. Plummer, S. Tobias, Instability J. Oishi, K. Burns, Turbulent Spherical Couette as analog of the Magnetorotational quasi-Keplerian shear flow B. Miquel, deflect at Impact Parameters Chair: P. Marcus, UC Berkeley B. Marston B. Brown, D. Lecoanet, G. Vasil Experiment D. Stone, M. Adams, Instability I. Mutabazi, Y. Bai, E. Knobloch, K. Julien corresponding to the Plasma Limbs of O. Kara, D. Lathrop O. Crumeyrolle the Sun and Stars E. Dowdye 116 Tuesday Noon, 24 November 2015 Session 14:08 14:21 14:34 14:47 15:00 15:13 R31. Waves: Surface Waves R31.07 PTV measurements of R31.08 Measurements of R31.09 Luneburg modified lens for R31.10 Surfboard Dynamics R31.11 Resonant triad interactions R31.12 Quantifying wave-breaking Room: 312 Lagrangian particle transport by wind-waves under transient wind surface water waves H. Pichard, E. Dehandschoewercker, D. Quere, of acoustc–gravity waves U. Kadri, dissipation using nonlinear Chair: M. Alam, U. of California - surface gravity wave groups T. van conditions. L. Shemer, A. Zavadsky A. Maurel, P.Petitjeans, P.Martin, C. Clanet T. Akylas phase-resolved wave-field simulations Berkeley den Bremer, C. Whittaker, A. Raby, V. Pagneux with a phenomenological-based wave P.Taylor breaking model Y. Qi, D. Yue R32. General Fluid Dynamics: R32.07 Design optimization of a R32.08 Numerical investigation of R32.09 Experimental investigation of R32.10 Leading-edge vortex R32.11 A Multiscale simulation R32.12 Geometrical Scaling of an Rotating Flows and vaneless “fish-friendly” swirl injector for power consumption and mixing time in the flow field and power consumption trajectories under the influence of method for ice crystallization and frost Ablative Bluff Body under Different Multi-Physics Phenomena small water turbines A. Airody, a stirred vessel with regular and characteristics of regular and fractal Coriolis acceleration E. Limacher, growth M. Yazdani Outer Flow Velocity and Temperature Room: 313 S. Peterson multiscale impellers S. Basbug, blade impellers in a dynamic mixer C. Morton, D. Wood Configurations M. Allard, C. White, Chair: M. Kaufman, Cleveland State U. G. Papadakis, C. Vassilicos K. Steiros, P.Bruce, O. Buxton, Y. Dubief J. Vassilicos R33. Drops: Wetting and R33.07 Contact line moving over a R33.08 Effect of Viscous Force on R33.09 Numerical simulations of the R33.10 Non-isothermal spreading R33.11 How to include the nonlinear R33.12 Obtaining macroscopic Spreading sinking sphere S. Kim, J. An, Dynamic Contact Angle Measurement moving contact line problem using a dynamics of self-rewetting droplets Cox-Voinov law into sloshing quantities for the contact line problem Room: Ballroom A K. Fezzaa, T. Sun, S. Jung with Tensiometer S. Houssainy, diffuse-interface model M. Afzaal, D. Mamalis, K. Sefiane, K. Sahu, dynamics? A weakly non linear from Density Functional Theory using Chair: F. Gallaire, EPFL A. Mohammad Karim, P.Kavehpour D. Sibley, A. Duncan, P.Yatsyshin, G. Karapetsas, O. Matar approach F. Viola, P.Brun, F. Gallaire asymptotic methods D. Sibley, M. Duran-Olivencia, A. Nold, N. Savva, A. Nold, S. Kalliadasis M. Schmuck, S. Kalliadasis R35. Drops, Bubbles and R35.07 How does a pressure-driven R35.08 Using DNS and Statistical R35.09 Particle scavenging in a R35.10 The catastrophic failures of Foams: Collective Dynamics foam jam in a straight channel? Learning to Model Bubbly Channel cylindrical ultrasonic standing wave plants hydraulic network examined Room: Ballroom B S. Tewari, K. Menon, R. Govindarajan Flow M. Ma, J. Lu, G. Tryggvason field using levitated drops T. Merrell, trough an model system D. Bienaime,´ Chair: M. Rother, U. of Minnesota J. Saylor P.Marmottant, T. Brodribb Duluth R36. Bubbles: Dynamics R36.07 Bernoulli Suction Effect on R36.08 The formation of soap R36.09 Bubble oscillation regimes R36.10 Three-dimensional numerical R36.11 Rise of an argon bubble in R36.12 Dynamics of rising bubble Room: Ballroom C Soap Bubble Blowing? J. Davidson, bubbles created by blowing on soap including phase change simulations of a bubble rising in an liquid steel in the presence of a inside a viscosity-stratified medium Chair: S. Dabiri, Purdue U. S. Ryu films L. Salkin, A. Schmit, P.Panizza, L. Bergamasco, D. Fuster unbounded weakly viscous fluid transverse magnetic field S. Vanka, M. Tripathi, P.A. R. , K. Sahu L. Courbin J. Cano-Lozano, C. Mart´ınez-Bazan,´ K. Jin, P.Kumar, B. Thomas J. Tchoufag, J. Magnaudet R37. Biofluids: Swimming R37.07 Experimental investigation of R37.08 Bio-inspired robotic legs R37.09 Volumetric flow around a R37.10 Investigation of Thunniform R37.11 Copepod Behavioral R37.12 Hydrodynamic role of Animals crustacean swimming with variation of drive viscous recirculating flows swimming lamprey A. Lehn, S. Colin, Swimming Using Material Testing, Response to Simulated Frontal Flows longitudinal ridges in a leatherback Room: Back Bay A limb structures H. Lai, M. Samaee, D. Takagi, R. Hayashi J. Costello, M. Leftwich, E. Tytell Biomimetic Robotics and Particle D. Webster, A. True, M. Weissburg, turtle swimming K. Bang, J. Kim, Chair: C. Clanet, cole Polytechnique G. Donnell, A. Santhanakrishnan, Image Velocimetry R. Zhu, V. Saraiya, J. Yen, A. Genin S. Lee, H. Choi R. Guy, T. Lewis J. Zhu, G. Lewis, H. Bart-Smith R38. Biofluids: Flexible R38.07 The role of spanwise-flexible R38.08 Strouhal number for free R38.09 A mechanism for efficient R38.10 Thickness-varying flexible Swimmers III propulsors in swimming and flying swimming M. Saadat, T. Van Buren, swimming H. Haj-Hariri, M. Saadat, plunging fins swim more efficiently Room: Back Bay B J. Wong, D. Rival D. Floryan, A. Smits, H. Haj-Hariri A. Brandes, V. Saraiya, H. Bart-Smith Y. Li, P.Yeh, A. Alexeev Chair: G. Lauder, Harvard U. R39. Biofluids: R39.07 Interactions of R39.08 Efficiency of air/liquid R39.09 Microfluidic experiments to R39.10 Living on the edge: transfer R39.11 Position and Trajectrories of R39.12 Coupled Rapid Cell and Swimmer-Surface micro-organisms near a wall in Stokes interfaces in detaching bacteria from a quantify microbes encountering oil and traffic of E. coli in a confined flow helical microswimmers inside circular Lattice Boltzmann Models to Simulate Interactions flow using a regularized image system surface S. Khodaparast, H. Stone water interfaces J. Sheng, m. Jalali, N. Figueroa-Morales, G. Mino,˜ channels H. Caldag, S. Yesilyurt Hydrodynamics of Bacterial Transport Room: Back Bay C J. Huang, S. Olson M. Molaei A. Rivera, R. Caballero, E. Altshuler, in Response to Chemoattractant ´ Chair: R. Pepper, U. of Puget Sound E. Clement, A. Lindner Gradients in Confined Domains C. McKay, H. Nguyen, H. Basagaoglu, A. Carpenter, S. Succi, F. Healy R40. Focus Session: R40.07 Enhancing wind turbines R40.08 Drag reduction by R40.09 Interfering with the wake of R40.10 Catenaries in viscous fluid R40.11 Numerical investigation on Reconfiguration efficiency with passive reconfiguration reconfiguration in gorgonians J. Derr, cylinder by flexible filaments A. Pinelli, J. Hanna, B. Chakrabarti optimizing blast wave focusing effects Room: Back Bay D of flexible blades V. Cognet, B. Thiria, A. Cornelissen, C. Bouchon, M. Omidyeganeh for multiple munitions S. Qiu, Chair: M. Luhar, USC S. Courrech du Pont Y. Bouchon, J. Fournier, L. Moisan, V. Eliasson P.Lopez, S. Douady R41. Minisymposium on R41.06 John Lumley’s Contributions R41.07 My Interactions with John R41.08 On turbulence in a stratified R41.09 A Brief History of the Lumley R41.10 Seismic sounding of R41.11 Decay and Spatial Diffusion Turbulence in Honor of John to Turbulence Modeling S. Pope Lumley on the Subject of Passive environment S. Sarkar ’Projection’ W. George convection in the Sun K. Sreenivasan of Turbulent Kinetic Energy In The L. Lumley Scalars Z. Warhaft Presence of a Linear Kinetic Energy Room: Constitution A Gradient C. Meneveau Chair: N. Aubry, Northeastern U.

117 118 Index of Authors

-- A -- Ahlers, Guenter – L11.2 Ali, Jamel – R8.6 Anderson, Daniel – L1.11 A. R., Premlata – R36.12 Ahlers, Guenter – L41.5 Ali, Naseem – E19.2, G12.8, Anderson, Patrick – M3.3 Aabdin, Zainul – E11.5 Ahmadi, Babak – R6.4 G12.9, R26.9 Anderson, Thomas – D10.1 Aarts, Dirk G.A.L. – E10.6, R6.8 Ahmadi, Farzad – D34.8 AliakbariMiyanmahaleh, Anderson, William – R20.6 Abarzhi, Snezhana – CO5.2, Ahmadzadegan, Adib – M8.4 Mohammad – R20.6 Anderson, William – R22.11 GO5.7, GO5.10, GO5.11, Ahmed, Kareem – E7.3, R36.7 Alibakhshi, Mohammad Amin – Anderson, William – E21.5 GO5.12, D4.6, YP12.3, YP12.4, Ahn, Eunhye – D16.7 G9.6, G9.7 Anderson, William – A21.3 YP12.12, KP1.92, KP1.93, Ahn, Hyungsu – KP1.150 Alimohammadi, Shahrouz – D14.8 Anderson, William – KP1.153 KP1.96, KP1.97, L17.8, L17.9, Ahn, Junsun – D27.3, L22.11 Aliseda, Alberto – D32.2 Andersson, Anders – L6.7 M18.1, M18.2 Ahn, Myung Mo – KP1.66 Aliseda, Alberto – H24.9 Andersson, Helge I. – L20.10 Abawi, Ahmad T. – M36.6 Ahn, Sungsook – D24.10 Aliseda, Alberto – R1.5 Andersson, Robin – L6.7 Abba, Antonella – L8.9 Aikens, Kurt – E22.1, KP1.32, Aliseda, Alberto – M4.5 Ando, Azuma – H28.10 Abbasi, Niki – H2.10, L39.4 KP1.33 Aliseda, Alberto – R24.2 Ando, Keita – H4.8, KP1.40, Abbaspourrad, Alireza – G1.9, Ainsaar, Siim – D20.8 Aliseda, Alberto – G25.7 M15.4, M32.7, M36.3 Z50.5 Airody, Ajith – R32.7 Alizadeh, Shima – H14.10, L3.6 Andreasson, Patrik – L6.7 Abbati, Gabriele – G27.4 Aithal, Shashi – A27.5, M1.1 Alizadehbirjandi, Elaheh – E36.6 Andreini, Nicolas – H10.2 Abd, Thura – R24.5 Ajaev, Vladimir – G18.7 Allaerts, Dries – L12.11 Andreopoulos, Yiannis – H16.3 Abd, Thura T. – L24.6, L24.8 Ajaev, Vladimir – G24.7 Allaire, Ryan – KP2.12 Andreopoulos, Yiannis – D18.5 Abderrahaman-Elena, Nabil – Akbarnozari, Ali – R27.12 Allard, Michael – R32.12, R36.6 Andreopoulos, Yiannis – M13.9 H15.10, R22.2 Akella, Sathish – G28.1, G28.2, Allawala, Altan – KP1.102, Z8.1 Andreopoulos, Yiannis – L14.2 Abdul Rehman, Nidhil Mohamed – G45.7 Allen, Benjamin – M12.7 Andreopoulos, Yiannis – H16.2 R18.12 Akhavan, Rayhaneh – E20.1 Alley, Philip – L16.9 Andreou, Andreas – L24.11 Abe, Hiroyuki – H27.3, H37.3 Akhavan, Rayhaneh – R18.2 Allshouse, Michael – A29.6 Andrews, Peter – H7.8, L23.5 Abed Zadeh, Aghil – A6.3, S44.13 Akhavan-Behabadi, Mohammad Allshouse, Michael R. – L29.6, Andrus, Daniel – L19.9 Abezgauz, Ludmila – G8.4 Ali – KP1.77 M31.1 Ang, Kar Man – D7.7 Abid, Nora Cherifa – D2.8 Akih-Kumgeh, Benjamin – G40.10, Almohammadi, Hamed – M32.6 Angeli, Panagiota – D10.7, G10.8, Abkar, Mahdi – L12.12 L9.3 Alonso Matilla, Roberto – D23.6 H5.8, H8.1, H8.2, H8.5, L13.4, Abkarian, Manouk – L26.12 Akiki, Georges – D33.4, H2.4 Alshaarawi, Amjad – M4.10, R33.6 L35.11, M20.10, M22.8, R26.3, Abkarian, Manouk – R23.8 Akin, Cevat – L40.12 Altantzis, Christos – D3.9 R26.4, R15.10 Abkarian, Manouk – E24.4 Akin, Cevat – L40.7 Altemose, Alicia – R9.5 Angelidis, Dionysios – E34.2, Abolhasani, Milad – G18.5, G8.7, Akkala, James – E15.5, F1.4, F1.5, Althshuler, Gennady – G8.4 L13.10 R26.6 L30.10 Altmeyer, Sebastian – M6.1, M32.7 Annamalai, Subramanian – K4.4, Aboulhasanzadeh, Bahman – Akoz, Emre – D26.9, H5.1 Altshuler, Ernesto – F1.11, R39.10 D39.9, H3.3 R25.7 Aksak, Burak – D27.5, R16.5 Aluie, Hussein – G20.6 Annoni, Jennifer – G15.6 Aboulhasanzadeh, Bahman – Akylas, T.R. – R31.11 Aluie, Hussein – M18.10 Ansari, I.H. – R12.6 L36.11 Akylas, Triantaphyllos – AZ.6, Aluru, N. R. – M9.6 Antaki, James – M26.2 Abraham, Aliza – D13.2 H31.3 Aluru, Narayana R. – H9.7, M9.7 Anthony, Christopher – L36.5, Abraham, John – A4.7 Al-Safran, Eissa – D9.2 Alvarado, Jose – M10.5, M40.5 L36.6, M4.6, R16.3 Abramian, Anais – H6.5, R12.9 Alabi, Ken – A39.4, H6.8, KP1.9 Alvarez, Andres – M1.1 Antkowiak, Arnaud – L5.2 Abu AlSaud, Moataz – G7.9 Alahyari, Abbas – KP1.41, L4.1 Alves Portela, Felipe – M20.9 Antkowiak, Arnaud – M35.10 Abubakar, Habib – M17.2 Alahyari Beig, Shahaboddin – Alwahabi, Zeyad T. – M2.3, M2.8 Antoniadis, Panagiotis D. – A3.8, Abusaleem, Khalifeh – L9.7 L36.11, M4.2 Amah, Edison – A10.8, G28.3, D1.1 Achatz, Ulrich – E31.2 Alam, M.-Reza – R31.1 L40.5 Antonini, Carlo – D13.7, H33.4 Acher, Gwenael – D16.2 Alam, Meheboob – R12.3 Amandolese, Xavier – G24.2, Aouane, Othmane – E24.4, Q34.13 Adachi, Shizuko – A7.4, G20.4 Alam, Meheboob – R12.4 M13.5, M40.8 Aponte-Rivera, Christian – E2.1, Adachi, Takuji – L39.8, Z49.4 Alam, Meheboob – R12.6 Amani, Mahmood – D1.23, H2.3 Adam, Alexander – G7.1 Alam, Meheboob – L33.11 KP1.107 Appelquist, Ellinor – H17.5 Adams, E. Eric – L20.9, R27.11 Alam, Mohammad-Reza – D13.5, Amberg, Gustav – D32.3, G31.4, Apte, Sourabh – D3.2 Adams, E.Eric – A11.2 G14.3, H16.1, L25.2, L16.2, M22.3, R33.2, R14.6, R14.8 Apte, Sourabh – D3.4 Adams, Eric – D19.5, G5.4, R28.6 L16.3, M5.6 Amen, Nicholas – D4.4, D4.5 Araya, Daniel – H12.2 Adams, Matthew – L8.3, R30.9 Alam, Mohammd-Reza – R31.2 Amini, Amirhossein – A12.2, A33.8 Araya, Guillermo – D19.5 Adams, Matthew M. – E30.1, R9.5 Alame, Karim – G8.3, R18.11 Amini, Ghobad – M17.5 Araya, Guillermo – L12.9 Adebayo, Idris – A35.5 Alards, Kim – M10.7, M10.8 Amini, Noushin – G5.7, L28.8 Araya, Guillermo – G21.10 Adhikari, D. – L12.2, R37.6 Alavi Moghadam, S.M. – L9.10 Aminian, Manuchehr – G4.7, G4.8, Araya, Guillermo – A20.1 Adhikari, Deepak – R38.6 Albati, Mohammad – L9.7 R1.2 Araya, Guillermo – H22.8 Adrian, Ronald – M4.3 Alben, Silas – M13.10 Amirfazli, Alidad – L35.10 Arbabi, Hassan – D17.7, G29.5, Adrian, Ronald – D27.3 Alben, Silas – L14.1 Amirfazli, Alidad – M32.6 H17.1, H17.2 Adrian, Ronald – G21.10 Albensoeder, Stefan – MQ.6, M5.6 Amiri, Shahin – R27.12 Arcak, Murat – A9.6, H25.8 Adrian, Ronald – H11.7 Albernaz, Daniel – M22.3 Amirzadeh, Behrooz – D34.9 Archer, Cristina – E24.3, L12.10 Adrian, Ronald J. – D8.8 Alboussiere, Thierry – A30.8 Amitay, Michael – D16.9 Ardekani, Arezoo – A23.5 Afkhami, Shahriar – D33.9 Alboussiere, Thierry – D11.4, Amitay, Michael – H37.10 Ardekani, Arezoo – A23.6 Afkhami, Shahriar – M16.5 M11.3 Amitay, Michael – A17.8 Ardekani, Arezoo – M23.1 Afkhami, Shahriar – R16.1 Alexander, Aaron – H12.5, H30.9 Amitay, Michael – G15.3 Arenas, Isnardo – G4.6, M26.9 Afsar, Mohammed – H38.7 Alexeenko, Alina – H40.9 Amitay, Michael – L32.4 Arenson, Joshua – C1.7, M5.1 Afzaal, Muhammad – R33.9 Alexeev, Alexander – A24.5 Amitay, Michael – L15.9 Argentina, Mederic – H13.1 Afzal, Bushra – L22.6, L26.12 Alexeev, Alexander – KP1.118 Amos, Alex – G17.4 Arias, Paul – G34.3, H39.4, R34.11 Afzal, Noor – L22.6 Alexeev, Alexander – G26.3 An, Hongjie – H36.6 Arias-Ramirez, Walter – L8.1 Agapov, Rebecca – D34.1 Alexeev, Alexander – A26.2 An, Jim – R33.7 Ariyoshi, Takuya – A4.1, L37.2 Agarwal, Sahil – M5.3, U15.5 Alexeev, Alexander – G16.10 An, Zhongfeng – D3.8, M3.4 Armenio, Vincenzo – A14.9, D30.3, Agbaglah, G. Gilou – G5.9, Alexeev, Alexander – G7.2 Anand, Utkarsh – E11.5 L11.1, L19.3, R17.6 KP1.58 Alexeev, Alexander – R38.10 Anand, Vijay – L15.6 Armfield, Steve – A21.5 Aggarwal, Somil – KP1.171 Alexeev, Alexander – KP2.13 Ananth, Ramagopal – G36.7 Arnaudov, Luben N. – E10.5 Agostini, Lionel – E19.3, HX.5 Alexeev, Alexander – R9.7 Anbreen, Faiqa – KP1.8 Arndt, Roger – M32.3 Agrawal, Arjun – R9.4 Alexeev, Alexander – R8.10 Ancey, Christophe – H10.2 Arndt, Roger – R25.12 Aguilar, Michael – H39.10 Alfahani, Faihan – M9.2, R10.1 Andersen, Anders – H25.3 Arnett, David – YP12.4, KP1.92 Aguirre-Pablo, A. A. – E10.2, Alfandi, Ashraf – L9.7 Andersen, Anders – H25.4 Arnold, Craig – L33.4 L40.8 Alfredsson, P. Henrik – L15.2 Andersen, Ken H. – G27.3 Arnone, Davide – R27.9 Aharoni, Hillel – H13.6, S16.8 Alfredsson, P. Henrik – H17.5 Andersen, Sren Juhl – G12.4 Arratia, Paulo – M23.2 Ahlers, Guenter – H11.6 Algarra, Nicolas – R40.3 Anderson, Andy – G7.7 Arratia, Paulo – M23.5 Ahlers, Guenter – M10.1 AlHamli, Mohammad – M36.5 Anderson, Dalton – D29.4, KP2.16 Arratia, Paulo – L26.2 Ahlers, Guenter – M10.2 Alhani, Salwan – H5.10 Anderson, Daniel – D11.8 Arratia, Paulo – D12.6 Ahlers, Guenter – M10.10 Alhashim, Mohammed – A1.8 Anderson, Daniel – D24.5 Arratia, Paulo – E2.6

119 Arratia, Paulo – D23.2 Bachant, Peter – E28.3 Bandi, Mahesh – G28.1 Bau, Haim – R8.9 Arrufat, Tomas – M22.2 Bachman, Scott – G30.8, H23.3 Bandi, Mahesh – G28.2 Bau, Haim – M23.4 Arrufat Jackson, Tomas – M22.1 Bade, Kyle – A22.1, G13.8 Banerjee, Arindam – R1.4 Baumann, T – D1.6, M16.10 Artha K, Dian – R10.3 Badr, Sarah – H13.9, R17.2 Banerjee, Arindam – R1.1 Baumer, Alexa – M24.8, R9.1, Arwatz, Gilad – L32.7 Badreddine, Hassan – R35.6 Banerjee, Arindam – G25.4 R37.3 Arwatz, Gilad – A20.8 Badrya, Camli – L27.12 Banerjee, Arindam – D40.2 Baumgardner, Grant A. – H27.2 Arzani, Amirhossein – L23.2, L7.2 Bae, Hyunji Jane – D8.4, E34.4 Banerjee, Arindam – D40.3 Bautista, Oscar – F1.18, H14.9, Asai, Keisuke – A15.4, WF1.5 Bae, Kyeong – KP1.62 Banerjee, Rahul – M18.3 M22.10 Asai, Masahito – R14.7 Baeder, James D. – L27.12 Banerjee, Sandipan – L2.5 Bauwens, C. Regis – G39.1 Aseyev, Aleksandr – G12.8 Bagchi, Prosenjit – R23.1 Bang, Kyeongtae – A5.1, A14.5, Bauweraerts, Pieter – L13.4 Asgharzadeh, Hafez – A31.8, L7.6, Bagchi, Prosenjit – R23.5 D16.7, R37.12 Baxter, Timothy – A8.6, L26.9 L23.6, M25.6 Bagheri, Shervin – A15.1 Banko, Andrew – D15.4, G3.2, Bay, Yong Yi – R7.8 Ashour, Rakan – D27.4 Bagheri, Shervin – H1.3 L7.11 Bayles, Kenneth – G24.3 Ashrafi, Nariman – KP1.130 Bahri, Carla – A20.8, M27.7, M27.8 Banyassady, Rayhaneh – A22.3 Bayoan Cal, Raul – LL.11, D28.6 Ashrafi, Nariman – KP1.45 Bai, Kunlun – M21.1 Bao, Lei – A31.1 Beal, David – L36.9, S23.2 Ashrafi, Nariman – D19.10 Bai, M. – KP1.90 Bao, Yan – L14.8 Beatus, Tsevi – L6.9, L27.4 Ashworth, Richard – H17.7 Bai, Yang – D1.2, R30.10 Bao, Yun – H11.3, L11.4, R19.4 Beaume, Cedric – D29.1 Asinari, Pietro – A23.2, M9.5 Bai, Zhe – M27.9 Barada, Mohammad Adel El Hajj Becerra, Julian – L1.3, R31.10 Aslangil, Denis – A22.6, D40.3 Baier, Florian – G38.1, G38.3 Ali – D4.10 Bechlars, Patrick – D21.8 Aslani, Mohamad – H7.10, M34.7 Baier, Tobias – H40.1, M10.10 Baran, Oleh – L10.4 Beck, Andrea – L8.7, L8.11 Asselin, Daniel – H19.3, H18.8 Baik, Jong-Jin – E31.5, G16.3, Barash, Lev – A33.5, H33.7 Beckman, Jennifer – R24.2 Astarita, Tommaso – H5.1, H5.6, KP1.49 Barati Farimani, Amir – H9.7 Beets, Nathan – KP1.71 H36.3 Bailey, Joanne – R4.5 Baratian, Davood – G31.2 Begley, Carolyn – D24.9, M18.4 Ataei, Mohammadmehdi – L35.10 Bailey, Michael – JG.5, M36.4 Barbati, Alexander – D2.3, E2.6 Begley, Carolyn G. – G24.4 Athanassiadis, Athanasios – A18.7, Bailey, Michael R. – M36.2 Bardet, Philippe – L14.9 Begley, CG – A24.8 L12.1 Bailey, Patrina – G40.10 Barenghi, Carlo – E18.5, L41.9 Behjatian, Ali – A36.6 Atis, Séverine – A29.6 Bailey, Sean – E26.5 Bares, Jonathan – D6.2 Behnke, Andrew – A14.8 Atis, Severine – D17.4, D17.8, M3.4 Bailey, Sean – G21.2 Bares, Jonathan – A6.2 Behrang, Arash – KP1.34 Atkinson, Callum – L22.10 Baj, Pawel – D21.6 Bares, Jonathan – D6.8 Behringer, Bob – A6.4, D6.7, Attal, Nitesh – M2.7 Bajpayee, Abhishek – L29.5, Bares, Jonathan – A6.3 L41.12, S44.11, S44.12 Attal, Nitesh – D40.9 M27.3, M27.6 Bares, Jonathan – A6.4 Behringer, Robert – L10.6 Attarzadeh, S. M. Reza – KP1.48, Bak, Moon Soo – NR4.1, G40.9 Bares, Jonathan – A6.5 Behringer, Robert – M12.6 L6.8 Baker, James – H10.5, H1.167 Bares, Jonathan – D6.7 Behringer, Robert – M12.4 Attili, Antonio – M2.6 Baker, Luci – L20.7 Bares, Jonathan – L10.6 Behringer, Robert – D6.8 Attili, Antonio – M4.10 Bakhsh, Abeer – D39.7 Bares, Jonathan – M12.6 Behringer, Robert – A6.3 Attili, Antonio – A22.2 Bakhshaee, Hani – L24.1, L24.11, Barhorst, Alan – D28.10 Behringer, Robert – A6.5 Au, Sam – A24.1 R24.4 Barizien, Antoine – M13.6 Behringer, Robert – A6.1 Aubin-Tam, Marie-Eve – H25.2 Bakhuis, Dennis – G11.7, R16.4 Barker, Blake – M5.9 Behringer, Robert – D6.2 Aubourg, Quentin – L31.4, L2.11 Bakosi, Jozsef – H20.10 Barkley, Dwight – R17.4 Belden, Jesse – H32.1 Aubry, Nadine – R41.5 Bakshi, Akhilesh – D3.9 Barkley, Dwight – R17.5 Belden, Jesse – D24.2 Aubry, Nadine – M26.2 Balabani, Stavroula – D5.1, D18.3, Barlis, Peter – A7.5, M24.3, M26.9 Belden, Jesse – M32.10 Augier, Pierre – A23.2, L4.2, G29.8, L26.8 Barlow, Nathaniel – AQ.10, G16.1, Belden, Jesse – G33.7 L30.3, M16.9 Balachandar, S. – D3.5 KP1.165 Belden, Jesse – L36.9 August, Olivia – A18.6 Balachandar, S. – H3.3 Barnard, Casey – D26.1, E19.6 Belhi, Memdouh – H39.8 Ault, Jesse – G4.10, R28.10 Balachandar, S. – K34.1 Barnkob, Rune – H11.10, R4.6 Belmonte, Andrew – G18.10 Aumaitre, Sebastien – L31.1 Balachandar, S. – A3.5 Baron, David – KP1.163 Ben-Gida, Hadar – H27.4, R28.7 Aumaitre, Sebastien – L31.3 Balachandar, S. – R28.12 Barone, Matthew – D28.1 Benard, Andre – D25.10, G20.5 Aumaître, Sebastien – A8.3 Balachandar, S. – R29.6 Baroud, Charles – G36.6 Benard, Nicolas – D16.2 Auradou, Harold – D25.8, E12.3, Balachandar, S. Bala – D39.9 Barranco, Joseph – E17.4, E17.5, Benharash, Peyman – R24.7 G8.8, H29.7 Balachandar, Sivaramakrishnan – R30.2 Beninati, Maria – D14.2 Aurichio, Vinicius Henrique – H2.4 Barreto, Enrique – L32.10 Benito, Y. – R24.1 KP1.46 Balajee, G.K. – R3.4 Barrio, A. – R24.1 Benson, Michael – G31.7, H1.4, Aurnou, Jonathan – A30.2, E26.10, Balaraj, Vignesh – G24.6 Barros, Julio – E26.3, G24.9, KP1.75 E30.3, R30.6 Balaras, Elias – H15.4 H26.6, M19.9, R17.1 Benusiglio, Adrien – A32.9 Aussillous, Pascale – L10.11, Balaras, Elias – L9.9 Barry, Brendan – KP1.125 Benusiglio, Adrien – E33.6 M32.8 Balaras, Elias – G21.1 Barsu, Sylvie – M40.6 Bera, Bijoyendra – G31.1 Auton, Lucy – A1.2 Balaras, Elias – L14.9 Bart-Smith, Hilary – E26.1, H5.6, Beratlis, Nikolaos – G21.1 Averkin, Sergey – H40.6 Balaras, Elias – L7.10 H5.8, R37.10, R38.9 Bercovici, Moran – A10.5, D10.4, Avila, Ruben – G19.9, H1.7, R32.2, Balaras, Elias – A13.6 Bartelt, Nicole – G30.6 MF.1 R32.3 Balasubramanian, Sridhar – Barthel, Etienne – D34.7, G13.3 Berera, Arjun – A36.3, F1.48, Avila Rodriguez, Ruben – G19.8, D30.6, E11.4, L5.9, M30.5, R13.3 Barthes-Biesel, Dominique – KP1.112, KP1.113, M28.2 M10.6 Balazs, Anna – R9.5 E24.2 Beresh, Steven – L21.2 Avoustin, Pauline – KP1.149 Balazs, Anna – R9.4 Bartlett, Casey – KP2.21 Beresh, Steven – D4.2 Awasthi, Ankit – KP1.153, R22.11 Baldwin, Ken – D14.3, E14.5 Bartolo, Denis – G23.4 Bergamasco, Luca – R36.9 Ayala, Diego – M14.7, R18.11 Bale, Rahul – A21.4, D26.3, G15.8, Baruch, Dominique – A24.9, G19.8 Bergeon, Alain – D11.3 Ayala, Orlando – L2.5 R38.4 Basagaoglu, Hakan – R39.12 Bergeon, Alain – E5.1 Ayancik, Fatma – A26.6, M35.2 Balestra, Gioele – G13.10, M18.8 Basara, Branislav – R3.7, R2.1 Berger, Zachary – E18.5 Aybar, Marcelo – D24.8 Ball, Jonathan – D14.7 Basaran, Osman – G32.2 Bergez, Wladimir – A8.4 Ayers, Bradley – E18.3, L20.11 Ballard, Matt – G43.2, R9.7 Basaran, Osman – L36.5 Bergstrom, Donald J. – R25.3 Azadeh Ranjbar, Vahid – A18.4, Ballard, Matthew – A24.5, F2.26, Basaran, Osman – L36.7 Bergthorson, Jeffrey M. – G39.1 D18.5, H16.2, L14.2 G26.3, KP2.13, M10.2 Basaran, Osman – L36.6 Berhanu, Michael – KP1.99 Azuma, Takashi – D4.1, KP1.37, Balli, Tov – H14.3 Basaran, Osman – R16.3 Berhanu, Michael – R11.7 L37.2 Balmforth, Neil – E12.1 Basaran, Osman – G18.6 Berhanu, Michael – L31.1 Azzopardi, Barry – D9.1, E7.5, Balmforth, Neil – D33.4 Basaran, Osman – D37.1 Berhanu, Michael – L31.2 E33.2, H14.1, L33.9, R33.1 Balmforth, Neil – E12.2 Basbug, Salur – R32.8 Berhinger, Bob – A6.2 Balmforth, Neil – D11.1 Baskan, Ozge – G4.9, L1.3 Berk, Tim – E18.4 -- B -- Balogh, Peter – R23.1 Bassenne, Maxime – R21.11 Berloff, Natalia – L41.7 B. Nik, Mehdi – R3.2 Baltzer, Jon – H20.9, H28.1 Basu, Saikat – E32.1, E32.2, R18.1 Bermejo, J. – R24.1 B. Parlange, Marc – E21.4 Baltzer, Jon R. – A22.1, D8.8, Basu, Soumendra – D31.10 Bernal, Luis – L33.8, M30.9 B. Pope, Stephen – R3.2 D21.2 Bateman, Daniel – A27.5, J18.6 Bernardi, Francesca – G4.7, G4.8, B. R, Vinoth – L5.4 Balu, Asish – E2.4, R6.2 Bates, John – R1.5 R1.2 Baars, Woutijn J. – KP1.3, L22.7 Bambang S.U., Agung – R10.3 Bateson, Colin – A32.1, M4.5 Bernardini, Matteo – A20.3, L7.12, Babaee, Hessam – G11.1, H29.1, Banchio, A.J. – H25.7 Battista, Nicholas – D7.10, M24.9 L22.3, L20.2 H29.2, M31.6 Bandaru, Vinodh – A20.5 Baty, Roy – D4.3, E4.1, E4.3, Berrier, Austin – D34.6 Baccarella, Damiano – E6.1 Bandi, Mahesh – E32.1 M24.3 Berry, Matthew – KP1.170 Bacchin, P. – M3.2 Bandi, Mahesh – E32.2 Bau, Haim – H36.4 Berry, Matthew – L5.11

120 Berry, Matthew – L5.12 Birwa, Sumit – H3.7 Bonnecaze, Roger – R9.12 Braga, Carlos – H28.6 Berry, Matthew – L21.4 Bisbano, Caitlin – E36.5 Bonnefoy, Felicien – L31.1, L31.2 Bragg, Andrew – H21.5 Bertin, Eric – A23.3, H8.6 Bisetti, Fabrizio – H39.8 Bonnet, Jean-Paul – A30.3, D16.2, Bran Anleu, Gabriela – A5.7, Bertin, Nicolas – G8.5, R9.2 Bisetti, Fabrizio – M4.10 R12.7, R12.8 M35.4 Bertoldi, Katia – H16.7 Bisetti, Fabrizio – M2.6 Bonometti, Thomas – D32.5, Branam, Richard – VF4.5, E5.4, Bertozzi, Andrea – KP1.137 Bisetti, Fabrizio – M2.1 E32.1, R28.12 R10.6 Bertozzi, Andrea – M3.6 Bisetti, Fabrizio – A22.2 Booty, Michael – L28.3 Brancher, Pierre – E21.1, G5.8 Bertrand, Thibault – A6.2 Bissell, Dan – L32.3 Borazjani, Iman – A31.8, D2.2, Brandenbourger, Martin – A36.3, Bertrand, Thibault – H1.2 Black, Charles – D34.5 D2.5, D7.2, L7.6, L23.6, M25.6 D12.8, D31.2, D31.3, M35.1 Bertsch, Rebecca – D40.10, E21.1 Black, Wolfgang – E39.5, L17.6 Borchert, Sebastian – E31.2 Brandes, Aaron – R38.9 Berzi, Diego – R29.2 Blackmore, Denis – 1B.88, L10.1 Borchetta, Colby – G21.2, H26.8 Brandon, Andrew – G4.6, G36.7 Besnard, Andrea – L5.6 Blackwell, Brendan – A15.3, Bordoloi, Ankur – G3.7 Brandt, Alan – A27.9, D30.9, Best, Jim – A19.6, A19.8, A21.8 E35.2, H12.6, M32.4 Boreyko, Jonathan – E36.5 G23.1, G23.2 Best, Jim L. – D24.8 Blanchette, Francois – A32.1 Boreyko, Jonathan – E36.3 Brandt, Luca – D12.5 Betterton, Meredith – D23.9, L5.4 Blanquart, Guillaume – H6.3 Boreyko, Jonathan – H28.1 Brandt, Luca – D3.1 Betti, Riccardo – PO7.5, M18.10 Blanquart, Guillaume – H6.10 Boreyko, Jonathan – D34.1 Brandt, Luca – H3.2 Bewley, Gregory – M20.1 Blanquart, Guillaume – H39.1 Boreyko, Jonathan – D34.6 Brasseur, James – G40.6 Bewley, Gregory – M20.7 Blanquart, Guillaume – H39.2 Boreyko, Jonathan – D34.8 Brasseur, James – A40.2 Bewley, Thomas – R7.2 Blanquart, Guillaume – H20.7 Boreyko, Jonathan – E36.2 Brasseur, James – E21.1 Bewley, Thomas – N34.1 Blanquart, Guillaume – G39.2 Borg, John – A6.9 Brasseur, James – D28.4 Bewley, Thomas – L9.11 Blanquart, Guillaume – A20.4 Borg, Matthew – M9.1 Brau, F. – H18.8, L11.5, V12.6 Bewley, Thomas – A16.4 Blanquart, Guillaume – M2.2 Borggaard, Jeff – AJ.6, D17.6, Brau, Fabian – D1.7 Bewley, Thomas – H17.9 Blawzdziewicz, Jerzy – M23.6 H29.9 Brauckmann, Hannes – E11.6, Beyar, Michael – D16.9 Blazevski, Daniel – A29.4 Borhan, Ali – H23.1 H20.1 Beyene, Asfaw – H12.6 Bleischwitz, Robert – G30.1, H16.6 Borkar, Suraj – R27.7 Braun, R.J. – G24.8 Beyhaghi, Pooriya – A16.4, L9.11, Blin, Antoine – A24.9, G19.8 Boromand, Arman – L39.12 Braun, R.J. – G24.4 M31.2 Blois, Gianluca – A19.6, A19.8, Boromand, Arman – E35.3 Braun, Richard – D24.5, D24.9, Beysens, Daniel – G35.9, J34.11 A21.8, D1.9, D1.10 Boromand, Arman – H2.1 R9.8 Bhadauria, Ravi – M9.6 Blonigan, Patrick – E8.3 Borrell, Guillem – D27.5, L22.10 Braun, RJ – A24.8 Bhagavatula, Dinesh – M17.10 Blonigan, Patrick – D8.7 Borrero-Echeverrry, Daniel – M6.6 Bray, Sam – R8.11 Bhalla, Amneet P. S – H24.5 Blowers, Stephen – H7.8, L23.5 Borrero-Echeverry, Daniel – M6.2 Braza, Marianna – L14.3, L14.6 Bhalla, Amneet P. S. – H24.10 Blyth, Mark – G29.1, H31.10, L18.5, Borrero-Echeverry, Daniel – R27.6 Bréant, Alexandre – L40.6 Bhalla, Amneet Pal S. – L7.4 L18.10, R22.8 Borrero-Echeverry, Daniel – D29.3 Breda, Massimiliano – M21.7 Bhandari, Shiva – L39.3 Bobbitt, Brock – G34.5, G34.7, Borshoff, Jennifer – L16.9 Breidenthal, Robert – A9.4, A34.5 Bharadwaj, Sunil – L33.11 H39.1, H39.2 Bos, Wouter – H20.6 Brenner, Michael – L3.1 Bhargava, Arjun – A28.3 Bobinski, Tomasz – D13.4, M19.9, Bose, Rikhi – A21.7, D38.8 Brenner, Michael – A35.4 Bhatia, Nitesh – G26.5 M27.5 Bose, Sanjeeb – D28.6, E8.3, Brenner, Michael P. – G26.1, G26.2 Bhatt, Ami – KP1.21 Bocanegra, Humberto – D27.5 R7.11, R2.5 Brereton, Giles – L35.9 Bhattacharjee, Himanshu – A2.8 Boccadifuoco, Alessandro – R5.2 Boshier, Florencia – L3.8 Bretheim, Joel – F1.46, L13.9 Bhattacharya, Amitabh – H16.8 Boccardo, Gianluca – G1.7 Bossuyt, Juliaan – L13.6, L13.11, Bretheim, Joel U. – D22.9 Bhattacharya, Samik – D16.1 Bocquet, Lyderic – E11.3 R26.6 Breuer, Kenneth – R1.3 Bhaumik, Swagata – D21.3, D35.1, Bocquet, Lyderic – G9.9 Bosworth, Richard – D21.4, H17.8 Breuer, Kenneth – M15.2 H38.9 Bocquet, Lyderic – G37.3 Botha, Sabine – G10.10, R2.11 Breuer, Kenneth – A28.1 Bhoraniya, Ramesh – D38.2 Bocquet, Lyderic – H9.8 Botto, Lorenzo – G28.4 Breuer, Kenneth – H27.1 Bhowmick, Aklant – GO5.7, Bocquet, Lyderic – L10.8 Bou-Zeid, Elie – A19.9 Breuer, Kenneth S. – A32.2, GO5.11, YP12.12, KP1.93, Bode-Oke, Ayodeji – L6.7, L27.7 Bou-Zeid, Elie – KP1.148 KP1.25 KP1.96, L17.8 Boden, Alex – A26.1 Bou-Zeid, Elie – E21.6 Breugem, Wim-Paul – H3.2 Bhuptani, Darshak – G31.9 Bodenschatz, Eberhard – G20.4 Bouabdallah, A. – G15.2, G15.7, Brevis, Wernher – KP1.73, Bhuvankar, Pramod – R36.1 Bodenschatz, Eberhard – L11.2 H20.1, R12.2 KP1.149, M20.10, R22.9 Bi, Wei-Tao – L21.6 Bodenschatz, Eberhard – R19.4 Bouchard, Lauren – D18.9 Bricteux, Laurent – L25.8, R5.8 Bi, Wei-Tao – L21.7 Bodenschatz, Eberhard – M20.1 Bouchon, Claude – R40.8 Brindise, Melissa – M24.5 Biagioli, Madeleine – G10.1 Bodenschatz, Eberhard – M20.7 Bouchon, Yolande – R40.8 Briner, Clarissa – C15.6, G39.9 Biamonte, Mason – L15.5, M33.6 Bodenschatz, Eberhard – M10.10 Boujo, Edouard – E40.6 Brinkman, Bethany – E3.2 Bian, Xin – G7.3, R7.10 Bodiguel, Hugues – M28.8 Boukrif, M. – G15.2, G15.7 Brinkmann, Martin – H1.9 Biance, Anne-Laure – F1.67, Bodiguel, Hugues – E12.3 Boullosa, Ricardo R. – D7.1 Bristow, Nathaniel – A21.8 H14.4, H33.8, L10.8, L36.1 Bodiguel, Hugues – A2.6 Boulogne, Francois – A33.1, H32.3 Brito Gadeschi, Gonzalo – A40.4 Biancofiore, Luca – D12.5 Bodiguel, Hugues – D2.4 Boulogne, Francois – A14.8, H2.3, Brock, Larry – E26.4, R24.10, Bico, Jose – M35.8 Bodony, Daniel – H26.10 H15.3, H16.9, L39.5 R26.3 Biegert, Edward – H3.5 Bodony, Daniel – H38.4 Bourguet, Rémi – L14.6 Brodribb, Tim – R35.10 Bienaimé, Diane – R35.10 Bodony, Daniel – R7.5 Bourguet, Remi – D18.7, L14.5 Brodu, Nicolas – A6.4 Bierbaum, Matt – E2.1 Bodony, Daniel – R21.10 Bourouiba, Lydia – D32.1 Brons, Jon – A25.5, L20.8 Biferale, Luca – G29.7 Bodony, Daniel – G21.4 Bourouiba, Lydia – G25.1 Bross, Matthew – D19.9, M30.5 Biferale, Luca – R21.4 Boelens, Arnout – A35.1 Bourrianne, Philippe – D31.9, Brosseau, Quentin – A36.1, E10.6 Biferale, Luca – R28.2 Boerma, David – H27.1 L33.4 Brown, Ben – M19.10, R30.8 Bilal, Osama R. – A15.7 Boghosian, Michael – G19.4, Bousquet, Gabriel – H27.5 Brown, Benjamin – M31.5, J38.9 Bilbao, Alejandro – H17.6, H17.8, G33.2, R24.8 Boussel, Loic – G7.3, L23.7 Brown, Christopher – M18.7, L14.11 M23.6 Bohl, Douglas – E15.4 Boutet, Sébastien – R2.11 Brown, Dana – KP1.103, R7.4 Biles, Drummond – A20.7, L26.2, Bohl, Douglas – L16.12 Boutilier, Michael – H9.1 Brown, David – KP1.5 R20.8 Bohl, Douglas – L16.1 Boutilier, Michael – H9.2 Brown, Eric – A2.4 Bilgi, Pavaman – A8.7 Bohl, Douglas – L16.2 Boutilier, Michael – H9.3 Brown, Eric – M21.1 Billant, Paul – G16.3 Bohr, Tomas – H25.4 Boutilier, Michael – H9.6 Brown, Nicholas – 1A.6, M3.10 Binks, Bernard P. – G32.6 Boigelot, Bernard – A36.3 Bouwhuis, Wilco – D32.9, E32.4, Brown-Dymkoski, Eric – H21.2 BINTEIN, Pierre-Brice – G35.9 Boisson, Jean – A8.3, A36.1 H12.5 Brown-Dymkoski, Eric – R7.7 Bird, James – D34.10 Bokhove, Onno – D13.9, KP1.81, Bouzgarrou, Ghazi – L17.4 Brown-Dymkoski, Eric – R7.9 Bird, James – D24.2 R32.4 Bower, Allan – A16.1, H32.1 Brown-Dymkoski, Eric – H21.7 Bird, James – A24.3 Bola nos-Jiménez, Rocío – R27.10 Box, Finn – H16.6, M29.7 Browning, James – R24.11 Bird, James – H15.5 Bolotnov, Igor – E25.4, M22.6 Boyd, Zachary – E4.3 Browning, James – R24.12 Bird, James – H30.7 Bolster, Diogo – A3.3, A18.6, Boyko, Evgeniy – A10.5 Brownstein, Ian – H12.1, H12.4, Bird, James – H1.5 R29.7 Boymelgreen, Alicia – H14.3, R3.2 H30.4 Bird, James – H33.5 Bonaccorso, Fabio – R21.4, R28.2 Boziuk, Thomas – H35.5, R5.8 Bruce, P.J.K. – R32.9 Bird, James – D31.10 Bonazza, Riccardo – L17.12 Brackston, Rowan – L15.8, R20.12 Bruce, Paul J K – M20.5 Bird, James – KP2.21 Bonazza, Riccardo – KP1.97 Brady, DS – D1.6, M16.10 Bruce, Paul J.K. – D19.4, D21.6, Bird, James – M17.7 Bond, Daryl – A8.8 Brady, John – D23.5 M20.2 Biringen, Sedat – A15.7 Bonnebaigt, Rachael – A11.1, Brady, John – A23.9 Brumme, Christian – A10.7 Biros, George – E24.3, G1.2, L19.5 Brady, John – A2.5 Brun, Pierre-Thomas – L28.2 KP1.17 Bonnecaze, Roger – D2.1 Brady, John – A23.2 Brun, Pierre-Thomas – M18.8

121 Brun, Pierre-Thomas – M33.1 Buxton, Oliver R.H. – D19.4, D21.6 Carlucci, Donald – M39.4, M28.8 Chakrabarti, Brato – R40.10, Brun, Pierre-Thomas – M33.2 Bychkova, Veronika – A17.8 Carlucci, Pasquale – M39.4, M28.8 R36.2 Brun, Pierre-Thomas – M17.6 Byers, Clayton – H22.5 Carmeliet, Jan – H1.10 Chakraborty, Chumki – R27.3 Brun, Pierre-Thomas – R33.1 Byun, Doyoung – D32.5 Carmigniani, Remi – M39.8, Chakraborty, Debadi – A12.5, Brun, Pierre-Thomas – R33.11 Byun, Doyoung – A33.4 M39.10 M36.1 Brun, Pierre-Thomas – G33.3 Carminati, Marco – L30.12 Chakraborty, Pinaki – R20.11 Brun, Pierre-Thomas – G13.10 -- C -- Carnasciali, Maria-Isabel – E30.4, Chakraborty, Pinaki – H10.1 Brun, Pierre-Thomas – H33.3 Caballero, Rogelio – R39.10 KP2.15 Chakraborty, Pinaki – E31.4 Brun-Battistini, D. – L3.5, L3.6 Cabello, Ares – G19.8, H1.7, R32.2 Carpenter, Alexander – R39.12 Chakraborty, Pinaki – G22.10 Brun-Battistini, Dominique – L3.11 Cabello Gonzalez, Ares – M10.6 Carr, Ian A – M39.1 Chakroun, Nadim – E5.3 Bruna, Maria – E1.1 Cabral, Joao – G18.4 Carr, Lincoln – E25.1 Chalamalla, Vamsi – G1.3, R28.7 Brunet, P. – L28.6 Cabral, Joao – G18.5 Carrara, Francesco – D23.1, G6.4 Chalamalla, Vamsi Krishna – Brunet, Philippe – D32.6 Cachile, Mario – G8.8 Carter, Douglas – L20.7, M19.2 A23.5, G30.9 Brunton, Bingni W. – M27.9 Cadel, Daniel – L22.8 Carter, John – L4.2, E39.3, E39.4, Challabotla, Niranjan Reddy – Brunton, Steven – R1.12 Cadieux, Francois – G21.8, R3.1 KP1.12 L20.10 Brunton, Steven – L27.3 Cadot, Olivier – H37.2, L28.12 Carter, Taren – G26.5 Chambers, Jessica – E7.3 Brunton, Steven – H29.4 Cafiero, Gioacchino – H5.1, H36.3 Carvalho, Marcio – H2.5, H28.3, Chamecki, Marcelo – KP1.35 Brunton, Steven L. – M27.9 Cagney, Neil – D18.3, G29.8 L28.7 Chamecki, Marcelo – L11.9 BRUTIN, David – G35.4 Cajal, Arturo – D4.5 Casey, Tiernan – H39.8, KP2.35, Chamecki, Marcelo – M40.9 Bruus, Henrik – G8.10 Cajas, Juan – KP1.55 R34.11 Chamorro, Leonardo P. – A21.2, Bryan, Frank – G30.8, H23.3 Cal, Raúl Bayoán – G12.2, G12.3, Caspary, K. – H20.3 D28.2, G2.4, G36.9, H19.8, Bryngelson, Spencer – G2.8 L12.5 Cassadour, Martin – KP1.149 L5.3, M25.9, M25.10, R22.7, Bryson, Christopher – D28.10 Cal, Raúl Bayoán – G12.9 Cassel, Kevin – G19.4, G33.2, R17.5, R 20.11 Brzezicki, Sam – G31.5 Cal, Raúl – E19.2, H12.8 R24.8 Chan, Chon U – H4.1, H4.9, Buaria, D. – G20.2, H28.8 Cal, Raul – A21.6, G12.8 Casset, Fabrice – G8.9 H14.8, H36.6, H36.8 Buchak, Peter – A14.7, L1.6 Calaf, Marc – D30.1, E20.6, E21.4, Castellano, Richard – L40.12, Chan, Hiu Ning – L31.12, R11.11 Buchhave, Preben – D27.8, D27.9, G12.1 R10.4 Chan, Leon – G26.10, R22.3 D29.8, D29.9 Calantoni, Joseph – R29.7 Castiglioni, Giacomo – L8.7, L34.5 Chan, Qing N. – M2.3 Buchholz, James – E15.5 Caldag, Hakan – R39.11 Castillo, Doralia – KP1.167 Chan, Wai Hong Ronald – H14.1, Buchman, Michael – A24.5, D14.6 Calderer, Antoni – H16.3, R32.6 Castillo, Luciano – D27.5 R10.10 Buchmann, Amy – H23.5 Calkins, Michael – D1.10, R30.6 Castillo, Luciano – G21.10 Chang, Brian – E32.6, H13.2, Buchta, David – A29.2, M1.10 Callies, Joern – G30.10 Castillo, Luciano – D19.5 P1.142 Buckley, Liam – M39.4, M28.8 Calvert, Nathan – M28.6 Castillo, Luciano – H22.8 Chang, Chi-Chang – KP1.69 Buckley, Marc – R31.5, R11.8 Camarri, Simone – D8.1 Castillo, Luciano – L12.9 Chang, Chien-Cheng – M15.7, Buckman, Noam – L32.11 Camarri, Simone – L38.7 Castillo, Luciano – A20.1 R30.7 BudiBudisic, Marko – A29.5, Camarri, Simone – D38.6 Castillo, Luciano – R22.7 Chang, Chun-Ti – A31.5 D17.8, KP1.127, R23.10 Camassa, Roberto – D30.4 Castillo-Carrasco, Francisco – Chang, Gary Han – A24.7, H29.8 Buffet, Adeline – E11.2 Camassa, Roberto – G4.7 D11.5 Chang, Natasha – HQ.2, R22.6 Buie, Cullen – H14.1 Camassa, Roberto – G4.8 Castrejon-Pita, Alfonso Arturo – Chang, Shyr-Shea – M25.4 Buie, Cullen – H14.2 Camassa, Roberto – G18.8 G15.6, L35.12, M15.9 Chang, Tien – KP1.152 Buie, Cullen – KP2.29 Camp, Elizabeth – G12.2 Castrejon-Pita, Jose Rafael – Chantry, Matthew – R17.5 Bukatin, Anton – D25.4 Camp, Elizabeth – G12.3 G13.2, G15.6, L35.12, M15.9 Chantry, Matthew – R17.4 Bukosky, Scott – A10.4, H13.10 Camp, Elizabeth – H12.8 Castrillo, Giusy – H5.1, H5.6 Chappell, David – G33.1 Bukowicki, Marek – R8.7 Camp, Tiffany – D27.2 Catalano, Pietro – R3.5 Charogiannis, Alexandros – Bull, Joseph – L37.1 Campagne, Antoine – D11.8, Cattafesta, Louis – A9.7, A29.9, L18.10, L29.10, R22.10 Bulusu, Kartik V – H24.1 D25.6, E30.5, M17.9 A30.2, A35.2, E4.4, G17.10, Charonko, John – H24.7, H28.3, Bulusu, Kartik V. – D32.7 Campbell, M.F. – M28.3 L29.9, M19.7 L21.3, M20.3, M20.6 Bunker, Daniel – A25.3, M9.6 Campbell, Robert – D28.7 Cauble, Eric – L38.12 Chatelain, Philippe – A31.6, D8.6, Bunton, Patrick – H18.5, KP1.89, Campin, Jean-Michael – L29.1 Caulfield, C. P. – A11.1, E40.3, D30.6, E28.6, H3.9, M18.10, L22.8 Campo-Cortes, Francisco – G10.7, G17.2, L4.2, L30.7, M6.8 R15.4 Buongiorno, Jacopo – D9.2, G12.9, H36.1, H36.2, M32.9 Caulfield, C.P. – L30.3 Chatterjee, Krishnashis – D11.1, D33.9, H35.6, L4.2 Campos, Alejandro – H21.6, Caulfield, C.P. – A16.2 G26.4, H8.10 Burali, Nicholas – D34.8, M2.2 R25.10 Caulfield, C.P. – L1.2 Chatterjee, Souvick – G13.2, H5.7, Burge, Matthew – A27.1, G30.9 Candler, Graham – H21.10 Caulfield, Colm – L30.10 R7.1 Burger, Loic – M33.10 Cano-Lozano, Jose Carlos – R4.3, Caulfield, Colm-cille – A23.2, Chattopadhyay, Geetanjali – M16.8 Burguete, Javier – G25.7 R36.10 A27.4, L30.6 Chaudhuri, Swetaprovo – G34.3, Burin, M.J. – H20.3 Cantat, Isabelle – L38.10 Caulk, Alexander – A24.5 H39.4 Burin, Michael – L30.5 Cantat, Isabelle – L38.3 Cavaglieri, Daniele – D24.4, R7.2 Chaudhury, Manoj – G35.10, P2.2 Burnazzi, Marco – H29.10 Cantat, Isabelle – E13.1 Cavagnaro, Robert – A13.3, D14.5 Chawdhary, Saurabh – D24.7, R1.7 Burnett, Nicholas – R40.4 Cantat, Isabelle – G36.8 Cavalieri, André V. G. – G38.7 Che, Zhizhao – A35.5, A35.8, Burnett, Sarah – D19.6, G4.8, Cantat, Isabelle – G36.5 Cavalli, Andrea – G14.4, G31.1, A35.9, D12.10, E32.5, L18.6, F1.80, KP1.137, M3.6 Cantero, Mariano – D3.5 G31.2, G31.10 R35.9 Burns, Jane – G7.9, L23.1 Canton, Gador – H24.9 Cazin, Sebastien – L35.4 Cheang, U Kei – L25.8, L26.3, Burns, Keaton – G11.5, M31.5, Canuto, Daniel – A26.4 Cazin, Sébastien – G23.3 R17.5 M19.10, R30.8, R16.6 Cao, Lujie – G3.1 Ceccio, Steven – R25.11 Checco, Antonio – D34.5 Burridge, Henry – R11.6, R2.5 Capecelatro, Jesse – KP1.120 Ceccio, Steven – R25.10 Checco, Antonio – H28.9 Burrows, Travis J. – A17.4 Capecelatro, Jesse – H3.9 Ceccio, Steven L. – E14.1, L36.3, Chen, Bicheng – H23.6, H23.7, Bury, Yannick – L17.4 Capecelatro, Jesse – G21.4 R18.3 L11.9 Buschhagen, Timo – D5.8 Capecelatro, Jesse – L2.8 Celi, Simona – R5.2 Chen, Chang-Hsin – D20.3 Bush, John – M33.9 Capecelatro, Jesse – M4.1 Celik, Bayram – JI.1, D4.10 Chen, Chuan-Hua – D34.1 Bush, John – M33.3 Caprino, Giovanni – A14.9 Cenedese, Claudia – H4.7, L17.1, Chen, Chuan-Hua – H32.4 Bush, John – M33.5 Caps, Hervé – H35.8 M30.1 Chen, Dayong – E14.3, W28.5 Bush, John – M33.1 Caps, Herve – G31.6 Cenni, Matteo – M22.1, M22.2 Chen, Guang – G14.3, KP1.62, Bush, John – M33.2 Caps, Herve – R11.5 Cerbus, Rory – G22.10 R4.7 Bush, John – G33.3 Caps, Herve – A36.3 Cerbus, Rory – M19.4 Chen, Guoning – L23.2 Bush, John – H33.3 Capuano, Francesco – E34.3, Cerbus, Rory – E31.4 Chen, Haosheng – E10.4, GR.9 Bush, John W. M. – L35.6, M33.6 G16.6, R3.5 Cerda, Enrique – H13.1 Chen, Huanchen – G15.9, L35.10 Bush, John W.M. – H32.8, M33.8 Carbajal, Serena – D5.5 Cessna, Matthew – G33.1, KP2.20 Chen, Jacqueline – H6.5 Bush, Trenton – A5.5 Carballido-Landeira, Jorge – Cetindag, Semih – L39.3 Chen, James – G20.3 Buskey, Edward – A28.2, D15.8 G30.2, M11.7 Cevheri, Necmettin – L39.10 Chen, Jun – H11.3 Butler, Adam – H17.10 Cardesa, Jose I. – H27.4, R19.6 Ceyhan, Umut – G10.1, M8.10 Chen, Jun – G10.5 Butt, Hans-Jürgen – M8.6 Cardone, Gennaro – H5.6, M24.1 Chabi Orou, Jean Bio – M10.4, Chen, Jyh-Yuan – H39.8, KP2.35, Butt, Hans-Jürgen – D33.2 Cariapa, Vikram – A6.9 L25.6 R34.11 Buttler, William – E39.6 Carle, Florian – A12.4, G35.4 Chae, Ilkyeong – D32.5 Chen, Kevin – A20.1, D30.2, Buxton, O.R.H. – R32.9 Carlson, Andreas – E23.2, L5.2 Chajwa, Rahul – H2.8 G4.10, G17.9 Buxton, Oliver – D25.3, M21.7 Carlson, Daniel – D18.8, D18.9 Chen, Liang – R3.10

122 Chen, Marcus Y. – L24.8 Choi, Suhwan – A36.2, KP1.65, Clercx, Herman J. H. – G4.9 Corrigan, Andrew – G38.2, G38.3, Chen, Michael – A14.7, L1.6, M4.3 Climent, Eric – A23.3, D6.7 L5.6 R14.11 Chomaz, Jean-Marc – L29.4 Clingman, Dan – A17.8, L20.8, Corson, Dave – E23.6 Chen, Nelson – D26.3 Chomaz, Jean-Marc – L29.5 L20.10 Cortet, Pierre-Philippe – E30.5 Chen, Rou – F1.27, H24.4, H36.10 Chomaz, Jean-Marc – L29.10 Clotet, Xavier – A1.1, D50.2 Cortet, Pierre-Philippe – E30.4 Chen, Rui – L27.8 Chon U, Chan – L37.3 Cluts, Jordan – H38.8 Cortina, Gerard – D30.1, G12.1 Chen, Sheng – E1.6, P1.65 Chong, Kwitae – R24.7 Cobelli, Pablo – M27.5, R4.1 Costa, Pedro – H3.2, M21.5 Chen, Shengqian – E31.3 Choo, Yeunun – M35.7, R14.12 Cobos, Francisco – L17.1 Costalonga, Maxime – A14.2, Chen, Shiyi – D19.8 Chorny, Andrei – D38.9 Cobos Campos, Francisco – L17.7 D32.6 Chen, Shiyi – A4.2 Chou, M.R. – D6.4, R24.9 Cognet, Vincent P A – R40.7 Costanzo, Francesco – H7.9, Chen, Shiyi – D19.6 Choudhari, Meelan – L21.9 Cohen, Caroline – H33.2, KP1.99, KP1.117, R4.6 Chen, Shiyi – KP1.87 Choueiri, George H. – D12.2 R11.7, R9.6 Costello, John – D26.5 Chen, Songyue – H11.6, R19.5 Chow, Aaron – A11.2 Cohen, Itai – L27.4 Costello, John – G27.10 Chen, Ting Hsuan – L33.4 Chow, Kwok Wing – L31.12, R11.11 Cohen, Itai – E2.5 Costello, John H. – R37.9 Chen, Winson Xiao – M24.3 Chow, Melissa – F2.15, M8.7, M2.1 Cohen, Itai – E2.3 Cotel, Aline – E3.5 Chen, Xi – D22.3 Christensen, Kenneth – A19.6, Cohen, Itai – E2.1 Cotel, Aline – G4.4 Chen, Xi – L11.4 A19.8, A21.8, D1.10, R22.10 Cohen, Robert – E14.3 Coupier, Gwennou – E24.4, Chen, Xi – E22.6 Christensen, Kenneth T. – D1.9, Cohen, Robert – R37.1 Q34.13 Chen, Xi – D38.3 D24.8, M19.10 Cole, Brendan – L20.6, L35.6 Courbin, Laurent – R36.8 Chen, Xi – H24.4 Christianto, Victor – KP1.64 Coleman, Thomas – KP1.170, Courrech du Pont, Sylvain – Chen, Xiaopeng – FF.3, D33.10 Christianto, Victor – KP1.11 KP1.171, L21.4 KP1.99, L30.5, R11.7, R29.9, Chen, Y.Y. – R12.8 Christov, Ivan C. – L3.10 Coletti, Filippo – L20.3 R40.7 Chen, Ye – L24.2 Chrysanthis, Panos – M7.6 Coletti, Filippo – L20.7 Cousins, Will – D16.10, KP1.50 Chen, Yeng-Long – L38.8 Chryssostomidis, Chryssostomos Coletti, Filippo – M25.9 Coussot, Philippe – H29.8, M18.5 Chen, Yeng-Long – A24.1 – KL.1, G11.1 Coletti, Filippo – M19.2 Couston, Louis-Alexandre – D13.5, Chen, Yin-Chung – G12.8, M15.7 Chu, Chin-Chou – M15.7, R30.7 Coletti, Filippo – H26.5 H16.1 Chen, Yu-Chung – G31.4 Chu, Henry – A2.2, E2.2 Coletti, Francesco – D14.7 Coutier-Delgosha, Olivier – D4.6, Chen, Zheng – KP1.164 Chu, Shigan – M35.5 Colin, Annie – D2.4 L36.12 Cheng, Baolian – D40.7 Chua, Cassey – L14.11 Colin, Sean – A15.7, D26.5, G27.10 Cowen, Edwin – D28.3, M21.4, Cheng, Baolian – M18.4 Chua, Lloyd – L6.3 Colin, Sean P. – R37.9 R20.8 Cheng, Baolian – M18.6 Chugunova, Marina – A31.3 Colinet, Pierre – A32.7 Cowen, Edwin A – L14.4 Cheng, Chi-Yang – H40.4 Chui, Jane – E3.1, H18.6 Colinet, Pierre – D31.3 Cowley, Adam – G11.6, H11.10 Cheng, Jian – L8.4, L8.5 Chumakova, Lyubov – G1.10, Colinet, Pierre – D31.2 Cox, Christopher – E31.6, L8.2 Cheng, Ming – L19.11 H31.1 Colinet, Pierre – A33.2 Cox, Meredith – D6.8 Cheng, Robert – H39.3 Chun, Ho Hwan – H15.2, R25.5 Collicott, Steven – ED.7, G16.9 Craft, Kyle – E22.1, KP1.32, Cheng, Wan – R3.3, R25.4 Chun, Myung-Suk – A20.8, L40.2 Collier, C. Patrick – H28.1, Q2.11 KP1.33 Cheng, Way Lee – L40.9 Chung, Bongjae – KP1.167 Collier, Patrick – D34.1, E36.2, Craig, Alex – D39.3 Chergui, Jalel – A31.8, A35.9, Chung, Daniel – A19.9 E36.3 Craig, Anna – H12.3 D16.6, G16.3, H8.5, H12.2, Chung, Daniel – R22.3 Collignon, Sean – L38.2 Craig, Anthony – KP1.159 L18.6, L18.11, M17.4 Chung, Daniel – D22.10 Collins, Lance – G3.1 Craig, Stuart – D39.2, D21.6 Chernyshenko, Sergei – A16.5, Chung, Daniel – R21.2 Collins, Robert – D37.1 Craster, Richard – E33.4 L25.10 Chung, Daniel – A11.9 Collis, Jesse – G8.3 Craster, Richard – H7.3 Chevalier, Thibaud – D29.5, H3.5 Chung, Eun-Gul – R39.2 Colmenares F., Juan D. – R5.6 Craster, Richard V. – R16.10 Chiarot, Paul – KP1.54 Cichocki, Bogdan – H2.9 Coloma, Mikhail – 1A.31, L25.3 Crastes, Misha – D14.7 Chiarot, Paul – G33.6 Cictua, Pietro – R8.8 Colombani, Jean – G35.2 Craven, Brent – D28.4 Chiarot, Paul – E10.3 Cimpeanu, Radu – A19.4, L30.4 Colonius, Tim – D16.6 Crawley, Michael – L15.11 Chiarot, Paul – L25.3 Cira, Nate – A32.9, E33.6, G13.3, Colonius, Tim – A17.3 Creppy, Adama – A6.2, G23.3 Chiarot, Paul – E37.6 G13.4 Colonius, Tim – G38.7 Crevacore, Eleonora – G1.7 Chiarot, Paul – M3.10 Ciri, Umberto – D8.1, G12.7, L12.2, Colonius, Tim – E16.2 Creyts, Timothy T. – M29.1 Chiavazzo, Eliodoro – M9.5 L12.3 Colonius, Tim – G17.6 Cristaldi, Matt – KP1.167 Chibbaro, Sergio – L11.3, M18.9 Clément, Eric – R39.10 Colonius, Tim – G17.7 Crittenden, Thomas – A17.5, OL.1 Chillà, Francesca – H11.9 Clanet, Christophe – R36.4 Colonius, Tim – L7.1 Crivelli, Philip – A21.9 Chin, Albert – M26.7 Clanet, Christophe – R37.1 Colonius, Tim – M36.4 Crockett, Julie – D13.1, D13.4, Chin, Cheng – D19.7 Clanet, Christophe – R31.10 Colonius, Tim – R14.4 D34.2, G11.6, G23.3, G35.7, Chin, Cheng – G22.2 Clanet, Christophe – M13.4 Colonius, Timothy – M13.2 H11.10, H8.10, M31.8, M26.7, Chinaud, Maxime – D10.7, H8.1, Clanet, Christophe – L28.2 Colosqui, Carlos – D33.5, G9.2, R18.5, R26.10 H8.5, L13.4, L35.11, M20.10, Clanet, Christophe – D31.9 H28.9, M2.5, M10.8 Cromer, Michael – H7.6, H33.1, M22.8, R26.3, R26.4, R15.10 Clanet, Christophe – D34.5 Colvert, Brendan – F1.77, G35.3, KP1.165 Chini, Greg – D1.5, D29.1, E31.1, Claret, Julien – A20.4 M25.2 Croson, Matthew – H13.2 Q30.8 Clark, Abe – M12.4 Combariza, Javier – KP1.83 Crosson, Matt – E32.6 Chini, Gregory – H22.1 Clark, Abe – R29.1 Combriat, Thomas – G8.6 Crowdy, Darren – D15.7 Chini, Gregory P. – R10.7 Clark, Heather – L15.10 Comola, Francesco – M4.4 Crowdy, Darren – A14.7 Chioccioli, Maurizio – H25.1 Clark, Timothy – R19.3 Comtet, Jean – H32.8, M9.5, Crowdy, Darren – H2.7 Chiquete, Carlos – C1.4, R2.5 Clark, Timothy – H21.5 M10.5, M40.5 Crowdy, Darren – G31.5 Chireux, Veronique – L35.4 Clarke, Amanda – M4.3 Concha, Andres – E32.2 Crowdy, Darren – G19.7 Chitta, Subhashini – D7.4, KP1.47 Clarke, Peter – D20.6 Concha, Andres – E32.1 Crowe, William – L36.2 Cho, Inhee – A10.9, L3.1, L3.2 Clausen, J.R. – M36.7, R1.6 Conn, Justin – L28.10 Crowley, Christopher – M6.2 Cho, Kun – G35.5 Claveira, Viviana – E24.4 Connelly, Kelly – L26.5 Cruikshank, Ross – L15.7 Cho, Minjeong – A17.7, L34.10 Claveria, Viviana – L26.12, Q34.13 Connington, Kevin – D2.10 Crumeyrolle, Olivier – A11.3 Cho, Yeunwoo – H31.3, R11.9 Clavijo, Cristian – D13.1, D34.2, Conroy, Devin – L18.3, R22.12 Crumeyrolle, Olivier – R30.10 Choi, Haecheon – L27.11 G35.7 Constantinides, Yiannis – E20.1, Cubaud, Thomas – D10.8 Choi, Haecheon – L7.8 Clay, M.P. – R21.8 M15.3 Cubaud, Thomas – D33.5 Choi, Haecheon – R18.4 Clayton, Katherine – D10.10, R10.9 Cook, Andrew – D40.1 Cubaud, Thomas – E38.5 Choi, Haecheon – R37.12 Clemens, Noel – L21.8 Coombs, Deshawn – 1B.2, G40.10 Cucchieri, Attilio – KP1.46 Choi, Haecheon – D16.7 Clemens, Noel – H39.9 Copeland, Michael – L29.3 Cueto-Felgueroso, Luis – A1.7, Choi, Haecheon – D16.8 Clément, Eric – D25.8 Coppola, Gennaro – E34.3, G16.6 L1.8, R14.11 Choi, Haecheon – A14.5 Clements, Michael – D2.1, D9.7 Corbett, Andrew – G31.3, M9.1 Cuevas-Bautista, Juan Carlos – Choi, Haecheon – H27.9 Clercx, Herman – D30.3 Cordasco, Daniel – D5.7, R23.5 H22.1 Choi, Haecheon – A17.7 Clercx, Herman – L2.4 Cordier, Laurent – H29.10 Culver, R. Lee – L6.11 Choi, Hoseok – M1.7 Clercx, Herman – H40.7 Corke, Thomas – M28.2 Cummings, Linda – D10.1, J34.13, Choi, James J. – M36.1 Clercx, Herman – M21.3 Cornelissen, Annemiek J. M. – P1.30, W50.8 Choi, Jeesoon – D16.6, G30.7 Clercx, Herman – M4.6 R40.8 Cummings, Linda J. – E1.3 Choi, Nakchul – M1.7 Clercx, Herman – M10.3 Corrales, T. – KP1.90, H25.7 Cummings, Reed – L9.6 Choi, Sangho – A17.7, GF.8 Clercx, Herman – M10.7 Corre, Yoann – A30.8, E11.5 Cunitz, Bryan – M36.4 Choi, Seawhan – KP1.29 Clercx, Herman – M10.8 Correia Braga, Carlos – M9.5 Curbelo, Jezabel – E2.5, G35.4, Clercx, Herman – M28.9 M11.3

123 Curet, Oscar – A25.7, A26.8, H5.7 Das, Siddhartha – G28.10 Deegan, Robert – G32.4, KP1.58, Dey, Anita – E40.2 Curet, Oscar M. – D26.8, E32.4 Das, Siddhartha – KP1.62 J34.9 Dhamotharan, V. – M21.5 Czulak, Alexander – D16.3 Das, Siddhartha – KP1.67 Deepu, P. – M4.9 Dhanasekaran, Johnson – H2.6 Das, Siddhartha – G14.3 Defraeye, Thijs – H1.10 Dhandapani, Chandru – H39.2 -- D -- Das, Siddhartha – G24.2 DeGennaro, Anthony – R5.10 Dhanjal, Amanjalot – M17.3 d’Albignac, Vincent – A35.6 Dasari, Teja – L13.5 DeGiuli, Eric – M12.1 Dhariwal, Rohit – A32.6, M4.2 D’Angelo, Maria Veronica – G8.8 Dasgupta, Moumita – A28.9 degiuli, eric – D6.1 Dharmarathne, Suranga – D19.5, D’Angelo, Yves – D3.6, H26.9 Dasgupta, Ratul – H13.10, Y30.4 Degond, Pierre – G23.3 G21.10, R32.2 D’Avino, Gaetano – G2.10 Dash, Sunil Manohar – R13.10 Deguen, Renaud – L22.11, R30.4 Dhillon, Navdeep – H35.6, L4.2, d’Ortona, Umberto – A23.7, A31.9 Datt, Charu – H23.6 Dehaeck, Sam – A33.2 L4.8 Démery, Vincent – H32.2 Datta, Sujit Sankar – P34.1 Dehaeck, Sam – A32.7 Dhir, Gaurav – A4.8 Dabiri, John – D26.5 Dauparas, Justas – G24.1 Dehandschoewercker, Eline – Di Carlo, Dino – R8.11 Dabiri, John – G27.10 Davani, Abbasali – D5.6 A13.1, R31.10 Di Carlo, Dino – H8.3 Dabiri, John – L19.6 Davidovitch, Benny – H32.2 Deike, Luc – L31.2 Di Labbio, Giuseppe – F1.12, R2.4 Dabiri, John – M14.5 Davidson, D.F. – M28.3 Deike, Luc – L31.7 Di Staso, Gianluca – D36.4, H40.7 Dabiri, John – H12.3 Davidson, John – G4.8, KP1.27, Deike, Luc – H30.8 Diama, A. – KP1.90, H25.5 Dabiri, John – H12.4 L13.7, R36.7 Deiterding, Ralf – E28.1, KP1.6, Diamesis, Peter – R29.2 Dabiri, John – H12.2 Davidson, Scott – H14.6, M3.5 L35.1 Diamessis, Peter – D38.5 Dabiri, John – H12.1 Davies, Jason – M26.6 del Alamo, J.C. – JD.10, R24.1 Diamessis, Peter – L4.6 Dabiri, John – R38.1 Davies Wykes, Megan – A23.4, del Alamo, Juan C. – L26.7 Diamessis, Peter – D30.1 Dabiri, Sadegh – R36.1 L39.8 del Alamo, Juan Carlos – D25.1, Diaz Daniel, Carlos – D19.3 Daghighi, Yasaman – R9.8 Davis, Dustin – H39.3, L3.5 KP1.22 Dickenson, Natasha – D24.2, Daghooghi, Mohsen – D2.2, D2.5 Davis, Sean – J4.1, K6.2, L2.6 del Campo, V. – KP1.90 H14.9 Dagois-Bohy, Simon – A2.1 Davis, Stephen – G36.1 Delahaye, Fabien – E24.2 Diegelmann, Felix – G40.1 Dahal, Jeevan – L17.6 Davis, Stephen – D33.1 Delidakis, George – L24.5 Diehl, Cecilia – L24.9 Dahl, Jason M – D18.7 Davis, Stephen H. – E36.6 Dell, Zachary – GO5.10, D4.6 Dierichs, Karola – L10.6 Dahl, Jason M. – D18.1, D13.5, Davit, Yohan – H24.2 Dell’Orso, Haley – H37.10, R21.2 Dietze, Georg – KP2.5 H4.3, R13.12 Dawson, James – A7.3 Dellar, Oliver – A16.3 Dietzel, Mathias – M16.4, R22.5 Dahm, Werner J. A. – E20.4 Dawson, James – M19.5 Delmotte, Blaise – A23.3, D6.7 Dietzsch, Felix – D34.6, M2.4 Dai, Albert – H23.8, M30.6 Dawson, Scott – R5.10 Delplanque, Jean Pierre – G7.7 Diez, Francisco J. – G14.10 Dai, Xianming – D33.7 Dawson, Scott – H29.3 DeMarchi, Nicholas – D2.9, R35.6 Dijksman, Joshua – D6.2 Dai, Yi – H40.4 De, Rohan – M32.3 DeMauro, Edward – K4.2, D4.2, Dijksman, Joshua – A6.1 Dalbe, Marie-Julie – A1.5, L17.12, De, Shauvik – A12.8 D32.8 Dijksman, Joshua – A6.4 Y21.6 de Anna, Pietro – E3.1, E6.6, Dembele, Siaka – R11.3 Dijkstra, Marcel – G35.6 Dalla Longa, Laurent – D17.10 G1.2, H18.6 Demetriou, Michael – A16.1, H19.9 Dilek, Ezgi – KP1.26 Dallaston, Michael – M16.9, R23.2 de Barros, Felipe P. J. – R28.3 DeMillard, Eric – A22.6 Dimakopoulos, Yiannis – A1.5, Dally, Bassam B. – M2.3, M2.8 de Boer, Andre – L10.12 Demirel, Melik – R9.1, Y44.3 A1.6, D5.4, E12.5, L24.5, M8.5, Dalnoki-Veress, Kari – H32.5 de Braganca Alves, Felipe Deng, Bing-Qing – G22.9 R26.8, R22.9 Dalsing, Michael – R24.6 Augusto – L4.9 Deng, Jian – E40.3 Dimitriadis, Gregorios – L33.8 Dalton, Chad – A2.8 de Bruyn Kops, Stephen – L4.9 Deng, Mingge – R4.10 Dimotakis, Paul – R21.2 Dalwadi, Mohit – E1.1 de Bruyn Kops, Stephen – A30.7 Deng, Sili – M2.3 Dimova, Rumiana – E37.1, R13.2 Dalziel, Stuart – D21.7 de Bruyn Kops, Stephen – D30.1 Deng, Zhekai – H10.6 Ding, Liuyang – D27.3 Dalziel, Stuart – H31.9 De Canio, Gabriele – D25.3, H6.4, Denissen, Nicholas – D40.4, Dingari, Naga Neehar – H14.2, Dalziel, Stuart – M1.6 H23.4 E39.5, H28.5, L17.2 R3.1 Dalziel, Stuart – M18.7 de Castro da Silva, Andre Denissenko, Petr – A6.1, E3.2, Dinic, Jelena – G10.1, G10.4, Dalziel, Stuart – L4.2 Fernando – A17.3 G23.7, R11.3 M43.7 Dalziel, Stuart B. – G35.1, L30.3, De Corato, Marco – H23.7 Denner, Fabian – H7.4, L18.10, Diskin, Boris – D8.7 M35.2, R28.6 De Dier, Raf – A23.9 R6.7, R 22.10 Divoux, Thibaut – A2.9, E12.6 Dam, Nico – G22.8, H14.6, M28.9 de Graffenried, Christopher – Dennis, David – D12.7 Diwan, Sourabh – G27.5, L15.3 Damak, Maher – A36.7 A28.1 Dennis, David – G22.4 Dixit, Harish – A18.5, D32.1 Damiano, Adam – G33.3, H33.3 de Jong, Franciscus – E11.2, Dentz, Marco – E3.3, G1.1, H28.6, Dixon, Brandon – A24.5 Damiano, Robert – L23.9, M26.6, M36.6 R28.3 Dizaji, Farzad – L2.7 M26.8 de Jong, Nico – L4.7, L37.4 Dequidt, Gregoire – H1.5 Dizon, Ian – R16.7 Damone, Angelo – M8.3 de Jong, Rianne – M32.5, T44.12 Derakhti, Morteza – E1.2, L31.9 Djibrilla Boureima, Ismael – D39.5 Dan, Clingman – G15.3 de Kat, Roeland – L33.6 Derek, Moormeier – G24.3 Do, Hyungrok – E6.1 Danabasoglu, Gokhan – H23.3, de Kat, Roeland – D22.5 Derome, Dominique – H1.10 Do-Quang, Minh – G31.4 KP1.159 de Kat, Roeland – H22.6 Derr, Julien – KP1.99 Do-Quang, Minh – M22.3 Danaila, Luminita – M21.9 de Kat, Roeland – H16.6 Derr, Julien – R11.7 Doak, William – G33.6, L8.7 Danesh-Yazdi, Amir – A18.9, de la Camara, Alvaro – H30.4 Derr, Julien – R40.8 Doan, Minh – D29.6 M13.9 de Langre, Emmanuel – M40.1 Desai, Aditya – A15.5 Dobra, Tom – H31.9 Dang, P. – TP8.71, H20.3 de Langre, Emmanuel – M40.7 Desai, Pratik – H36.9 Dodd, Michael – A20.9, H33.5 Dani, Archit – B15.1, G28.8 de Langre, Emmanuel – M40.8 Deshler, Nicolas – KP1.28 Doelger, Julia – H25.4 Daniel, Timothy D. – M36.6 de Luca, Luigi – E34.3, G16.6 Deshpande, Rahul – A15.5 Doering, Charles – A16.8, D11.2, Daniels, Karen – H31.4 de Maleprade, Helene – A13.4, Deshpande, Suresh – E8.5, L34.8 L19.8, M14.7, M16.2, M16.3 Danielson, J.R. – E7.2 R36.4 Desjardins, Olivier – E5.2 Doering, Charles R. – H11.2, Danish, Mohammad – D20.4 De Marinis, Dario – H16.4 Desjardins, Olivier – H7.6 G20.2, R10.7 Dannenhoffer, John – R6.8, R8.1 de Pablo, Juan – A35.1 Desjardins, Olivier – H3.9 Doerr, Aaron – H2.9, R8.3 Danon, Ron – M28.1 de Pater, Imke – AV.2, R30.1 Desjardins, Olivier – H7.7 Dogan, Eda – D22.4, D27.6 Dantus, Marcos – E27.1 de Rivas, Alois – E25.5, R26.12 Desjardins, Olivier – L2.8 Dolata, Benjamin – E2.4, Q46.6 Dao, Ming – R23.12 De Santi, Francesca – A27.3, Desjardins, Olivier – G5.9 Dolatabadi, Ali – D4.5, L6.8, L10.3, Darakananda, Darwin – E16.2, L30.4 Desjardins, Olivier – R33.4 M17.5, M28.2, R16.7, R27.12 R30.9 de Silva, Charitha – D22.6 Desjardins, Olivier – M4.1 Dolgopyat, Danny – KP1.7 Darbois Texier, Baptiste – A14.3, de Souza Mendes, Paulo Roberto Desjardins, Olivier – KP1.120 Dollet, Benjamin – G36.6 D31.8 – R11.4 Desjardins, Olivier – G3.5 Dollet, Benjamin – G36.8 Darbois-Texier, Baptiste – D31.2, De Stefano, Giuliano – H21.2 Desreumaux, Nicolas – G23.4 Dollet, Benjamin – R33.1 D31.3, G15.1, M35.1 de Tullio, Marco D. – M24.4 Dettmers, Kristin – M33.5 Domaradzki, Julian – AC.1, AC.2, Daripa, Prabir – L1.10 de Tullio, Marco Donato – H16.4 Deusebio, Enrico – A27.4, L4.1 MD.3, RG.8, L8.7 Daripa, Prabir – L1.9 De Wit, A. – H18.8 Deutsch, M. – KP1.90 Domaradzki, Julian Andrzej – R3.1 Daripa, Prabir – KP1.135 De Wit, A. – D11.6 Devauchelle, Olivier – R12.9 Domenicale, Loris – G16.2 Darras, Alexis – H6.2, H6.8, L25.6 De Wit, Anne – D1.7, H18.9, DeVelder, Nathaniel – D28.8 Domiguez, Roberto – R36.2 Darve, Eric – M7.3 KP1.89, L22.8, M11.7 Devic, Ivan – A31.4 Dong, Charles – G4.2 Das, Debasish – D37.5 de Zegher, Maximilien – L16.9 DeVilbiss, David – D27.2 Dong, Haibo – A26.5 Das, Gargi – R12.12 deAnna, Pietro – A1.6 DeVincentis, Brian – G6.7 Dong, Haibo – H27.8 Das, prasanta – R12.12 Debnath, Mithu – D30.5, H29.7 DeWall, Petronella – G30.6 Dong, Haibo – A26.9 Das, Sambeeta – R9.5 Decker, Kirk – D30.9 Dewan, Anupam – A21.9, L11.5, Dong, Haibo – L27.7 Das, Siddhartha – R4.7 M11.6 Dong, Ming – D7.5

124 Dong, Suchuan – H7.8, R31.9 Dunphy, Michael – L29.7 Eldredge, Jeff D. – E16.2 -- F -- Donnell, Geoffrey – R37.7 Dupire, Jules – R23.8 Elele, Ezinwa – A36.4, D9.1 Fabre, David – G17.1 Donzis, Diego – M7.1 Dupoiron, Marine – R36.6 Elfring, Gwynn – L26.4, R8.6 Fabre, David – L39.6 Donzis, Diego – D20.3 Duponcheel, Matthieu – D8.6, Elfring, Gwynn J. – H23.6, H25.9 Fabre, David – L35.4 Donzis, Diego – D20.2 D30.6, E22.5, E28.6, M18.7 Eliasson, Veronica – D4.4 Fadlallah, Hadi – D25.6 Donzis, Diego – G20.9 Dupont, Claire – E24.2, R13.7 Eliasson, Veronica – D4.5 Fahrig, Rebecca – D15.8, E5.5, Donzis, Diego – A20.6 Duprat, Camille – H32.10 Eliasson, Veronica – D4.8 G29.7, H1.4 Doosttalab, Ali – G21.10, L26.9 Duque-Daza, Carlos – E20.5, Eliasson, Veronica – D4.1 Fai, Thomas – A8.5, E24.6 Doppler, Delphine – M40.6, R29.10 KP1.83, L25.10 Eliasson, Veronica – R40.11 Fairhall, Chris – H15.8 Doran, Eric – BB.8, R4.3 Duraisamy, Karthik – H21.6, Elkins, Chris – G3.2 Fakhari, Ahmad – A14.9 Dorbolo, S. – L28.6 H21.8, H21.9, R25.10 Elkins, Christopher – KP1.75 Falahatpisheh, Ahmad – L33.2, Dorbolo, Stéphane – D31.8 Duran-Matute, Matias – D30.3, Elliot, Gregg – A5.4 L18.1 Dorbolo, Stephane – G15.1 E26.5, R29.8 Elliot, Gregory – G21.4 Falcón, Claudio – H31.5, R13.7 Dorbolo, Stephane – A36.3 Duran-Olivencia, Miguel A. – L3.7, Elliott, Gregory – A5.9, M35.4 Falcon, Claudio – L31.3 Dorbolo, Stéphane – D31.2, D31.3, R33.9 Eloy, Christophe – M40.10 Falcon, Eric – L31.2 M35.1 Durand, Corentin – L40.7 Elsas, José Hugo – R15.7 Falcon, Eric – L31.1 Dorey, Jean-Marc – G13.7 Durbin, Paul – A21.7, D38.8, Elsinga, Gerrit – A22.2 Fallenius, Bengt – HE.3, H15.3 Dorofeev, Sergey B. – G39.1 L27.6, L27.8 Elsinga, Gerrit – A19.1 Fallenius, Bengt E. G. – D22.8 Dose, Bastian – D28.3 Durgesh, Vibhav – G7.6, R14.1 Elsnab, John – H12.9, L32.8 Fan, Boyu – H29.4, M13.6, R36.5 Doshi, Pankaj – D6.3, G32.2, During, Gustavo – D6.1, Q16.14, Elsworth, Cooper – L6.6 Fan, Jing – G1.9, U28.10 H10.8, M3.9, R16.3 Q18.6 Elton, Eric – G31.7, H13.9 Fan, Tai-Hsi – G26.7, F12.9, Dossmann, Yvan – L29.3 Durna, Ahmet Selim – D4.10 ELVIN, NIELL – D18.5 G16.13, H1.313, P1.299, P1.313 Dou, Zhongwang – D8.2, D8.8, Dusek, Jeff – E26.3, LN.6 Elvin, Niell – H16.3 Fan, Yuyang – D29.2, H8.7, L32.7, G3.1, H3.8 Dussan V., Elizabeth – D2.3 Elvin, Niell – H16.2 M8.7, M28.10, M27.7 Douady, Stéphane – R40.8 Dusting, Jonathan – EE.1, PP.6, Elvin, Niell – M13.9 Fang, Fang – A27.2 Douarche, Carine – A6.9, D25.8, L26.8 Elvin, Niell – L14.2 Fanning, Tate – H32.1 G9.5 Dutta, Rabijit – A21.9, E22.4 Emerson, Benjamin – E38.3, Fanning, Tate – A14.6 Douglas, Christopher – E38.3 Dutta, Sourav – KP1.135 H39.10, L5.10, M34.10 Fantuzzi, Giovanni – G20.10, Dowdye, Edward – T10.7, R30.12 Dutta, Sourav – L1.9 Encinar, Miguel P. – H22.10 G17.6 Dowling, David R. – A6.6, D25.1 Duvvuri, Subrahmanyam – A26.5, Ende, Dirk van den – G31.10 Farazmand, Mohammad – G35.6, Downs, Robert – H15.3, R25.4 H22.3 Engels, Thomas – A5.7, A26.3, M14.2 Downs III, Robert S. – D22.8 Dyke, Gareth – R38.5 H27.10 Farge, Marie – G30.5 Dreesen, Laurent – H15.4, H32.6 Enohata, Kei – L20.4 Farge, Marie – R20.9 Dressaire, Emilie – H32.3 -- E -- Epely-Chauvin, Gael – H10.2 Farhadi, Somayeh – E2.6 Dressaire, Emilie – KP2.10 Eaton, John – A22.4 Epps, Brenden – H12.9, M27.1, Faria, Luiz – G33.8, H35.1, R2.8 Dressaire, Emilie – L10.2 Eaton, John – KP1.75 M35.7, M35.9, R14.11, R14.12 Farias, Paul – K4.2, D4.2, D32.8 Driscoll, T.A. – G24.4, M18.6 Eaton, John – G3.2 Er, J.W. – L20.9 Farokhi, Saeed – E16.3 Driscoll, TA – A24.8 Eaves, T. S. – M6.8 Er, Jenn Wei – R27.11, R28.6 Farokhirad, Samaneh – G32.7, Driscoll, Tobin – A18.4, D24.9, Ebadi, Alireza – A20.7, L26.2, Erath, Byron – H26.8, R24.2, M33.8 G24.8 L26.10, R20.8 R24.8 Farrell, Brian – R20.10 Druart, Xavier – A6.2, G23.3 Ebi, Dominik – H39.9, R34.1, Erath, Byron D. – G18.6, H26.9 Farsiani, Yasaman – D12.8 Druzgalski, Clara – H14.5, M3.2 R34.2 Erb, Randall – M1.8 Fasano, Matteo – M9.5 Dsouza, Peter Varun – M12.2 Echeverria, Carlos – D7.1, D20.1, Erdogan, Malcolm – A27.5 Fasel, Hermann – L21.10 Du, E. – R23.12 F1.82, F1.83 Erickson, Lindsay – D9.7 Fauci, Lisa – M24.8 Du, Xiyu – H15.9, G32.4 Ecke, Robert – L30.1 Erinin, Martin A. – R27.5 Fauci, Lisa – H23.5 du Pontavice, Emmanuel – L35.10, Eckert, Sven – H11.8, M23.1 Ermanyuk, Evgeny – M31.2, M31.3 Fauci, Lisa – D26.4 M13.4 Eckhardt, Bruno – M6.4 Ern, Patricia – A9.1, D30.7, R17.4 Fauci, Lisa – D23.7 du Puits, Ronald – H11.9, R19.11 Eckhardt, Bruno – H20.1 Erzincanli, Belkis – KP1.26, L15.10 Favier, Benjamin – E30.3 Duan, Chuanhua – G9.6, G9.7, Edabi, Alireza – R7.3 Escauriaza, Cristian – A18.6 Favier, Julien – A23.7, A31.9, G6.1 G14.4 Eddi, Antonin – D13.4 Escauriaza, Cristian – R29.7 Fay, Endicott – A13.3 Duan, Huiling – G11.5, H1.7, M2.2 Edelman, Elazer R. – KP1.21 Esclape, Lucas – D5.8 Fedosov, Dmitry – L26.12 Duan, Lian – L21.9 Edelvik, Fredrik – E35.4, R11.8 Esclapez, Lucas – D5.5 Fei, H.T. – D6.4 Duarte, íris – G35.3 Eden, Alex – A10.2 Eshraghi, Mohsen – G6.3, L31.8 Fei, Linhao – R16.6 Dubief, Yves – R32.12 Edlund, E. – H20.3 Eslam Panaha, Azar – M25.9 Feldman, Leonard – L40.7 Dubief, Yves – R20.8 Edlund, E. M. – R32.4 Eslami, Parastou – H7.4, L24.8 Felicelli, Sergio – G6.3, L31.8 Dubief, Yves – R7.3 Edoh, Ayaboe – H34.2, R3.6 Esmaeeli, Asghar – A36.5, A36.6 Feltham, Graham – E40.5, M18.8, Dubief, Yves – L11.7 Edri, Yaron – H14.7 Esmaily Moghadam, Mahdi – M18.9 Dubief, Yves – D12.1 Edstrand, Adam – A9.7, A30.2 G3.3, G16.7 Feng, Heng – L2.8 Dubois, Charles – H35.8, R11.5, Edwards, Emma – KP1.158 Esmaily-Moghadam, Mahdi – Feng, James – D34.1 P41.12 Edwards-Levy, Florence – L40.3 M24.2 Feng, James – H32.4 Dubrovina, Elizaveta – M3.9, Egan, Raphael – D12.1 Espin, Leonardo – D33.8, L22.1 Feng, Jie – E10.5 R16.10 Eggers, Jens – G29.4 Esplin, J. James – L6.11 Feng, Jie – L39.5 Dubuffet, Fabien – M11.3 Egorova, Tatiana – A16.1 Estevadeordal, Jordi – M14.2, Feng, Jinyong – E25.4, M22.6 Duchemin, Laurent – A16.3, M32.2 Eich, Felix – D19.9 M14.8, R 27.1 Fenner, Raenita – E3.2 Duchesne, Alexis – A28.9, D31.2, Eiff, Olivier – H26.7, L4.8 Estrada, Alexandro – G10.1 Fenster, Brett – D7.8, R24.11, D31.3, H13.1, H35.8, R11.5, Eijkel, Jan – G35.6 Estrada, Jonathan – L37.5 R24.12 L31.9 Einarsson, Halldor – L26.3, M11.2 Etemad, Sahand – KP1.34 Fermigier, Marc – G4.5 Duffy, Brian – L28.10 Eisma, Jerke – A19.1 Etienne, Stephane – R1.8 Fernandez, Juan Manuel – G12.9, Dufresne, Eric – H1.1 Eisner, Brian – A24.3 Evangelio, Alvaro – G10.7, H36.2 M32.9 Dufresne, Eric – G32.5 Ekiel-Jezewska, Maria – A2.9, Evans, A.J. – A31.2, L1.2 Fernandez, Vicente – G23.8 Dufresne, Eric – H28.4 D32.8, E23.3, L10.6 Evans, Arthur – G28.7 Fernandez-Aviles, F. – R24.1 Duguet, Yohann – D38.10, M25.4 Ekiel-Jezewska, Maria L. – H2.9, Evans, Michael – B10.5, D5.4, Fernandez-Feria, Ramon – D11.5, Duhayon, Eric – L14.3 R8.7 H44.5, L14.10 D11.9, L16.3 Dullens, Roel P.A. – E10.6, R6.8 Ekinci, Kamil – D23.10 Evrard, Antoine – H37.2, L28.12 Fernandez-Rivas, David – H11.6 Duncan, Andrew – H28.6, R33.9, Ekinci, Kamil – G8.2 Evrard, Fabien – H7.4 Fernando, Harindra – M30.3 V44.4 Ekinci, Kamil L. – H17.3 Evstafyeva, Olga – D17.9 Fernando, Harindra – M30.5 Duncan, James – B1.1 Ekmekci, Alis – E40.5 Ewoldt, Randy – E35.2 Fernando, John – G33.6, L19.4 Duncan, James H. – A13.5, H13.5, El Hadj Maiga, Baba – E13.1 Ewoldt, Randy – G10.7 Ferrante, A. – R2.9 H30.9, H31.3, R27.5 Elabbasi, Nagi – R9.1 Ewoldt, Randy – M32.4 Ferrante, Antonino – A20.9 Dung, On Yu – H20.2 Elbaz, Shai – D15.5, L1.5 Ezeta Aparicio, R. – H20.3 Ferrari, P. – KP1.90, M40.3 Dunkel, Jörn – D25.4 Elbing, Brian – D7.6, D12.8, E16.1, Ezhilan, Barath – D6.4, D23.3, Ferrari, Raffaele – G30.10, L1.5, Dunkel, Jorn – A23.1 H27.3, M29.6, R25.4 D23.6 KP1.104, L29.1, L30.10 Dunkel, Jorn – L1.6 Eldredge, Jeff – L26.5 Ferretti, Giulia – G18.4 Dunn, Dennis – 1B.90, H3.10 Eldredge, Jeff – M26.5 Ferro, Marco – D22.8 Dunnmon, Jared – E5.5, G1.6, Eldredge, Jeff – R24.7 Fery, Andreas – KP1.118 G29.7 Eldredge, Jeff – A26.4 Fezzaa, Kamel – D31.4

125 Fezzaa, Kamel – R33.7 Foti, Daniel – L13.8, R26.5 Fuster, Daniel – M22.1 Gao, Tong – D6.6, D23.9 Fezzaa, Kamel – L36.12 Foucaut, Jean-Marc – M27.1, Fuster, Daniel – L36.8 Gao, Wei – R4.4 Fiévet, Romain – A39.2 M27.2, R20.1 Fuzier, Sylvie – D4.6, L36.12 Gao, Xin – R29.9 Fideles Da Silva, Jefferson – Fournier, Jérome – R40.8 Gao, Yu – B4.3, H4.7, L37.3 KP2.25 Fourrie, Gregoire – H22.6 -- G -- Garanaik, Amrapalli – D23.4, Fievet, Romain – D20.6, D34.9 Fouxon, Itzhak – AZ.10, G3.9 G. Im, Hong – H39.8 L30.9 Figliola, Richard – A16.2, M24.2 Fovargue, Lauren – A24.9, E23.6 Gad-el-Hak, M. – G15.7 Garbin, Valeria – A4.2, A4.9, Figliuzzi, Bruno – H14.1, R10.10 Fox, Rodney – H3.9 Gad-el-Hak, M. – G15.2 G36.10, H36.3, L2.2, M36.1 Figueroa-Morales, Nuris – R39.10 Fox, Rodney – L2.8 Gad-el-hak, Mohamed – H4.10, García-Mayoral, Ricardo – L20.9, Filardo, Benjamin – E23.6 Fox, Rodney – KP1.120 KP1.87 R18.6 Filella, Audrey – A9.1, H11.1 Fox, Rodney O. – D9.4, H20.8, Gada, Komal – R14.10 Garcia, Elifalet – R14.1 Filippi, Margaux – A29.6, D17.8 M4.1 Gagarina, Nina – L23.1 Garcia, Heynert – D13.7 Filler, Michael – L40.7 Fox-Kemper, Baylor – H30.1 Gagniere, Steven – L1.1 Garcia, Marcelo H. – R29.4 Filoche, Marcel – E15.4, G25.2, Fox-Kemper, Baylor – H30.3 Gagnon, David – M23.2 Garcia, Marti Cortada – G10.8 G25.8, M7.2 Fox-Kemper, Baylor – G30.7 Gagnon, David – M23.5 Garcia, Mike – G8.3, H9.10 Fineberg, Jay – H13.6 Fox-Kemper, Baylor – G30.8 Gagnon, Ian – A24.2, D14.3 Garcia Cartagena, Edgardo Javier Fink, Kathryn – L10.9, R23.11 Fox-Kemper, Baylor – E21.2 Gagnon, Zachary – D37.7 – L12.3 Finn, Justin – D3.4 Fox-Kemper, Baylor – KP1.159 Gai, Ya – E10.1 Garcia de la Cruz, Juan Marcos Finney, Mark – G39.10 Fröhlich, Jochen – R29.3 Gaillard, Antoine – G13.9, M17.7 – L15.8 Firehammer, Stephanie – H7.6, Fraggedakis, Dimitris – A1.5, Gaillard, Benoit – L5.8 Garcia Sanchez, Clara – A1.5, L8.1 E12.5, R26.8 Gaitonde, Datta – A29.3, D35.1, L6.2 Fiscaletti, Daniele – A22.2, L28.6 Fragner, Moritz M. – KP1.6 E19.3, H38.5, H38.9, L5.11 Garcia-Garrido, V. J. – R28.4 Fischer, Ian – A25.3 Franck, Christian – L37.5, W49.6 Gajjar, Parmesh – G24.4, H10.2 Garcia-Mayoral, Ricardo – H15.8 Fischer, Ian – L40.5 Franck, Jennifer – D16.3 Gale, Manuel – H7.5, M3.3 Garcia-Mayoral, Ricardo – H15.10 Fischer, Ian – G28.3 Franco-Gomez, Andres – H18.3 Gale, Yajing – H7.2 García-Mayoral, Ricardo – R22.2 Fischer, Paul F. – A18.2 Francois, Marie – M28.8 Galeano-Rios, Carlos – M33.3 Garcia-Perciante, A. L. – L3.6 Fish, Frank – A26.5 Frandsen, Jannette – M39.5 Gallaire, Francois – E40.6 Garcia-Perciante, A.L. – L3.5 Fish, Frank E. – A26.6, D17.5 Frandsen, Jannette – R29.12 Gallaire, Francois – A32.3 Garcia-Perciante, A.L. – L3.3 Fishman, Gregory – R14.3 Frank, Daria – M35.3, R10.1 Gallaire, Francois – G32.9 Garcia-Perciante, A.L. – L3.4 Fitzsimmons, Nicholas – R19.10 Frank, Hannes – L8.11 Gallaire, Francois – M18.8 García-Perciante, Ana Laura – Flór, Jan-Bert – M31.2, M31.3 Frank, Sarah – E13.1, 1A.10, Gallaire, Francois – M16.7 L3.11 Flack, Karen – R1.9 KP1.22 Gallaire, Francois – M17.6 Gardeniers, Han – G35.6 Flack, Karen – R1.6 Frankel, Ari – A3.7, D32.2, D32.3 Gallaire, Francois – R33.1 Gardner, Harrison – E26.6 Flack, Karen – R1.2 Frankel, Itzchak – D37.2 Gallaire, Francois – R33.11 Garg, Vishrut – G18.6, G15.3 Flack, Karen – M19.9 Fransson, Jens – HE.3, H15.3, Gallaire, François – G13.10 Garimella, Suresh V. – BB.8, H5.2 Flack, Karen – G24.10 H17.4 Gallais, Mathieu – M32.2 Garmann, Daniel – M14.4 Flack, Karen – G24.9 Fransson, Jens H. M. – D22.8, Gallana, Luca – A8.9, A27.3, Garreau, Guillaume – L24.11 Flad, David – L8.11 D38.6 A36.5, L30.4 Garrett, Stephen – D1.6, D19.2, Flamand, Olivier – M40.8 Fraternale, Federico – A8.9, Gallet, Basile – D11.8, D25.6, D21.1 Flamant, Nicolas – M18.5 A36.5, G16.2 E30.5, M17.9 Garstecki, Piotr – E35.1, R21.8 Flandroy, Marie – A33.2 Freedland, Graham – A21.6, 1A.23 Galletti, Chiara – L38.7, M10.2 Gart, Sean – A35.7 Flierl, G.R. – GN.2, R15.1 Freilich, Daniel – G19.8, R18.12 Gallino, Giacomo – A32.3 Gart, Sean – L36.2 Flierl, Glenn – A2.3, G11.5, R28.1 Freniere, Cole – M7.5 Gallis, Michael – D40.6, QC.2, Gart, Sean – G26.8 Flint, Tim – A14.3 Frenkel, Alexander – G18.9 QC.4, QC.5 Gat, Amir – D10.4 Flor, Jan-Bert – E26.5, L4.3 Freudenhammer, Daniel – D27.1 Gallucci, Sergio – M24.6 Gat, Amir – L38.4 Floryan, Daniel – A26.7, D16.4, Freund, Jonathan – A5.4 Galstyan, Vahe – D15.6 Gat, Amir – L38.5 G27.8, L4.1, R38.8 Freund, Jonathan – A5.9 Galvez, Richard – NC.1, R15.5 Gat, Amir – A10.5 Floryan, Jerzy M. – D17.1, D19.3, Freund, Jonathan – H38.4 Gambaruto, Alberto M. – L23.2 Gat, Amir – D15.3 G22.9, H20.9 Freund, Jonathan – M1.10 Gamble Rosevear, Madeleine – Gat, Amir – D15.4 Floryan, Jerzy Maciej – D17.2, Freund, Jonathan – G2.8 L29.3 Gat, Amir – D15.5 R17.2 Freund, Jonathan – G21.4 Game, Simon – H8.7 Gat, Ilana – R21.2 Flynn, Morris – R10.4 Freund, Jonathan B. – M36.2 Ganapathisubramani, Bharath – Gatsonis, Nikolaos – A16.1 Foat, Tim – L6.10 Fricke, Nico – D37.9, R13.3 E18.5 Gatsonis, Nikolaos – H40.6 Fodor, Petru S. – R32.1, R15.9 Friedland, Ori – A30.8, KP1.7 Ganapathisubramani, Bharathram Gauding, Michael – D21.4 Follett, Elizabeth – M40.9 Friedman, Chen – H5.4, R38.2 – D21.3 Gauding, Michael – M2.4 Folz, Patrick – H19.7, H18.7 Friedman, Sasha – H12.8 Ganapathisubramani, Bharathram Gautam, Sashank – A19.7 Fomani, Grace – M3.7 Friend, James – D7.7, L38.2 – D19.1 Gauthier, Jean-Philippe – R1.8 Fonda, Enrico – KP2.4 Fromental, Jean-Marc – D5.2, Ganapathisubramani, Bharathram Gauvin-Tremblay, Olivier – R29.12 Fonda, Enrico – KP1.76 L26.12 – H22.6 Gayen, Bishakhdatta – A30.3 Fong, Kee Onn – L20.3 Fronzeo, Melissa – R6.5 Ganapathisubramani, Bharathram Gayen, Bishakhdatta – M29.3 Fonoberova, Maria – G29.6 Fruman, Mark – E31.2 – E18.4 Gayme, Dennice – R20.10 Fonseca, Bruno – R11.4 Fu, Hao – A32.10, A30.6 Ganapathisubramani, Bharathram Gayme, Dennice – D12.4 Fontaine, Arnie – D27.2, L28.3 Fu, Henry – H23.3 – D29.10 Gayme, Dennice – L13.3 Fontaine, Ryan – A5.9, G21.4, Fu, Henry – M23.9 Ganapathisubramani, Bharathram Gayme, Dennice – L13.4 M35.4 Fu, Henry – L26.3 – H16.6 Gayme, Dennice – L13.9 Fontana, Paul W. – E40.1 Fu, Henry – L25.8 Ganapathisubramani, Bharathram Gayme, Dennice – G12.5 Fontelos, Marco – G13.8, G35.8 Fu, Henry C. – L25.7, R39.3 – G21.9 Gayme, Dennice F. – D22.9 Foo, Elbert – G14.4 Fu, Matthew – H15.6 Ganapathisubramani, Bharathram Gazzola, Mattia – D26.1 Ford, Logan – M27.3 Fu, Xiang – M14.3 – R38.5 Ge, Siqin – L27.8 Forest, Jonathan – R22.6 Fu, Xiangyu – G32.6 Ganapathisubramani, Bharathram Geddes, John – L24.9, R30.6 Forest, M. Gregory – G18.8, Fu, Xiaojing – A29.6, L1.8 – R41.4 Gedikli, Ersegun D. – D18.1, H4.3 R1.256, W25.12 Fuchs, Laszlo – R24.3 Ganapathisubramani, Bharathram Gedikli, Ersegun Deniz – D18.7 Fornari, Walter – D3.1 Fuchs, Thomas – D27.6 – R22.1 Geigle, Klaus Peter – A39.8 Fornasiero, Francesco – L40.12 Fujimoto, Daisuke – R14.7 Ganapathisubramani, Bharathram Gelderblom, Hanneke – D32.9, Forney, Glenn – L7.3 Fukagata, Koji – D17.3, H20.5 – D22.5 D32.10, H12.4, H12.5 Foroozani, Najmeh – L11.1, L19.3 Fukazawa, Ryuji – L23.1 Ganapathisubramani, Bharathram Gell, Laura – M29.7 Forster, Christopher J. – H35.7, Fukumoto, Yasuhide – R15.8 – D22.4 Gemmell, Brad – A28.2, D26.5, L4.10 Fukunishi, Yu – A21.9, D38.1, Ganesh, Harish – R25.11 G6.5, G27.10 Forthofer, Jason – G39.10 D21.5, D21.8, M21.6 Ganesh, Harish – R25.10 Geneva, Nicholas – A4.1, G6.8 Fosas de Pando, Miguel – D35.2, Fullana, Jose-Maria – KP1.115, Ganesh, Harish – L36.3 Geng, Biao – H26.2 H17.2 L7.6 Ganguli, Swetava – A3.6 Genin, A. – R37.11 Foss, John – R32.6 Funakoshi, Mitsuaki – A15.1, R31.6 Ganguly, Ranjan – E13.4, G35.8, Gennaro, Elmer – G17.8 Foss, John – A22.1 Funderburk, Morgan – L21.12 H5.7 George, Benjamin – A35.2, E4.4 Fosson, Sophie – A8.9, A36.5 Furlan, Silvano – H25.1 Gao, Amy – M25.1, M25.2 George, Richard – D7.5, H7.4, Foster, Kenneth – D9.2, G23.6 Fuster, Daniel – R36.9 Gao, Jian – M28.4 L24.8 Foster, M.R. – A30.4 Fuster, Daniel – M22.2 Gao, Jian – G10.5 George, Richard T. – L24.6, R24.5

126 George, William – R41.9 Glezer, Ari – A18.3 Gordillo, Jose Manuel – H36.1 Gregory, James – E12.1, G4.3, George, William – A22.7 Glezer, Ari – L14.1 Gordillo, Jose Manuel – H36.2 G25.4, G25.10, M27.2, M28.1, Georgiou, Michail – H5.3 Glezer, Ari – L14.7 Gordillo, Jose Manuel – D31.6 R12.7 Georgiou, Tryphon – D27.8, H22.4 Glezer, Ari – L14.12 Gore, Jay – D5.8 Grenga, Temistocle – L17.10, Gera, Prerna – E37.3 Glimm, James – M18.4 Gore, Rob – E39.4 M26.3 Geraci, Gianluca – A3.1, A3.4, Glimm, James – D40.7 Gore, Robert – AW.4, AW.5, CW.6, Griffith, Boyce – A31.5, L12.6, G31.10, G35.10, M31.8 Glimm, James – KP1.172 D40.10 R37.5 Geraud, Baudouin – G36.8 Glowinski, Roland – E24.1, R13.9 Goriely, Alain – L23.4, F44.1, Griffith, Boyce E. – L7.4 Gergianakis, I. – M3.2 Glumac, Nick – A5.9 G44.4 Griffith, Boyce E. – H24.10 Gerhart, Matthew – L1.11 Glumac, Nick – A5.4 Gorlé, Catherine – R5.8 Griffith, Boyce E. – G26.9 Geri, Michela – E1.1, E12.6 Gnanadesikan, Anand – M29.2 Gorle, Catherine – R5.3 Griffith, Boyce E. – H24.5 German, Guy – G33.6 Gnanamanickam, Ebenezer – Gorle, Catherine – L6.2 Griffiths, Ian – E1.1, L11.11 Germano, Massimo – L8.9, R25.3 E19.5, G27.10, L12.7, M29.4 Gorman, David – KP1.28 Griffiths, Ross – A30.3, L29.3, Geva, Meital – D4.9 Gnanaskandan, Aswin – E33.6, Gorrell, Stephen – A14.6 R16.9 Gevorkyan, Levon – H36.7, L5.6 R25.9 Gorumlu, Seder – D27.5 Griffiths, Ross W. – M29.3 Ghabache, Elisabeth – E4.3, E4.4, Gnyawali, Vaskar – R9.8 Gosch, Chester – H30.2 Griffond, Jerome – L17.4 L5.2, M35.10 Goddard, Ben – D15.2, L3.7 Gose, James W. – E14.1, H8.9, Grigoriev, Roman – M6.3 Ghadiri, Mahdi – L31.5 Goddard, Ben D. – R33.3 R18.3 Grigoriev, Roman – M6.2 Ghaemsaidi, Sasan John – M31.10 Goddard, Benjamin – H28.6, M9.5, Gosselin, Frederick – M40.2, Grigoriev, Roman – D29.2 Ghamari, Mohsen – H35.2 R30.5 M40.3, Q16.11 Grigoriev, Roman – G18.1 Ghandriz, Ronak – R25.6 Godinez, Francisco – H24.4, Gosselin, Frédérick – M40.1 Grimaldi, Emma – KP2.10, L10.2 Gharib, Morteza – M13.6 L25.9, R8.4 Gostelow, J. Paul – D19.2 Grinstein, Fernando – L17.5, R2.9 Gharib, Morteza – R13.8 Godoy-Diana, Ramiro – R38.3 Gotoda, Hiroshi – KP2.33 Grivel, Morgane – E13.3, H2.6 Gharib, Morteza – M39.8 Goebbert, Jens Henrik – D21.4, Gotoda, Hiroshi – KP2.34 Grogan, Kevin – E4.5, G35.2 Gharib, Morteza – L24.12 G21.9, M22.6 Gotoh, Toshiyuki – G28.8, R19.5 Grooms, Ian – D26.2, H17.3, G30.3 Gharib, Morteza – G27.9 Goergen, Craig – H24.7 Gouder, Kevin – D17.4, L25.7 Grosjean, Galien – H6.2, H6.8, Gharib, Morteza – B1.2 Gogineni, Sivaram – KP1.170 Goujon-Durand, Sophie – A9.5 L25.6 Gharib, Morteza – E13.3 Gogineni, Sivaram – D27.3 Gounley, John – R23.7 Gross, Jonathan – D4.8, W26.4 Gharib, Morteza – A17.9 Gogineni, Sivaram – L5.12 Goushcha, Oleg – M13.9 Grosskopf, Abigail – M8.7 Gharib, Morteza – A27.8 Gogineni, Sivaram – G38.5 Goushcha, Oleg – L14.2 Grotberg, James – E15.4, E15.5, Gharib, Morteza – H5.10 Gogineni, Sivaram – G5.2 Goushcha, Oleg – H16.3 G25.2, G25.5, G25.8, R9.1 Ghasemi, Ali – M14.1 Gogineni, Sivaram – L21.4 Govardhan, Raghuraman – D35.9, Grover, Piyush – D11.10, D17.10 Ghasemi, Amirmahdi – D14.4 Gogineni, Sivaram – M28.2 L15.1, R12.5 Gruca, Marta – R8.7 Ghate, Aditya – D23.1, L4.5 Gohari, S. M. Iman – L4.4 Govender, Indresan – M12.3 Grundmann, Sven – D27.1 Gheisari, Reza – G3.8, KP1.132, Goit, Jay – E24.4, L12.4 Govindarajan, Rama – M4.9 Grybas, Matthew – M13.8 M1.8 Goldburg, Walter – M19.4 Govindarajan, Rama – R26.7 GS, Sidharth – H21.10 Ghiasi, Zia – R3.9 Goldenfeld, Nigel – L41.11 Govindarajan, Rama – R32.5 Gsell, Simon – L14.6 Ghira, Afonso – R21.9 Goldenfeld, Nigel – R17.1 Govindarajan, Rama – E9.3 Gu, Chuan – E13.3, G28.4 Ghodke, Chaitanya – D3.2, E32.6 Goldfarb, David J. – A2.8 Govindarajan, Rama – G13.5 Gu, Kevin – E2.2 Ghoniem, Ahmed – A5.8, D3.9, Goldstein, David – R21.7, R20.3 Govindarajan, Rama – H3.7 Guala, Michele – H22.2 E5.3, H39.6 Goldstein, Raymond – D25.3 Govindarajan, Rama – R35.7 Guala, Michele – L13.8 Ghorbani, Zohreh – D1.3 Goldstein, Raymond – H25.1 Govindarajan, Rama – A18.5 Guala, Michele – L13.5 Ghosh, Aritra – G35.8, H5.7, M13.3 Goldstein, Raymond E. – M35.2 Govindarajan, Rama – G17.3 Guala, Michele – D25.7 Ghosh, Ranajay – G24.2 Goldstraw, Erin – KP1.113 Govindarajan, Rama – E38.2 Guala, Michele – R1.7 Ghosh, Sukhendu – G13.5, M22.5 Gollner, Michael – G39.10, M11.5, Govindaraju, Pavan – D5.3 Guala, Michele – R29.5 Ghoshhajra, Brian – KP1.21 L26.1 Govyadinov, Alexander – R9.3, Guarnieri, Massimo – G1.4 Giarra, Matthew – H24.7, M27.4, Golovin, Kevin – E14.1, H8.2, H8.9, U46.8 Guasto, Jeffrey S. – L1.6 M20.3 R18.3 Goya, Hideki – G11.8, M27.10 Guazzelli, Elisabeth – A2.1 Gibi?ski, Kornel – A9.5 Goluskin, David – G11.6, R19.2 Goyon, Julie – D35.9, M18.5 Guba, Peter – A19.8, D11.8 Gibson, John – D29.9 Gomba, Juan M. – E33.5, HW.5 Goza, Andres – M13.2 Guenoun, Gabriel – L36.2 Gilchrist, James – R16.9 Gomes, Kevin – R11.1 Graeber, Gustav – A24.4, H33.6 Gugercin, Serkan – D17.6 Gildersleeve, Samantha – G15.3, Gomes, Susana – E17.3, L18.8 Graf, John – L2.8, L28.4 Guido, Stefano – G10.3 L20.8 Gomez, Joan – L14.2 Graham, J Michael R – M20.5 Guildenbecher, Daniel – D32.8, Gilet, Tristan – D32.1 Gomez-Gonzalez, Manuel – L26.7 Graham, Michael – M6.10 E35.5 Gilet, Tristan – M33.4 Gomit, Guillaume – E18.4, E18.5, Graham, Michael – G2.9 Guillet, Serge – R2.11 Gilet, Tristan – M33.10 H22.6 Graham, Michael – A28.7 Guillot, Pierre – M28.8, L6.2 Gilet, Tristan – M35.1 Gompper, Gerhard – L26.12 Graham, Michael – D12.3 Guion, Alexandre – D33.9 Gilet, Tristan – L38.6 Gondret, Philippe – M12.10, Graham, Michael – B1.3 Guissart, Amandine – L33.8, Gilmanov, Anvar – H29.3, M24.7 R 29.10, R17.2 Graham, Michael D. – M6.9 R29.4 Gilson, E. – H20.3 Gong, Rui – E21.3, H19.2 Grande Gutierrez, Noelia – G7.9, Gulliver, John – H11.9, R40.6 Gim, Bopil – G35.5, KP1.39, R35.5 Gonzalez, Brittany – KP1.166 L23.1 Gunda, Naga Siva Kumar – A13.9, Gim, Yeonghyeon – KP1.74 Gonzalez, Christian – R29.7 Granlund, Kenneth – E15.6 M12.4, R33.6 Gin, Craig – L1.10 Gonzalez Avila, Silvestre Roberto Granlund`, Kenneth – A17.6 Gungar, Ayse – L22.10 Gioia, Gustavo – E31.4, G22.10, – E11.2, M36.9, M6.7 Grannan, Alexander – E30.3 Guo, Hanliang – A9.4, H23.9, R20.11, L35.2, L35.3 Gonzalez-A, S. Roberto – EJ.3, Grasser, Thomas – FE.1, D32.8 H23.10 Giometto, Marco – E20.6, L25.9, M36.10 Grauer, Rainer – HB.2, R19.4 Guo, Jicheng – D31.10 M4.4 Gonzalez-Avila, Silvestre Roberto Graves, Dale – L33.10 Guo, Lin – R9.6 Gion, Moira – G12.9 – H35.4 Gray, Nico – G24.4, H10.2, H10.5 Guo, Tianqi – H5.2, H36.5 Giri, Pritam – D17.8 Gonzalez-Mansilla, A. – R24.1 Greco, Carlo Salvatore – H5.6 Guo, Zhaoli – A21.1, M10.7 Girimaji, Shararath – G16.8 Gonzalinajec, Trevor – A25.4, Greco, Francesco – H23.7 Gupta, Anupam – G6.4, L31.3 Girimaji, Sharath – G16.7 M9.8 Green, Adam – A7.5, S1.58, S1.59 Gurevich, Svetlana V. – E29.4 Gish, Andrew – R1.10 Goodman, Katherine – E3.1, E7.2 Green, Melissa – G27.2 Guri, Dominic – H4.2 Givi, Peyman – R3.2 Goodman, Lou – KP1.103 Green, Melissa – G19.9 Gurijala, Anvesh – M1.8 Givi, Peyman – M7.6 Goodwin, Gabriel – R2.10 Green, Melissa – L16.1 Gurjar, Madhura – E2.6 Glauser, Mark – L5.12 Goon, Grace – A27.9, J45.2 Green, Melissa – M2.9 Gurka, Roi – H27.4 Glauser, Mark – L5.11 Gopal, Abishek – H39.5 Green, Melissa – R6.8 Gurram, Harika – E14.5 Glauser, Mark – KP1.171 Gopalakrishnan, Green, Melissa – R15.5 Gurugubelli, Pardha – D18.6, Glauser, Mark – KP1.170 Shivasubramanian – L5.9 Green, Melissa – R13.6 M30.10 Glaz, Bryan – G29.6 Gopalakrishnan, Shyam Sunder Green, Melissa – M14.6 Gurugubelli, Pardha Saradhi – Glezer, A. – AN.8, AQ.2, A17.1, – M11.7 Green, Melissa – R28.5 L14.11 KG.10, NA.6 Gopalarathnam, Ashok – E15.1 Green, Melissa – L9.3 Gustafsson, Jonathan – A16.7, Glezer, Ari – A17.2 Gopalaswamy, Varchas – D29.3 Green, Yoav – H14.7 A20.6 Glezer, Ari – A17.4 Gopinath, Arvind – D23.2 Greenblatt, David – M28.1, S23.4 Gutiérrez-Montes, Cándido – Glezer, Ari – A17.5 Gopinath, Arvind – L26.2 Greene, Benton – L21.8 D17.7, R 27.10 Glezer, Ari – G15.10 Gordeyev, Stanislav – A20.2, Greene, Patrick – D9.9, D27.6 Gutierrez, Pablo – L31.2, L31.3, Glezer, Ari – H35.5 R 27.6 R21.6

127 Gutierrez Rodriguez, Walter – Hamlington, Peter – D5.9 Hayashi, Kosuke – G6.6 Heslinga, Michael – A2.8 L12.9 Hamman, Curtis – L11.8, L23.1 Hayashi, Rintaro – R37.8 Hesselink, Lambertus – A7.8, Gutierrez-Castillo, Paloma – B8.4, Hammer, Patrick – E15.2 Hayat, Umair – A7.5, M26.9 G20.1 D11.6, E38.4 Hammer, Patrick – E15.4 Hayes, Matt – R2.11 Hetts, Steven – M26.7 Gutman, Emiliya – L25.5 Hammerton, Jared – KP2.6 Hayoun, Pascaline – G13.3 Hewakandamby, Buddhika – D9.1, Gutmark, Ephraim – R24.3 Hammes, Mary – G16.8, R24.8 Hazbavi, Abbas – KP1.130 E7.5, L33.9, M4.7 Gutmark, Ephraim – G38.3 Hammond, Adam – H3.8 Hazel, Andrew – H18.3 Hewes, Alaïs – E27.3 Gutmark, Ephraim – G38.1 Hammouti, Abdelkader – M7.4 He, Guo-Wei – G3.10 Hewett, James – A3.9 Gutmark-Little, Iris – R24.3 Han, Beom-Soon – KP1.49 He, Guowei – R19.8 Hewitt, Duncan – D3.3, E12.1, Guttag, Mark – A25.6, T49.12 Han, Chao – H6.5 He, Kai – A27.5 E12.2 Guy, Ben – E2.3 Han, Jie – H39.8, R34.11 He, Pengyu – R15.10 Hickel, Stefan – A3.6, G40.1 Guy, Robert – L26.1 Han, Jongyoon – H9.9, H14.8, He, Ping – A5.8, D4.2 Hidalgo, Pablo – L14.12 Guy, Robert – L7.5 M3.1 He, Xiaozhou – G11.9 Hidrovo, Carlos – L38.1 Guy, Robert – R37.7 Han, Wang – KP1.164 He, Xiaozhou – M10.10 Hidrovo, Carlos – M1.8 Guy, Robert – M23.7 Hanasoge, Srinivas – G14.10, He, Xiaozhou – L11.2 Hidrovo, Carlos – M1.9 Guy, Robert – M23.8 KP2.13, G43.2, R9.7 He, Yinghe – A31.1, M11.5 Hien, Steffen – E31.2 Guy, Robert – D25.1 Hanazaki, Hideshi – D13.8, D23.6 Healy, Frank – R39.12 Higgins, Andrew Jason – R2.4 Guyot-Sionnest, Philippe – A12.5, Hancock, Matthew – R9.1 Hearst, R. Jason – D21.3, D22.4, Higham, Jonathan – KP1.73, J26.4 Hanifi, Ardeshir – L22.9 D22.5, M27.5 M20.10 Guzman Inigo, Juan – E17.5, Hann, David – H14.1, L33.9, M4.7 Hecht, Matthew – G20.6 Higuera, Francisco – A36.8, F1.61 R28.10 Hanna, James – R40.10 Heck, Margaret – E14.2, E11.3 Hildebrand, Nathaniel – A29.8, Guzowski, Jan – E35.1, R21.8 Hansen, Kirk B. – G7.4, R23.2 Hedayat, Mohammadali – M25.6 H38.3 Gylfason, Armann – L2.2, L2.3, Hansen, Ryan – E36.2, E36.3 Hedrick, Tyson – H27.7, L6.4 Hilgenfeldt, Sascha – R9.6 L26.3, M11.2 Hanson, R.K. – E23.9, M14.7, Heijst, GertJan – M4.6 Hilgenfeldt, Sascha – R8.1 M28.3 Heiranian, Mohammad – H9.7 Hilgenfeldt, Sascha – R8.2 -- H -- Hanson, Ronald – G21.9 Heisselmann, Hendrik – D28.9, Hilgenfeldt, Sascha – R8.4 Hölling, Michael – L32.5 Hao, Chonglei – KP1.60 L23.4 Hilgenfeldt, Sascha – G36.1 Häner, Edgar – G2.5 Hao, Wu – L10.1 Hejazi, Babak – R7.11 Hill, Craig – R1.7 Ha, Jonghyun – 1B.76, 1B.79, H1.4 Hao, Xuanting – H30.10 Hejazi, Hossein – KP1.34, KP1.133 Hill, Craig – R29.5 Ha, Sanghyun – M7.7 Hao, Zengrong – R5.8 Hejazialhosseini, Babak – CD.4, Hill, James C. – D9.4, H20.8, Haas, Jean-Francois – L17.4 Harabin, George – D30.4, L23.11 G27.4 T38.3 Haas, K.A. – L29.12 Hardouin, Jerome – A36.3, G31.6 Hejlesen, Mads Mølholm – Hill, Nicholas A. – H24.6 Haase, A. Sander – L26.11, R30.4 Hardt, Steffen – R8.3 KP1.156, R15.3 Hiller, Thomas – H1.9, R3.9 Haber, Daniel – A24.1 Hardt, Steffen – R27.8 Helenbrook, Brian – D5.7, G16.1 Hillewaert, Koen – H3.9, R15.4 Habibah, Ummu – R15.8 Hardt, Steffen – M16.4 Helfrich, Karl – D30.8, L29.9 Hinch, Edward – A12.2, D9.5 Habibi, Mohammad – H28.1 Hardt, Steffen – H40.1 Hellgardt, Klaus – M36.1 Hindmarsh, Richard – M29.5 Hack, M.J. Philipp – E38.6, L2.4 Hardy, Richard J. – D24.8 Hellström, Gunnar – L6.7 Hinkle, Steven – D27.2 Hadad, Yaser – KP1.54 Hargather, Michael – M28.5 Hellström, Leo – D19.1, R41.4 Hinsberg, Michel – R28.2 Haddadi, Hamed – H8.3 Hargather, Michael – R2.2 Hellum, Aren – L36.9 Hinshaw, Waldo – E5.5, H1.4 Haddadi, Hamed – D2.10 Harris, Bridget – H7.8, L23.5 Helminiak, David – A6.9 Hiramitsu, Ai – R31.6 Hadi, Fatemeh – A34.4, A39.6 Harris, Dan – M33.5 Helminiak, Nathaniel – A6.9 Hirani, Anil – R6.9 Hadjadj, Abdellah – M21.9 Harris, Daniel – E34.1, E34.2, Helvey, Jacob – E26.5, H26.8 Hirata, Motonori – D13.8 Hadji, Layachi – D11.7, F1.17, G33.3, H33.3, M33.1, M33.2, Hemati, Maziar – M5.10 Hirota, Makoto – PP8.114, E40.4, F1.86, H30.6 M33.9 Hemeda, Ahmed – M8.1, M8.2 G16.5 Hadjiconstantinou, Nicolas – Harris, Daniel M. – L35.6 Hemmati, Arman – G18.10, M14.9 Hirota, Masato – M21.6 G9.3, H9.2, L36.6 Harris, Jeff – D27.2, KP1.78, L5.4 Hemon, Pascal – G24.2, M13.5, Hirsa, Amir – M25.3 Hadjighasem, Alireza – A29.2, Harris, Michael – D37.1 M40.8 Hirsa, Amir – G24.6 M14.2, M14.6 Harris, Michael – L36.6 Hemsing, Frank – H26.8, R24.8 Hirsa, Amir – L25.4 Hadjittofis, Andreas – G28.6 Harrison, Christopher – A1.3, H8.6 Henaux, Louis – H30.7 Hirsa, Amir – G24.5 Haering, Sigfried – L27.9, R3.11 Hart, A. John – H1.6, W6.2, W6.6 Hendrickson, Kelli – A13.2, D8.3, Hirsch, Damian – A17.9, A30.6 Haffner, Eileen – F1.45, M2.9 Hart, Douglas – A18.7, L12.1 D9.5, H33.2, H33.7, KP1.91 Hirschberg, Lionel – L4.3 Hafsi, Amine – H23.10, R31.3, Hartenberger, Joel – A11.1, R22.8 Henfling, John – L21.2 Hirsh, Ben – R30.4 R31.4 Harth, Kirsten – R36.5 Hennessy, Matthew – G18.5, Hirsh, Benjamin – M29.2 Haghgoo, Mohammad Reza – Harting, Jens – G2.6 H36.3, L8.6, M43.10 Hitimana, Emmanuel – H20.8 G32.6, R25.3 Hartl, Katherine – A5.6, D34.4 Henningson, Dan – D38.10 Ho, Nguyenho – M23.10 Hain, Rainer – PD.2, D27.6 Hartland, Gregory – A12.5, J20.1, Henningson, Dan S. – E20.4, Hocut, Christopher – A16.1, D1.1, Haj-Hariri, Hossein – R26.11, J20.2 G27.9, L22.9, M25.4 L16.9, M30.3 R38.8, R38.9 Hartman, Jonathan – L23.10 Henoch, Charles – E18.3 Hodapp, Theodore – E3.4 Hajian, Rozhin – E16.5 Hartsough, Devon – A26.7 Henoch, Charles – L36.9 Hodes, Marc – H8.7 Hale, Jacob – F1.28, G14.2, Harun, Irina – M36.1 Henriquez Rivera, Rafael – A8.4, Hodzic, Azur – A22.7 G33.10 Hasan, Abbas – D9.1, E7.5, E33.2, G2.9 Hoefer, Mark – D29.4, KP2.16, Hall, Joseph – H16.10 R33.1 Henry, Dominic – G16.6, M16.2 L31.5, M8.7 Hall, Joseph – M21.2 Hasanyan, Jalil – A35.7 Henry de Frahan, Marc – L17.3 Hoelling, Michael – D28.9 Hall, Joseph – M39.2 Hasegawa, Mitsugu – A15.6 Henshaw, William – G24.8 Hof, Björn – R17.3, R17.6 Haller, George – M14.2 Hashemi, Amirreza – G6.3, L31.8, Hentgen, Laureline – M6.4 Hof, Bjorn – D12.2, M32.4, R17.10 Haller, George – M14.6 L32.9 Herard, Jean-Marc – G13.7 Hof, Björn – G15.8, M6.1 Haller, George – A29.4 Hassan, Syed Harris – G5.5 Herbaut, Remy – A28.9, M35.8 Hofemeier, Philipp – G25.10 Haller, George – A29.2 Hassanaly, Malik – H6.7, R34.4 Herbert, Eric – D3.6, D25.6, R29.4 Hofemeier, Philipp – G25.6 Haller, George – A29.3 Hassani, Masoud – M40.2 Hermes, Michiel – E2.3, T47.9 Hoffman, Eric A. – H26.6 Hallez, Y. – M3.2 Hassanpourfard, Mahtab – E6.1, Herminghaus, Stephan – H10.9 Hoffman, Kathleen – D26.4 Halling, Peter – L28.10 G24.2 Hernandez, Anier – G6.2 Hogg, Charlie – A29.1, L17.6, Halper, Kristen – KP1.57 Hasse, Christian – D21.4, D34.6, Hernandez Machado, Aurora – M19.3 Halpern, David – G18.9 G28.7, M2.4 E10.6 Hoh, Nicholas – A2.3, D2.2, E2.2 Ham, Frank – R7.11 Hattori, Masanari – D36.7, G9.10 Hernandez Zapata, Sergio – H19.1, Holbrook, N. Michele – A25.1, Hamdi, Feriel S. – A24.9 Hattori, Yuji – E40.4 L18.7 M9.3 Hamed, Ali M. – A21.2, D28.2, Hattori, Yuji – G38.8 Hernandez-Garcia, Anier – G1.3 Holzner, Markus – G22.6 H19.8, R22.7 Haudin, F. – G2.6, H18.8 Herrada, Miguel Angel – L35.12 Holzner, Markus – G3.9 Hameduddin, Ismail – D12.4, Haudin, Florence – L31.1 Herraez, Ivan – D28.3, E28.5 Homm, P. – KP1.90, S1.40 G23.4 Haugen, Nils Erland L. – M4.8 Herring, Jackson – L4.10 Homsy, George. M. – A33.8 Hamilton, Mark F. – KP1.3 Haupt, Sue – E21.1, L25.11 Herrmann, Marcus – H7.5 Hondzo, Miki – D25.7, G9.2, R23.9 Hamilton, Nicholas – L12.5 Hawkes, Evatt – H6.5, H26.8 Herrmann, Marcus – H7.2 Hong, Jiarong – D28.1 Hamlet, Christina – D26.4, RS.1 Haya, Laura – M26.4, L16.6 Hertzberg, Jean – E3.1 Hong, Jiarong – G21.8 Hamlington, Peter – H30.3 Hayasaka, Keisuke – KP2.9, Hertzberg, Jean – R24.12 Hong, Jiarong – L13.5 Hamlington, Peter – D20.9 KP2.27 Hertzberg, Jean – R24.11 Hong, Jiarong – L33.1 Hamlington, Peter – E20.4 Hayashi, Hiroyuki – A7.4, G20.4 Hesketh, Peter – KP2.13, G43.2 Hong, Jiarong – R25.12 Hamlington, Peter – G39.9 Hayashi, Kenta – KP2.34 Hesketh, Peter J – R9.7 Hong, Jiarong – M32.3

128 Hong, Seokbin – R9.10 Huerre, Axel – D10.6, L38.3, Iaccarino, Gianluca – R5.3 -- J -- Hong, Youn Sub – A11.5 L38.10 Ibanez, Ruy – R30.5, L35.11 Jäger, Julia – KP1.112 Hood, Kaitlyn – L10.12, L39.9 Huerre, Patrick – L30.2 Ibarra, Eric – L32.6 Józsa, Tamás István – H15.4 Hooshanginejad, Alireza – E33.2, Huertas-Cerdeira, Cecilia – H27.3, Ichiyanagi, Mitsuhisa – D4.1, Jérome, Mougel – M13.7 J34.8 M13.6 KP1.37, L37.2 Jabbarzadeh, Mehdi – L25.7 Hoover, Alex – R40.5 Huete, Cesar – G40.3 Idrobo, Juan-Carlos – A24.4, H9.6, Jabbarzadeh, Mehdi – H23.3 Hoover, Alexander – L12.4, L12.6, Hufstedler, Esteban – G21.2, G51.1, Q29.1 Jaberi, Farhad – A39.5, H4.1, D8.2 R37.5 M15.9 Igualada-Villodre, Elena – H4.3, Jackson, Matthew – G7.1, X42.11 Horender, Stefan – A21.9 Hughes, Graham – L29.3 L36.8, R4.5, R5.5 Jackson, Thomas – H2.4 Horiuti, Kiyosi – D12.10 Huhn, Florian – M14.2 Ihas, Gary – L41.10, H1.132, Jackson, Thomas – R2.1 Hormoz, Sahand – L3.1 Hui, Jonathan – 1A.26, 1A.31, W47.4, W47.10 Jackson, Thomas L. – A3.5, LQ.5 Hormozi, Sarah – A2.1 G31.8 Ihme, Matthias – H38.10 Jacob, Jamey – A11.8 Horn, John – L23.10, L7.9 Huisman, Sander – H20.2 Ihme, Matthias – D5.9 Jacobi, Ian – F2.15, H2.3, H8.7, Horne, Wyatt – A4.3, D33.8 Huisman, Sander G. – R20.5 Ihme, Matthias – E5.5 H10.5, M8.7, M2.1, M16.6 Horntrop, David – L10.1 Hulin, Jean-Pierre – D18.4, G8.8, Ihme, Matthias – L8.12 Jacobitz, Frank – G30.5 Horowitz, Luke – D6.6 H24.4, M25.5 Ihme, Matthias – E4.5 Jacobs, Gustaaf – A29.6 Horwitz, Jeremy – A25.2, L20.5 Hulsen, Martien – G1.7, M3.3 Ihme, Matthias – E20.2 Jacobs, Gustaaf – L2.6 Hoshino, Kenichi – H18.2 Hulsen, Martien A – G2.10 Ihme, Matthias – D5.4 Jacobs, Jeffrey – L17.11 Hosoi, Anette – D26.2 Hultmark, Marcus – M28.10 Ihme, Matthias – D5.3 Jacobsen, Nis S. – G27.3 Hosoi, Anette – L28.2 Hultmark, Marcus – L32.7 Ihme, Matthias – D5.5 Jadidi, Mehdi – M17.5, M17.9 Hosoi, Anette Peko – M40.5 Hultmark, Marcus – H15.6 Ihme, Matthias – D5.8 Jaeger, Frederike – M9.8 Hossain, Md Monir – L7.2 Hultmark, Marcus – H22.5 Ihme, Matthias – L9.1 Jaensson, Nick – G1.7, M3.3 Hosseinali, Mahdi – H16.10, M21.2 Hultmark, Marcus – A20.8 Iida, Kohei – R28.9 Jafry, Ali Turab – M1.5 Hosseini, Seyed M. – L22.9 Hultmark, Marcus – G12.10 Iima, Makoto – G23.2 Jahns, Matt – G32.2 Hosseini, Zahra – M27.8, R12.3 Humbert, Thomas – L31.1 Ikeda, Christine – L16.10, M39.3 Jaiman, Rajeev – D18.6 Hosseinzadeh-Nik, Zahra – A3.8, Hung, Shih-Wei – D33.6 Ikeda, Tomoaki – R14.7 Jaiman, Rajeev Kumar – D18.4, E19.6 Hung, Yew Mun – A7.9, D7.7 Ilak, Milos – H39.3 L14.11 Hota, Tapan Kumar – H18.7, L22.5 Hunsucker, J. Travis – E26.6 Iliev, O. – L1.4 Jain, Akash – L7.12, R24.10, R26.1 Hou, Youmin – D13.8, G35.10 Hunt, Conor – L20.1, L20.2 Im, Hong – G40.5, G34.3, H39.4, Jain, Akhilesh – R9.12 Houim, Ryan – A6.7, E6.3, R2.10, Hunt, Gary – R11.6 M34.9, R34.11 Jain, Ramandeep – R29.3 R35.10 Hunt, Gary R. – E5.7, G5.6, L19.2 Im, Hong G. – G39.3 Jalaal, Maziyar – D33.4, M12.2 Houim, Ryan W. – E6.6 Hunt, Julian – G17.5, H12.3, J27.1, Im, Seong-kyun – E6.1 Jalal, Javeria – L39.6 Houssainy, Sammy – A12.9, R33.8 LA.27, L14.3, L22.1, L22.2 Im, Seong-kyun – G40.9 Jalal, Sahar – H26.5, M25.9 Houze, Eric – D32.4 Hunt, Melany – A2.7 Im, Sunghyuk – A27.7, L14.10 Jalali, Maryam – D24.4, E6.2, Howard, Amanda – D2.5, E2.5, Huq, Pablo – A21.1, L3.9, R2.2 Imai, Yohsuke – H23.2 R39.9 E19.4 Hurd, Randy – G33.7 Imai, Yohsuke – R23.9 Jalali, Masoud – E23.5, G30.9, Howell, Peter – E5.3, G13.6 Hurd, Randy – H32.1 Inasawa, Ayumu – AT.9, D17.1, R28.7 Howland, Michael – L13.6, L13.11 Hurd, Randy – M32.10 R14.7 Jalali, Mir Abbas – G14.3, L25.2 Hoyas, Sergio – H25.8, R20.3 Hurricane, Omar – BO4.1, PO4.6, Ingram, David – D17.5 Jaluria, Yogesh – A39.7, L19.11, Hrubes, Dana – L36.9 UO7.11, YP12.4, KP1.92 Ingremeau, Francois – A33.1 R11.1 Hrynuk, John – L16.12 Hurst, N.C. – E7.2 Inguva, Venkatesh – L40.11 Jamali, Safa – E35.3 Hsia, Tain-Yen – M24.2 Hurwitz, M. – L1.4 Inoue, Chihiro – H12.8, H35.1 Jamali, Safa – L39.12 Hsiai, Tzung – M24.10 Hus, Saban – B40.8, L40.7, N22.12 Inoue, Kazuhito – KP1.37, L11.10 Jambon-Puillet, Etienne – G32.3 Hsieh, Tsung-Lin – L41.11, R17.1 Hussain, Fazle – D28.10 Ioannou, Petros – R20.10 Jamieson, Nicholas – E17.1 Hu, David – L27.8 Hussain, Fazle – H19.9 Ioppolo, Tindaro – H14.7, H27.4, Jamin, Timothee – A13.5, L31.2, Hu, David – A24.4 Hussain, Fazle – R41.2 M35.3 R11.6, R11.10 Hu, David – G26.3 Hussain, Fazle – L21.7 Iovieno, Michele – A8.9, A27.3, Jamme, Stephane – L17.4 Hu, David – G26.5 Hussain, Fazle – L21.6 A36.5, L30.4 Janardan, Nachiketa – A31.9, Hu, Guoqing – D10.5, R9.9 Hussain, Fazle – D22.3 Ireland, Peter – A25.3, D32.9, G33.1 Hu, Han – G32.8, V1.354 Hussain, Fazle – M30.3 G3.1, H3.9, KP1.120 Jandron, Michael – A16.1, H32.1 Hu, Howard – L1.5 Hussain, Fazle – L11.4 Irvine, William – M20.4 Jang, Daeho – KP1.59 Hu, Hui – L13.7 Hussain, Fazle – E22.6 Irvine, William – E25.3 Jang, Doojoon – H9.3, H9.6 Hu, Hui – H33.9 Hussain, Fazle – A20.1 Irvine, William T. M. – G19.6 Jang, Ik – E6.2, E26.2 Hu, JiaCheng – L19.10, M35.1 Hussein, Mahmoud I. – A15.7, Isabey, Daniel – G25.2 Jani, Neel – M25.5 Hu, Xiao – L23.3 H1.318, Q8.10 Isard, Scott – G8.10, M40.9 Jara Hernandez, Aydet – KP1.169 Hu, Xiaoyi – E38.5, M10.6, R15.4 Hutchens, Shelby B. – M36.2 Isava, Monica – A6.8 Jaramillo, Guillermo – G16.9 Hu, Yi – D37.6 Hutchings, Ian – A33.1, A33.2, Ishihara, Takashi – L22.1 Jarrahbashi, Dorrin – L4.2, R25.2 Hu, Yitao – H40.4 G13.2 Ishihara, Takashi – L22.2 Jarrahi, Mojtaba – D25.6 Huang, Chung-Hsuan – H28.3 Hutchins, Nicholas – M24.3 Ishihara, Takashi – L20.4 Javaid, Sarah – A24.1, V40.10 Huang, Deqing – A16.5 Hutchins, Nicholas – D22.6 Ishihara, Takashi – R21.1 Javed, Joveria – A26.5 Huang, J.R. – D6.4 Hutchins, Nicholas – R22.3 Ishihara, Takashi – R20.9 Jawed, Mohammad – R39.4 Huang, Jianjun – R39.7 Hutchins, Nicholas – R22.4 Ishii, Katsuya – A7.4, G20.4 Jaworski, Justin – D7.9, D7.10, Huang, P.C. – R12.8 Hutchins, Nicholas – L22.7 Ishii, Masato – M27.10 H21.4 Huang, P.C. – D6.4 Hutchins, Nicholas – D19.7 Ishikawa, Takuji – R23.9 Jaworski, Justin W. – D28.5, E16.5 Huang, Peter – G31.8 Hutchinson, Maxwell – A27.12, Ishikawa, Takuji – H23.2 Jayaprasad, Nirmal – A19.2 Huang, Peter – L25.3 M18.9 Islam, Toukir – D26.8 Jayaraman, Bajali – E21.1 Huang, Po-Hsun – KP1.117 Huyer, Stephen – CJ.7, L36.9 Ismail, Renad – A35.5, A35.8 Jayaraman, Balaji – D28.4 Huang, Wei-Xi – G22.9, L7.7, L12.5 Hwang, Hochan – A40.5 Israel, Daniel M. – E7.4 Jayaraman, Balaji – A40.2 Huang, Yangyang – G5.1, H25.6, Hwang, In Gyu – G35.5 Itano, Tomoaki – D2.6, F1.22, Je, Jung Ho – D31.4 L27.6 Hwang, Jinyul – D27.10, G22.5, F1.41, G2.9, KP1.123, M29.2, Jebakumar, Anand Samuel – A4.7 Huang, Yangzi – G18.3, M14.6 G22.7, R18.9 R28.9 Jebeli Aqdam, Hejar – R6.4 Huang, Yu-lin – M30.6 Hwang, Sheng-Ping – M25.4 Ito, Takahiro – E18.2, H18.4, L28.9 Jefferies, Rhett – L19.9 Huber, Christian – GR.10, D1.4 Hyatt, Jason – H4.7, M30.1 Iungo, Giacomo Valerio – H29.7 Jemcov, Aleksander – G4.1, R7.1 Huber, Erik – D1.8, G3.7 Hynes, Eric – H4.8 Iungo, Giacomo Valerio – L12.3 Jenkins, James – D53.5, R29.2 Huber, P. – KP1.90 Iungo, Giacomo Valerio – D8.1 Jensen, Anders – H4.7 Huber, Patrick – H1.7, P1.89 -- I -- Ivanov, Dimitry – D38.9 Jensen, Kaare H. – A25.1, M9.3, Hubert, Antoine – R11.3 Iaccarino, Gianluca – A40.1 Iverson, Brian – H11.10, H11.2, M9.5 Hubert, Maxime – G14.1, H6.2, Iaccarino, Gianluca – G33.4 R26.10 Jensen, Katharine – H28.4 H6.8, L25.6 Iaccarino, Gianluca – H14.10 Ivey, Christopher – D9.8 Jensen, Klavs – PF.5, G8.7, R26.6 Hubner, J. Paul – KP2.8, M13.8 Iaccarino, Gianluca – H21.6 Iyer, Kartik – R21.4 Jenson, Ryan – L28.4 Hubner, James – M13.3, L24.5, Iaccarino, Gianluca – A3.1 Izawa, Seiichiro – A21.9, D38.1, Jeon, David – D29.10, E13.3, H2.6 L24.6 Iaccarino, Gianluca – A3.7 D21.5, D21.8, M21.6 Jeon, Hongjoo – D4.1, D4.4, G35.6 Hubschman, Jean-Pierre – A7.7, Iaccarino, Gianluca – A3.4 Izbassarov, Daulet – A12.9, M11.3 Jeong, Sohyun – L40.2 L26.5, M26.5 Iaccarino, Gianluca – H16.4 Izraelevitz, Jacob – E15.3, G5.4 Jeun, Jinah – H38.2 Huck, Peter – G3.6 Iaccarino, Gianluca – L11.6 Jha, Narsing – L15.1 Huera-Huarte, Francisco – A27.8, Jha, Pankaj – D28.7 G5.5

129 Jha, Sourabh – H29.7, L14.1, Joubaud, Sylvain – A30.8 Kalliadasis, Serafim – M16.9 Karniadakis, George – A14.2 L14.12 Jovanovic, Mihailo – H22.4 Kalliadasis, Serafim – M9.5 Karniadakis, George Em – D6.4, Jhang, An-Sheng – D23.9 Jovanovic, Mihailo – G15.6 Kalliadasis, Serafim – M3.5 R4.11 Ji, Dandan – L19.2, M21.1, M16.4 Ju, Yiguang – H39.7 Kalliadasis, Serafim – M8.9 Karnik, Rohit – H9.2 Ji, H. – H20.3 Juanes, Ruben – H1.8 Kalliadasis, Serafim – L18.5 Karnik, Rohit – H9.1 Ji, H. – R32.4 Juanes, Ruben – KP1.134 Kalliadasis, Serafim – L18.10 Karnik, Rohit – H9.6 Jia, Lichao – A9.3, A11.6, L33.12, Juanes, Ruben – G1.2 Kalliadasis, Serafim – R33.3 Karnik, Rohit – H9.3 M20.9 Juanes, Ruben – A1.5 Kalliadasis, Serafim – R33.9 Karp, Michael – A22.2 Jia, YongXia – A9.3 Juanes, Ruben – A1.7 Kalliadasis, Serafim – R33.12 Karrasch, Daniel – A29.2 Jian, Zhen – L35.2, G34.10 Juanes, Ruben – A1.6 Kalliadasis, Serafim – E17.3 Karst, Nathan – L24.9, R30.6 Jiang, Chenfanfu – UP9.10, R24.7 Juanes, Ruben – H18.6 Kalliadasis, Serafim – H28.6 Kasbaoui, Mohamed – E8.5, G3.5 Jiang, Chung-Hsiang – R30.2 Juanes, Ruben – G37.4 Kalogirou, Anna – D13.9, D9.5, Kashefi, Ali – R7.4 Jiang, Chung-Hsiang – L30.2 Juanes, Ruben – L1.8 KP1.81 Kasimov, Aslan – R2.8 Jiang, Houshuo – A15.7, A28.2 Juarez, Gabriel – D24.6, H9.3 Kalumuck, Kenneth – A27.9, D30.9 Kasimov, Aslan – G33.8 Jiang, Shanshan – D23.7 Judge, Carolyn – L16.10, M39.3 Kamat, Pritish – L13.2, L36.7 Kasimov, Nurlybek – D31.3, R7.9 Jiang, Weili – H26.1 Juel, Anne – H18.3 Kamath, Sandesh – H10.8 Kassoy, David R. – A7.1, R34.6 Jiménez-González, José Ignacio Juel, Anne – G2.5 Kametani, Yukinori – D17.3, H20.5 Katamine, Eiji – G15.4 – D17.7 Juha, Mario – H30.2, L4.11 Kaminski, Alexis – A23.3, L29.11 Katifori, Eleni – A25.1 Jimenez, Carmen – A5.3 Jukes, Tim – AD.5, G5.6 Kamiya, Koki – D10.6 Katija, Kakani – L33.10 Jimenez, Javier – G22.6 Jules, Theo – G18.2 Kamp, Leon – H18.3, H18.4, M21.3 Katija, Kakani – R37.3 Jimenez, Javier – H22.10 Julien, Keith – A17.3, A30.1, Kan, Pinqing – G5.2, H21.2, H38.6 Katoh, Kenji – L28.9 Jimenez, Javier – D29.8 A30.2, D29.1, R30.6, R30.11 Kanai, Ryoma – G15.4 Katopodes, Nikolaos D. – KP2.14 Jimenez, Javier – L22.10 Jullien, Marie-Caroline – D10.6, Kanale, Anup – M15.6 Katsamba, Panayiota – A28.8 Jimenez, Javier – R20.10 G11.9, G36.5, L38.3, L38.10 Kaneda, Yukio – R21.1 Katsikis, Georgios – A15.4, A28.3, Jimenez, Javier – R19.12 Jumper, Eric – D20.10 Kaneko, Toshihiro – R16.6 L40.6 Jimenez, Javier – R19.6 Jun Huang, Tony – KP1.117, R4.6 Kang, Changwoo – KP1.150 Katz, Joseph – A35.6 Jimenez, Leidy – G10.4 Jung, Daehan – D16.7 Kang, Di – A31.3 Katz, Joseph – L24.6 Jimenez, Leidy N. – G10.1 Jung, Eunbum – L11.6 Kang, In Seok – G14.6, H13.7, Katz, Joseph – G21.7 Jimenez-Gonzalez, Jose Ignacio Jung, Jae Hwan – R14.8 H13.8, KP1.66 Katz, Joseph – G21.6 – G5.8 Jung, S. – L29.12 Kang, Seongwon – A16.6 Katz, Joseph – R26.5 Jin, Chunyu – L2.1 Jung, Stefan – H33.6, H34.4 Kang, Seongwon – L11.6 Katz, Joseph – R27.2 Jin, Guodong – G3.10, L22.7 Jung, Sunghwan – KP1.27 Kang, Seung-Hwan – KP1.74 Katz, Joseph – R18.7 Jin, Kai – R36.11, Y15.4 Jung, Sunghwan – H13.2 Kang, Seungmin – L38.9 Katz, Joseph – M28.4 Jin, Tetsuya – KP1.101 Jung, Sunghwan – G26.8 Kang, Yonghun – A14.5 Katz, Joseph – E7.1 JIN, WEN – D34.9 Jung, Sunghwan – L36.2 Kanjirakat, Anoop – KP1.107 Kaufman, Miron – R32.1 Jin, Xing – KP2.26 Jung, Sunghwan – A35.7 Kanjirakat, Anoop – E11.1 Kavehpour, H. Pirouz – E36.6 Jin, Yaqing – G2.4, H19.8 Jung, Sunghwan – M35.7 Kannaiyan, Kumaran – D14.1 Kavehpour, Pirouz – A5.7 Jo, Ikhee – H25.6 Jung, Sunghwan – E32.6 Kanno, Nozomu – G40.7 Kavehpour, Pirouz – D33.3 Jodin, Gurvan – L14.3 Jung, Sunghwan – R33.7 Kanso, Eva – D23.4 Kavehpour, Pirouz – R33.8 Jofre, Lluis – D5.10 Jung, Taeyong – G8.7, R18.4 Kanso, Eva – H27.6 Kavehpour, Pirouz – L26.5 Johansson, Simon – L5.1 Jung, Yeonsu – A25.8, L3.2 Kanso, Eva – H25.6 Kawahara, Hidehisa – H28.10 Johari, Hamid – R14.1 Juniper, Matthew – E17.5 Kanso, Eva – H23.9 Kawai, Hidenori – A21.4 Johari, Hamid – E18.3 Juniper, Matthew – E17.1 Kanso, Eva – H23.10 Kawai, Soshi – L21.1 John, Chapman – R40.6 Juniper, Matthew – A9.9 Kanso, Eva – L27.6 Kawamoto, Sennosuke – KP2.27 John, Dabiri – H23.10 Juric, Damir – L18.11 Kanso, Eva – M25.2 Kawano, Ryuji – D10.6 John, Nolan – G21.8 Juric, Damir – L18.6 Kanti, Vivek – A15.5 Kaxiras, Efthimios – G26.1 Johns, Lewis – A31.7, D9.8 Juric, Damir – M17.4 Kantsler, Vasily – G23.7 Kaye, Nigel – A11.7 Johnsen, Eric – D20.5 Juric, Damir – H8.5 Kantsler, Vasily – L1.6 Kaye, Nigel – H4.6 Johnsen, Eric – L36.11 Juric, Damir – A35.9 Kantsler, Vasily – R39.5 Kazakevich, Irina – A2.8 Johnsen, Eric – L37.6 Juric, Damir – A31.8 Kantsler, Vasily – D25.4 Kazemi, Amirkhosro – A25.7 Johnsen, Eric – L17.3 Jutley, Mahnprit – A12.7, G18.7 Kantzas, Apostolos – KP1.34 Kazemifar, Farzan – D1.9, D1.10, Johnsen, Eric – L8.6 Kaoui, Badr – G2.7, M16.9 D24.8, M28.7 Johnsen, Eric – R36.3 -- K -- Kaptein, Steven – D30.3 Kazoe, Yutaka – E11.6, KP1.69, Johnsen, Eric – R25.7 K P, Krishnaraj – M12.2 Kara, Onur – L10.9, R30.9 L36.9 Johnson, Blair – M21.4, R20.8 K. Misztal, Marek – G1.3 Kara, Vural – D23.10, C30.8, G8.2 Kearney, John – A17.2, R20.6 Johnson, Chelsea – E16.4 Kähler, Christian – L39.7, R8.4 Karagozian, Ann – L5.6 KEAVENY, Eric – A23.3 Johnson, Lilian – D34.8, G2.4 Kékesi, Tímea – D32.3 Karagozian, Ann – R3.6 Keaveny, Eric – H8.7 Johnson, Perry – G25.10, R19.7 Kabacaoglu, Gokberk – E24.3 Karaiyan, Arul Prakash – H5.5 Kecy, Chad – L33.10 Johnson, Philip – L8.6 Kadanoff, Leo – L41.1 Karami, Behrouz – L14.9 Kedia, Hridesh – E25.3, G19.6, Johnson, Ryan – G38.4 Kadoch, Benjamin – H20.6 Karan, Kunal – KP1.133, J21.9 Y35.13 Johnson, Ryan – G38.1 Kadri, Usama – R31.11 Karani, Hamid – D1.4 Keil, Colin – L16.9 Johnson, Ryan – G38.3 Kadum, Hawwa – H12.8 Karapetsas, George – A32.4 Keim, Nathan – E2.6 Johnston, Stephen R. – KP1.76, Kaehler, Christian – D19.9, D27.6, Karapetsas, George – A33.6 Keim, Nathan – D6.6 KP2.4 Z45.9 Karapetsas, George – R33.10 Keiser, Ludovic – M35.8 Jonathan, Latim – E19.5 Kaehler, Christian J. – L22.4 Karatay, Elif – H14.4, M3.4 Keller, Jacob – D7.2 Jones, Akhenaton-Andrew – Kahler, Christian – R4.6 Kargar, Ali – H19.10 Kelley, Douglas – D27.4 KP2.29 Kahn, A.M. – R24.1 Karimi, Alireza – D24.3, H9.10 Kelley, Douglas – A5.1 Jones, Anya – R15.6 Kahn, Andrew – L23.1 Karimi, Armin – L10.11, R8.11 Kelly, Scott – D32.9, L28.4, L29.2 Jones, Anya – L16.11 Kahn, Andrew – H24.3 Karimi, Mohsen – R4.2 Kemmerling, Erica – H4.2 Jones, Anya – L16.4 Kahouadji, Lyes – A31.8, A35.9, Karimi, Mona – G16.8 Kempe, Tobias – R29.3 Jones, Anya – L16.5 D16.6, D33.1, H8.5, L18.6, Karkhanis, Varad – GO5.7, Kerdraon, Paul – M35.2 Jones, Anya – E15.6 L18.11, M17.4 GO5.14, E39.6, KP1.93, M18.3 Kerr, Robert M. – M15.1 Jones, Anya R. – L16.10 Kahouli, Waad – R14.11 Karlsen, Jonas – G8.10 Kerr, Ross C. – M29.3 Jones, Bryn – A16.3, D25.10, Kahrilas, Peter J. – G26.9 Karn, Ashish – M4.5, M32.3, R4.8, Kerrigan, Eric – E17.2, M25.3 R28.2 Kailasanath, K. – G38.2 R25.12 Kerssens, Pjotr – M36.10 Jones, Kimberly – A29.9 Kailasanath, Kailas – D24.1, D24.3, Karniadakis, George – G7.3 Kerswell, Richard – J34.1 Jones, Sian A. – G36.8 G38.1 Karniadakis, George – L24.3 Kerswell, Richard R. – KK.7, R10.7 Jones, Steven G. – E32.3, L39.4 Kailasanath, Kazhikathra – G38.3, Karniadakis, George – R4.10 Kesavadas, Pramode – L15.6 Jop, Pierre – L10.3 G38.4, H35.7, R2.3 Karniadakis, George – R5.1 Keshavarz, Bavand – D32.4, Jordan, Peter – G38.7 Kaiser, Eurika – M27.9 Karniadakis, George – R7.10 E36.2, H32.8 Jose, Sharath – A22.3, R32.5 Kaiser, Robert – D2.4, H11.9 Karniadakis, George – M25.7 Keshavarz-Motamed, Zahra – Joshi, Kedar – H9.6, R16.9 Kajiya, Tadashi – D33.2, H15.7 Karniadakis, George – M15.3 F1.12, KP1.21, M24.1 Joshi, Pranav – M10.3 Kalda, Jaan – D20.8, D21.9, M22.4 Karniadakis, George – M7.2 Keshmiri, Shawn – E16.3 Josserand, Christophe – M32.2 Kaliviotis, Efstathios – D5.1, L26.8 Karniadakis, George – R23.12 Ketelaar, C.F. – G24.4 Josserand, Christophe – G32.3 Kalliadasis, Serafim – L3.7 Karniadakis, George – R23.3 Ketelaar, Christiaan – A24.8, R4.12 Josserand, Christophe – KP1.115 Kalliadasis, Serafim – M16.3 Karniadakis, George – G11.1 Keten, Sinan – H9.5, P1.200, Y41.8

130 Kevlahan, Nicholas – M14.1, R5.10 Kim, Kyung Chun – G6.5, KP1.48 Knobloch, Edgar – D11.3 Kovalchuk, Nina – E33.4, KP1.88, Kevrekidis, Yannis – M7.2 Kim, Kyungjoo – E9.4 Knobloch, Edgar – D29.1 R14.3 Kewlani, Gaurav – E5.3 Kim, MinJun – L25.8 Knorr, K. – KP1.90, H25.5 Kovalcinova, Lenka – A6.1 Keylock, Christopher – KP1.73 Kim, MinJun – L26.3 Knudsen, Edward – L17.3, R4.3 Kowal, Katarzyna N. – L22.3, Khabakhpasheva, Tatyana – H13.3 Kim, MinJun – R8.6 Ko, Han Seo – F1.59, H36.7, M29.6 Khadamkar, Hrushikesh – A32.5 Kim, Myeongkyun – R14.6, R22.10 KP1.74, L20.6 Kowata, Yosuke – R16.6 Khafaji, Salih – L9.7 Kim, Sangil – L39.3, L40.12 Kobayashi, Kazunobu – NR4.1, Koynov, Kaloian – M8.6 Khain, Evgeniy – R12.11, S47.1 Kim, Seong Jin – L2.6, R33.7 E27.2 Kozul, Melissa – D22.10 Khair, Aditya – D37.4 Kim, Seung Hyun – H6.1 Koch, Donald – M4.2 Kraheberger, Stephanie – R20.3 Khakhar, Devang – M12.8 Kim, Seungho – L28.8, L33.7 Koch, Donald – D1.8 Krais, Nico – L8.7 Khan, Manoranjan – M18.3 Kim, Sun-Tae – L27.10, L27.11 Koch, Donald – H3.6 Kralik, Stephen – H24.4 Khani, Shaghayegh – L39.12 Kim, Sung Jae – A10.9, L3.1, L3.2 Koch, Donald – A1.8 Kraljic, Matthew – E16.6 Khani, Sina – L11.11 Kim, Sung-gil – H32.9 Koch, Donald – G3.5 Kramar, Miro – A6.1, W17.1 Khanna, Samir – D3.9 Kim, Taehong – H32.9 Koch, Donald – H2.6 Kramar, Miroslav – M5.7 Khanwale, Makrand – A32.5 Kim, Taehoon – A19.6, A19.8, Kocheemoolayil, Joseph – G38.9, Kramel, Stefan – L20.6 Khapko, Taras – D38.10, M25.4 A21.8, L29.6 H21.5 Kramel, Stefan – L20.1 Khawaja, Nazia – A2.8 Kim, Wan-Doo – KP1.61 Koehl, M.A.R. – H25.7 Kramel, Stefan – L20.2 Kheradvar, Arash – L33.2, L18.1 Kim, Wonjung – KP1.24 Koehl, M.A.R. – R39.1 Kramel, Stefan – L20.12 Khlifa, Ilyass – D4.6, L36.12 Kim, Wonjung – H32.9 Koehler, Stephan – D24.7 Kramel, Stefan – L20.11 Khodaparast, Sepideh – R39.8 Kim, Wonjung – R9.10 Koehler, Stephan – KP1.16 Kramer, Peter – G23.5 Khodkar, Mohammad Amin – Kim, Woojin – D16.8, L7.8, L16.9 Koehler, Timothy – D40.6 Krane, Michael – L19.9 M30.7 Kim, Yeojeong – A16.6 Koens, Lyndon – D15.8 Krane, Michael – L36.1 Khorasani, Nariman – KP1.129, Kim, Yeseul – E29.3, G35.5, Koerner, Michael – D32.4, R11.6 Krane, Michael – R25.8 L26.6, L7.5 KP1.39, R35.5 Kofman, Nicolas – M16.7 Krane, Michael – D14.2 Khosh Aghdam, Sohrab – H15.9 Kim, Yonghyun (John) – L26.10 Koglin, Jason – G10.10, R2.11 Krane, Michael – D27.2 Khoshnood, Atefeh – L25.2 Kim, Young-Pil – M1.7 Kokelaar, Peter – H10.5 Krane, Michael – H26.3 Khosronejad, Ali – G30.6, R1.7, Kim, Yu Jeong – G39.3 Kolahdouz, Ebrahim M. – H24.5 Krane, Michael – H26.4 R29.11, R23.9 Kimono, Natsuki – R35.3 Kolb, Evelyne – C1.237, R40.3, Krane, Michael – H26.7 Khurshid, Sualeh – A20.6, E28.6 Kimura, Yoshifumi – L4.10 V52.3 Kravtsova, Marina – A19.4, M25.8 Khusid, Boris – A36.4 Kinefuchi, Ikuya – L37.2 Kolchinskaya, Anastasiya – A20.5 Krechetnikov, Rouslan – L31.5 Kiara, Areti – H13.4, KP1.91 Kinefuchi, Ikuya – M9.4 Kolekar, Nitin – D24.9, R1.1 Krechetnikov, Rouslan – H28.5 Kidambi, Piran – A23.5, H9.1, Kinefuchi, Ikuya – M9.9 Kolinski, John – G14.7, G14.8, Kree, Mihkel – D21.9, G29.7, H9.3, H9.6 King, Justin – F1.81, G27.2, G18.6 H13.6, M32.1 M22.4 Kiefer, Janik – G12.10 King, Kristina – KP1.165 Kolios, Michael C. – R9.8 Kreger, Jesse – KP1.137, M3.6 Kiel, Barry – E10.2, E10.3, G5.2, King, N. – H25.7 Kolomenskiy, Dmitry – H27.10 Kreider, Wayne – M36.2, M36.4 G38.5, L5.12, L21.4 King, Ryan – E20.4 Kolomenskiy, Dmitry – A26.3 Kreilos, Tobias – D29.9, M6.4, Kiger, Ken – G25.3 King-Smith, P.E. – G24.4, G24.8, Komperda, Jonathan – R3.9 M25.4 Kiger, Ken – R27.4 R9.8 Komurasaki, Satoko – H31.2, Kreis, Kevin – L40.1, Y47.12 Kim, Benjamin – L6.11 King-Smith, PE – A24.8 M11.9 Kreitzman, Jordan – A29.4, H38.1 Kim, Boyoung – E23.5, L6.5, L12.5 King-Smith, Peter Ewen – D24.9 Kondic, Lou – A6.1 Krieger, Madison – M23.3 Kim, Bumjoo – H9.9 Kinugawa, Hikaru – KP2.33 Kondic, Lou – R16.1 Krieger, Madison – G16.4 Kim, Chang-Jin “CJ” – E26.2, Kinzel, Michael – E2.4, L36.1, Kondic, Lou – M16.5 Krishna, Swathi – R13.4, R13.5, H8.1, H8.3 R6.2, R6.5, R25.8 Kondic, Lou – D10.1 R13.6 Kim, Daegyoum – A18.9 Kinzel, Michael P. – L6.11 Kondo, Koji – A21.4 Krishnamurthy, Deepak – A28.3, Kim, Daegyoum – M39.6 Kiorboe, Thomas – H25.4 Kondo, Tomoki – M15.4, M32.7 M6.3 Kim, Daejoong – D13.4, G14.7 Kiorboe, Thomas – H25.3 Konduri, Aditya – M7.1, R31.2 Krishnamurthy, Vikas – G19.7, Kim, Dong-Ook – G32.8 Kirby, James – E1.2, L31.9 Kong, Bo – L2.8 R18.8 Kim, Dongjoo – R35.4 Kirkpartick, Michael – A21.5 Kong, Jing – H9.6 Krishnan, Sreenath – A40.1, Kim, Gyehyu – KP1.29 Kirschner, Ivan – L36.1, R25.8 Kong, Tiantian – L5.7, L1.2 D31.2, H16.4 Kim, Heesu – D16.7 Kirsteins, Ivars – M36.6 Kong, Yong Lin – E10.5, L39.5 Krishnan, Sundar Rajan – G40.8 Kim, Ho-Young – KP1.24 Kit, Eliezer – D27.7, H12.4 Konno, Keito – F1.41, KP1.123 Kristensen, Hanna – KP1.137, Kim, Ho-Young – D26.10 Kitamori, Takehiko – E11.6, Konopliv, Nathan – M30.2 M3.6 Kim, Ho-Young – H1.4 KP1.69, L36.9 Konstantinidis, Efstathios – R15.12 Krivets, Vitaliy – L17.11 Kim, Ho-Young – A10.9 Kitsios, Vassili – G27.2, L22.10 Koo, Heeseok – A39.2, A39.8, Krol, Jakub – H29.6 Kim, Ho-Young – A25.9 Kiyama, Akihito – G36.8, L36.10 D34.9 Krueger, Paul S. – D3.8 Kim, Ho-Young – A25.8 Kiyanda, Charles Basenga – R2.4 Koochesfahani, Manoochehr – Krug, Dominik – A11.9, G3.9, Kim, Ho-Young – L28.8 Kizhakke Marath, Navaneeth – E15.2, E15.4, E27.1, G29.2, R31.10, R31.12 Kim, Hyejeong – A25.5, G11.1, A2.6 L32.8, M28.7 Krummel, Gregory – R37.4 R9.11 Klapp, Jaime – F1.25, KP1.168, Kooiman, Klazina – L37.4 Krygier, Michael – M6.3 Kim, Hyeonseong – A18.9, M39.6 KP1.169 Koplik, Joel – R39.6 Krygier, Michael – M6.2 Kim, Hyoungsoo – G13.6, G28.5, Klar, Axel – H40.1, M10.10 Kopp, Gregory – L32.4, R26.6 Kubitschek, Daniel – A19.3 H2.3, L39.5, L22.2 Kleckner, Dustin – G19.6 Kopriva, James – GE.1, E8.1, Kucala, Alec – A15.7 Kim, Hyungdae – A33.3 Kleckner, Dustin – E25.3 KP1.151 Kudo, Shuhei – R7.10 Kim, Hyunseok – M22.5 Klein, Alexander L. – D32.9, H12.4, Korczyk, Piotr – E35.1, R21.8 Kudrolli, Arshad – M12.7 Kim, Ildoo – L28.5 H12.5 Kornilovitch, Pavel – B48.8, R9.3 Kudrolli, Arshad – A28.9 Kim, Ildoo – KP1.109 Klein, S. – M20.8 Korobkin, A – H13.3 Kudrolli, Arshad – A1.1 Kim, Jae Hun – L40.2, M17.7 Kleingartner, Justin – E14.3, H8.5 Korykora, Sarah – D7.9 Kuei, Steve – E23.3, M11.6 Kim, Jeong-Hyun – D34.4, H10.7, Kleinheksel, Abby – G4.4 Kosaraju, Srinivas – G4.1, H4.5, Kuhlmann, Hendrik – AV.1, EY.6, R18.8 Klettner, Christian – G4.3 KP1.19, KP1.38, KP1.53 HZ.3, M5.6 Kim, Jeonglae – E18.2, G20.9, Klewicki, Joseph – G22.2 Koseff, Jeffrey – A21.7, H12.3, Kühnen, Jakob – G15.8, M6.1 H38.10 Klewicki, Joseph – H22.1 H30.7, L29.8, R32.3, R32.4 Kuipers, Hans – A12.8, L10.5, Kim, Jin Young – A33.3, G3.6 Klewicki, Joseph – R20.12 Koshi, Mitsuo – G40.7 M24.2 Kim, Jin-Tae – D1.78, L5.3 Klewicki, Joseph – R20.7 Koshi, Mitsuo – D5.1 Kukhtevich, Igor – D25.4 Kim, Jiyu – A14.5 Klewicki, Joseph – R20.4 Koshiyama, Kenichiro – G25.6 Kulkarni, Ajinkya – H10.7 Kim, John – H15.7 Klewicki, Joseph – R22.4 Koski, Samuel – PC.9 Kulkarni, Mayuresh – M3.9 Kim, John – R18.4 Klewicki, Joseph – L22.5 Koster, Timothy – D25.5, G28.10, Kulkarni, Varun – D32.7 Kim, Jooha – R37.12 Klewicki, Joseph – L32.8 M20.6 Kumar, Abhishek – G17.3 Kim, Joon Heon – A33.3, G35.5, Klewicki, Joseph – L32.2 Kothari, Adit – R40.4 Kumar, Abhishek – R19.9 M13.9 Klimachkov, Dmitry – A8.5 Kotsubo, Yusuke – M9.4 Kumar, Abhishek – L11.10 Kim, Jung Gu – G35.5 Klimchenko, Vera – D16.5 Kou, Wenjun – G26.9, R7.3 Kumar, Aloke – G24.2 Kim, Jung Hoon – E19.4 Klimov, Denis – L33.10 Koumoutsakos, P. – G9.1, L9.1, Kumar, Pradeep – H29.10 Kim, Jungchul – F1.62, H1.4 Klotz, Lukasz – D10.8, R17.8 L36.10 Kumar, Praveen – L9.4 Kim, Jungho – A33.9 Knaepen, Bernard – M11.7 Koumoutsakos, Petros – G27.7 Kumar, Purushotam – R36.11 Kim, Junsuk – A10.9, V1.92, Z2.7 Knapp, Graham – M40.8 Koumoutsakos, Petros – G27.4 Kumar, Rajesh – M11.6 Kim, Junyoung – A18.9, M39.6 Knobloch, Edgar – R30.11 Kouraytem, Nadia – H35.3, L4.11 Kumar, S.S.Prasanna – G7.4 Kim, Kiwoong – A25.2, H1.71 Knobloch, Edgar – E5.1 Kumar, Sanjay – E39.1

131 Kumar, Sanjay – E39.2 LaMarca, Morgan – A24.4 Law, Adrian W. K. – R27.11 Lee, Sang Joon – L24.4 Kumar, Satish – D33.8 Lamb, Kevin – GS.10, L29.7, R15.2 Law, Adrian W.K. – L20.9, R28.6 Lee, Sang Joon – A25.5 Kumar, Satish – H28.3 Lamballais, Eric – A24.5, L7.11 Law, Chung – G39.4 Lee, Sang Joon – A25.2 Kumar, Satish – G31.3 Lambert, Lori – A8.6, L26.9 Law, Chung K. – H5.9 Lee, Sang Joon – M26.3 Kumar, Satish – H18.1 Lambert, Thomas – G15.10, R20.7 Law, Chung K. – G33.9 Lee, Sang Joon – R9.11 Kumar, Satish – L28.7 Lamberti, Giacomo – KP1.14 Lawrence, Greg – H31.6 Lee, Sang Joon – D24.10 Kumar, Satish – L18.2 Lammertink, Rob – E10.4 Lawrenz, Alan – L14.6, R32.6 Lee, Sang Joon – G26.6 Kumaran, V. – G21.5 Lammertink, Rob G.H. – L26.11 Lawrie, Andrew – H31.9 Lee, Sang-im – A5.1, R37.12 Kumaran, Viswanathan – H40.10, Lampropoulos, Nikos – M8.5 Lawrie, Andrew – KP1.93 Lee, Sang-Joon – A8.1, L15.5 KP1.162, M12.5, N8.1 Lan, Hongzhi – L6.4 Lawrie, Andrew – M18.3 Lee, SangHyeon – D31.4 Kummer, Florian – D9.10, R5.2 Lanauze, Javier – D37.4, D33.3 Laws, Nick – R14.11 Lee, Sangjun – D31.4 Kunnen, Rudie – M10.3 Lance, Blake – H14.7, KP1.78, L5.4 Lawson, John – M19.5 Lee, Sangseung – R14.6 Kunnen, Rudie – M11.1 Lance, Blake W. – R11.2 Lawton, Michael – G7.3, L23.7 Lee, Seung Chul – G26.6 Kunnen, Rudie – M10.8 Lance, Michel – G13.7, M40.6 Lazarus, Arnaud – R40.3 Lee, Seung Ho – GO6.8, H36.7 Kunnen, Rudie – M10.7 Landeau, Maylis – L22.11, R30.4 Lazarus, Steven – F6.14, KP1.101 Lee, SeungJoon – AD.1, M7.2 Kunnen, Rudie – M4.6 Landel, Julien R. – G35.1 Le, Trung – G30.6 Lee, Si Hyung – G31.3 Kunnen, Rudie – M28.9 Landel, Julien R. – R18.1 Le Bars, Michael – M31.5 Lee, Sungyon – M3.7 Kunte, Amit – D6.3, H10.8 Landel, Julien R. – M35.2 Le Bars, Michael – N1.1 Lee, Sungyon – E33.1 Kuo, Ching-Wen – H38.8 Lander, Daniel – L32.4 Le Bars, Michael – E30.3 Lee, Sungyon – E33.2 Kuranz, Carolyn – JO4.8, NO7.12, Landrum, Benjamin – D34.8, Le Bihan, Anne-Claire – L4.2 Lee, Tae Seok – L40.2 UP12.25, UP12.81, YP12.4, D34.9, G2.2, G2.4 Le Borgne, Tanguy – G1.1, H28.6, Lee, Taehun – G32.7 KP1.92 Landry, Blake J. – R29.4 KP1.20, R28.3 Lee, Taikjin – H14.8, M17.7 Kurdyumov, Vadim – A5.3, FQ.7 Lane, Thomas – R2.11 Le Chenadec, Vincent – A7.2 Lee, Weng Kent – L40.10 Kurelek, John – E17.6 Lang, Amy – KP2.6 Le Chenadec, Vincent – R7.8 Lee, Wook – L11.6, M35.8 Kurien, Susan – H21.5, L4.7, Lang, Amy – L15.4 Le Goff, Anne – A24.9, D9.3, L40.3 Lefauve, Adrien – L17.2, R11.8 L17.2, R19.3, R14.2 Lang, Amy – A15.8 Le Roux, Sébastien – E13.1 Leftwich, Megan – R38.2 Kurihara, Chihiro – L36.10 Lang, Amy – KP1.173 Leahy, Brian – E2.5 Leftwich, Megan C. – H12.7, Kurosaka, M. – R2.9 Lang, Amy – A19.7 Leary, Thomas – D10.3, M30.7, M24.8, R37.3, R37.9 Kurt, Melike – A27.4 Lang, Daniel – BB.2 R8.5 Lehmann, Fritz-Olaf – H27.10 Kurzeja, Patrick – H16.7 Lang, Georgina – L23.4 Lebedev, Anton – D16.2 Lehn, Andrea M. – A5.6, R37.9 Kushwaha, Anubhav – E27.3, Lang, Jeffrey – E26.3 Lebon, Luc – G13.9, H13.1, H18.9 Lehner, Thierry – A18.8, E30.2, M6.10 Langley, K. – H33.7 Lecampion, Brice – G37.5 F1.38 Kusters, Remy – E24.6 Lanigan, David – E21.5 Leclercq, Colin – E17.2, L30.3 Lehning, Michael – A21.9, M4.4 Kusuno, Hiroaki – KP2.22, R35.4 Lanotte, Alessandra – D33.7, Leclercq, Tristan – M40.7, M40.8 Lei, Jiarui – M40.4 Kutz, April – H4.8 G25.3, R28.2 Lecoanet, Daniel – R30.8 Leibovich, Sidney – R41.1 Kutz, J. Nathan – H35.1, L27.3, Lanotte, Luca – D5.2, L26.12 Lecoanet, Daniel – M31.5 Leibowitz, Neta – G14.1, G14.2, M27.9 Laoui, Tahar – E15.1, H9.6 Ledesma Aguilar, Rodrigo – E10.6 L3.4 Kwak, Ho-Young – H14.8 Lapeyre, Véronique – A2.9 Ledesma-Aguillar, Ridrigo – D31.5 Leiderman, Karin – A23.8, H23.5 Kwak, Rhokyun – H14.8, M3.1, Lapham, Gary – D13.1, L31.6 Ledwell, Jim – KP1.104 Leighton, Richard – L26.9, L20.7, R9.10 Lapointe, Simon – E35.1, G39.2, Lee, Allison – G23.3, M31.8 R28.11 Kwak, SongMi – KP1.110 H6.3 Lee, Alpha – D23.8 Leivadarou, Evgenia – M1.6 Kwon, Hyukjin J. – H9.9 Lardo, Albert C. – L24.8 Lee, Anna – G13.10 Lekic, Vedran – E30.1 Kwon, Yong Seok – A26.9, D19.7, Large, William – KP1.159 Lee, Anna – M18.8 Lele, Sanjiva – D39.10 R32.9 Larsen, Allan – KP1.156 Lee, Aram – M35.7, G34.2 Lele, Sanjiva – L4.5 Kyritsis, Dimitrios – E5.6, M28.7 Larsson, Johan – KP1.43 Lee, Bok Jik – G39.3, M34.9 Lele, Sanjiva – G38.9 Larsson, Johan – H39.5 Lee, Boogeon – L27.10, L27.11 Lele, Sanjiva – A3.6 -- L -- Larsson, Johan – D8.5 Lee, Changhoon – A3.2 Lemoult, Grégoire – L20.3, R17.6 Labbé, Romain – H32.10 Larsson, Sofia – L5.1 Lee, Changhoon – A4.6 Lemoult, Gregoire – M32.4, R17.8 Labousse, Matthieu – H13.7 Larue, Anne – KP1.20 Lee, Chung-Min – L2.2 Leonard, A. – G22.1, TP12.81 Labousse, Matthieu – E13.1 LaRue, John – D25.5, G28.10, Lee, Chung-min – L2.3 Leonard, Katherine – M4.4 Labrinidis, Alexandros – M7.6 M20.6 Lee, Cunbiao – A9.2, A9.3, A11.6, Leonardi, Stefano – D8.1 Labrosse, Stéphane – A30.8 Lasagna, Davide – A16.5 A21.2, D38.3, H22.10, KP1.87, Leonardi, Stefano – D19.5 Labrosse, Stephane – M11.3 Laskari, Angeliki – D22.5, L18.3 L33.12, M19.7, M19.8, M20.9, Leonardi, Stefano – L12.3 Lac, Etienne – M18.5 Laskowski, Gregory – P1.41, E8.1, M25.2 Leonardi, Stefano – L12.2 Lacis, Ugis – A5.3, A15.1, H1.3, KP1.151 Lee, Donghee – KP1.166 Leonardi, Stefano – G12.7 R 27.10 Lathrop, Daniel – E25.2 Lee, Duck-Gyu – KP1.61, R8.8, Leonardi, Stefano – H29.7 Ladeinde, Foluso – A39.4, E6.5, Lathrop, Daniel – L41.8 S26.8 Leonardi, Stefano – G4.6 G39.6, H6.8, MZ.4, KP1.9 Lathrop, Daniel – L10.9 Lee, Eon Soo – A3.9, KP1.116, Leonardi, Stefano – H22.8 Lafferty, Nathan – R35.6 Lathrop, Daniel – R30.9 M1.4 Leong, Fong Yew – BJ.9, E11.5 Lagkaditi, Lydia – D14.7 Lathrop, Daniel P. – E30.1 Lee, Frank M. – G23.10, L29.6 Leontini, Justin – L39.6, R23.5 Lagrée, Pierre Yves – R29.10 Latka, Andrzej – A35.2 Lee, Geng Lin – M12.9 Lepilliez, Mathieu – E9.1 Lagubeau, Guillaume – M27.5 Latka, Andrzej – A35.1 Lee, Hansol – D16.8 Leptos, Kyriacos – H25.1, X9.12 Lagubeau, Guillaume – L25.6 Lauder, George – R38.1 Lee, Hoyoon – KP1.29 Lequeux, Francois – G13.3 Lahaye, Noe – H31.7 Lauder, George – C34.1 Lee, Hyeong Jae – L14.10 Lerisson, Gaétan – L29.10 Lai, Adrian C.H. – L20.9 Lauder, George – A26.9 Lee, Hyomin – A10.9, L3.1 Lerisson, Gaétan – L29.4 Lai, Ching-Yao – G36.9 Lauga, Eric – D15.8 Lee, Injae – HD.7, H27.9, L7.8 Lerner, Edan – D6.1, Q16.14, Lai, Hong Kuan – KP2.30, KP2.31, Lauga, Eric – H23.4 Lee, Inwon – H15.2, R3.10, R25.5 Q18.6, S17.2 R 24.9, R37.7 Lauga, Eric – D25.3 Lee, Jae Ho – H24.10, H16.3 Leschziner, Michael – E19.3 Lai, Kuan-Ruei – M15.7 Lauga, Eric – H25.10 Lee, Jae Hwa – D27.3, E19.4 Leshansky, Alexander – D10.6, Lai, Ming-Chia – H40.4, U29.13 Lauga, Eric – R9.2 Lee, Jaeseon – KP1.110 D10.8, L38.10 Lai, Shuyue – A6.7 Lauga, Eric – M23.5 Lee, Jaewon – GT1.37, A40.6 Lester, Daniel – R28.3 Laiacona, Danielle – G33.6 Lauga, Eric – A28.6 Lee, Jared – E21.1 Letailleur, Alban – G13.3 Laizet, Sylvain – D19.3 Lauga, Eric – A28.8 Lee, Jin – G22.7 Letchford, Chris – L32.4 Laizet, Sylvain – L7.11 Lauga, Eric – G8.5 Lee, Jin – H17.6 Levanger, Rachel – M5.7, R16.2 Lajús Jr., Francisco C. – G38.7 Lauga, Eric – G24.1 Lee, Jinkee – M1.5 Lew, Jeffry K. – M2.8 Lajeunesse, Eric – R12.9, R23.3, Laurrendeau, Eric – M40.3 Lee, Jisan – D31.4 Lewalle, Jacques – G5.2 R23.7 Laval, Jean-Philippe – A7.3, R20.1 Lee, Juhyun – M24.10 Lewalle, Jacques – H38.6 Lajoinie, Guillaume – L37.4 Lavalle, Gianluca – R26.9 Lee, Julia – KP1.109, R36.10 Lewalle, Jacques – KP1.5 Lakehal, Djamel – EN.3, D9.2 Lavely, Adam – D28.4, D28.7, Lee, Jun Ho – M22.5, R35.4 Lewalle, Jacques – KP1.2 Laksmono, Hartawan – G10.10, L30.3 Lee, Jung A. – E6.3, G14.6 Lewis, Gregory – R37.10 R2.11 Lavine, Adrienne – A5.7, M35.4 Lee, Junghoon – A4.6 Lewis, Kayla – KP1.105 Lal, Sreeyuth – H1.10 Lavoie, Philippe – L15.10 Lee, Jungil – D16.8, L34.10 Lewis, Owen – D25.1, L5.8 Lam, Michael – R16.8 Lavoie, Philippe – L15.7 Lee, Minhee – A25.9 Lewis, Timothy – L12.8, R37.7 Lam, Prasanth Anand Kumar – Lavoie, Philippe – E18.5 Lee, MinWook – KP1.122 Lhuissier, H. – L28.6 H5.5 Lavoie, Philippe – D17.4 Lee, Myoungkyu – G22.3, L27.10 LHUISSIER, Henri – G35.9 Lam, Wilbur – R8.10, R10.11 Lavrik, Nickolay – D34.1 Lee, Sang Jin – D12.9 Lhuissier, Henri – D32.9

132 Li, An-Ping – L40.7 Liepmann, Dorian – R23.11 Liu, Fangjie – D34.1 Lopez, Celina – M3.7 Li, Ao – B34.2, KP2.25 Liesche, Johannes – A25.1, Liu, Fangjie – H32.4 Lopez, Diego – P1.1 Li, Cheng – A35.6 L24.10 Liu, Feng – H19.2 Lopez, Juan – M25.3 Li, Cheng – R26.5 Lieuwen, Tim – H39.10 Liu, Geng – A26.5, A26.9, H5.5, Lopez, Juan – L25.4 Li, Chengyu – A26.9 Lieuwen, Tim – L5.10 H5.8, H27.8 Lopez, Juan – G24.6 Li, Chenyang – M13.10, T26.6 Lieuwen, Timothy – E38.3 Liu, Guodong – A40.7 Lopez, Juan – G24.5 Li, Chi – E27.6, V1.207 Liger-Belair, Gerard – M35.10 Liu, Haining – H24.9 Lopez, Juan M. – B8.4, D9.3, Li, Chuanbin – L26.1 Lignell, David – H6.5 Liu, Hanlin – A26.8, H5.7 E38.4 Li, ChungGang – H19.1, L6.9 Ligoure, Christian – A15.1, A32.8, Liu, Hong – L19.12 Lopez, Matias – D25.8 Li, Cunbiao – D38.4 M15.2 Liu, Hong – L19.8 Lopez, Pascal Jean – R40.8 Li, Dongru – R3.9 Lilienthal, Katie – D25.9, D29.6 Liu, Hong – M14.3 Lopez Jimenez, Francisco – A25.6, Li, E. Q. – A35.3, E10.2, L40.8 Lim, Bu-Taek – M1.7 Liu, Honggao – M7.8 L36.8 Li, E.Q. – GP.8, H33.1, H33.7 Lim, Geunbae – H9.9, R6.7 Liu, Junhui – D24.1, D24.3, G38.2 Lopez Sanchez, Erick Javier – Li, Er Qiang – E4.6, H14.9, H35.3, Lim, Hee Chang – A32.6 Liu, Lawrence – L39.9 G33.8, H19.1, L18.7 L4.11 Lim, Hosub – H10.4, M1.5 Liu, Li – A8.1 Lopez-Herrera, Jose M. – PG.2 Li, Erqiang – L35.2, R5.12 Lim, Hyuneui – KP1.61, S4.5 Liu, Liping – A20.9, D7.8 Lorite-Díez, Manuel – D17.7 Li, Fenfang – A4.3, H35.4, L37.3 Lim, Hyunkyung – KP1.172 Liu, Philip – D38.5, L23.8 Lorthois, Sylvie – H24.2, KP1.20, Li, Gaojin – A23.6, E19.3, H9.10, Lim, Hyunkyung – M18.4 Liu, Qili – E6.1 L7.6 M23.1 Lim, Jun – E29.3, G35.5 Liu, Ren – H30.9 Lott, François – H30.4 Li, Genong – H40.4 Lim, Junwoo – KP1.151 Liu, Shuaishuai – D26.1, E21.3 Lou, Jing – L19.11 Li, Haixing – H33.9, M8.4 Lim, Melody – A6.5 Liu, Tianshu – R30.3 Lou, Zhipeng – E6.5, G39.6 Li, Harry – G19.5 Lim, Su Jin – E29.3, G35.5, Liu, Tiegang – L8.4, L8.5 Louca, Elena – G31.5 Li, He – M25.7 KP1.39, R14.10, R35.5 Liu, Xiaofeng – L32.1 Louis, Bruno – G25.2 Li, Hui-Min – G19.2, G19.3, M10.9 Lim, T.T. – L19.11, L18.9 Liu, Xiaofeng – E7.1 Lovecchio, Salvatore – L30.11 Li, Jiang – E10.4 Lim, Tee Tai – R13.9, R13.10, Liu, Xiaoyu – L19.8, X49.7 Lovecchio, Salvatore – A13.7 Li, Jing – G35.10 R16.9 Liu, Xinan – H30.9, R27.5 Lovett, Benjamin – M35.1 Li, Jing – R14.5 Limacher, Eric – R32.10 Liu, Yang – R6.6 Lowe, K. Todd – L22.8, M24.7 Li, Jingmei – E10.5, L5.7 Limat, Laurent – G13.9 Liu, Yanpeng – K1.127, L39.8 Lowman, Nicholas – D29.4, L31.5 Li, Jingxuan – A7.6 Limat, Laurent – H13.1 Liu, Yi – R28.5 Lozano-Duran, Adrian – G22.6 Li, Larry – E17.1, L36.6 Lin, Chen – H24.4 Liu, Ying – M8.8 Lozano-Duran, Adrian – R20.10 Li, Le – D23.10, H17.3, Q48.2 Lin, Ching-Long – H26.6 Liu, Yingzheng – M15.5, M18.4 Lozano-Duran, Adrian – R19.6 Li, Longfei – G24.8 Lin, Hao – H4.3 Liu, Yu-Hsiu – M25.4 Lu, Cunjing – L10.10, R27.8 Li, Longnan – G14.7 Lin, Hao – E37.1 Liu, Yuming – D9.5, D13.10, H33.2, Lu, Jiacai – R35.8 Li, Minglei – H5.9, H36.1 Lin, Jeffrey – A7.8, G20.1 KP1.91 Lu, Jiacai – R25.1 Li, Qi – H8.2 Lin, Neil – E2.1, E2.3, F50.10 Liu, Zhenping – D9.4, H20.8, Lu, Jiacai – G7.6 Li, Qi – H5.8 Lin, Te-Sheng – R33.5 H22.7 Lu, Li – E10.3 Li, Qian – KP1.144, L16.7, H1.252, Lin, Te-Sheng – L18.5 Liu, Zhou – G32.6, L5.7, L1.2, Lu, Lu – R23.12 Q7.1, Y25.1 Lin, Te-Sheng – M16.3 L13.11 Lu, Xi-Yun – H29.1, R13.11 Li, Qing – KP1.159 Lin, Xin – A31.7, Q44.8 Livescu, Daniel – D40.8 Lu, Xiaoyi – M34.1, R7.6 Li, Ru-Yang – L7.7 Lin, Yen-Chih – E2.5 Livescu, Daniel – D40.5 Lu, Xinyu – A10.6, A10.7, G10.9, Li, Shan – G39.7 Lin, Zhaowu – A4.4 Livescu, Daniel – D40.3 R3.7 Li, Shuiqing – E1.5, E1.6, KP2.26, Linares, Esperanza – A2.7 Livescu, Daniel – H20.9 Lu, Yu – H8.4 Z44.6 Lind, Andrew – L16.11, M30.10 Livescu, Daniel – D20.1 Lu, Ziyang – A31.1 Li, Teng – D17.6, G7.8 Lindemann, Christian – G27.3 Livescu, Daniel – D8.2 Lua, Kim Boon – R13.10 Li, Weihua – L18.2 Linden, Paul – A1.3 Lizardi, José – H8.9 Luca, Elena – D15.7 Li, Wenhai – A39.4, GM.3, E6.5, Linden, Paul – A11.1 Lizarraga-Garcia, Enrique – D9.2 Lucas, Kelsey – R6.5, R38.1 G39.6, H6.8, KP1.9 Linden, Paul – R10.1 Llewellyn Smith, Stefan – G19.8 Lucci, Francesco – D12.6, H1.10 Li, Xiaoqi – A32.3, A40.7 Linden, Paul – R11.8 Llewellyn Smith, Stefan – H31.7 Lucena Kreppel Paes, Paulo – Li, Xiaoyi – L5.5 Linden, Paul – R36.6 Llewellyn Smith, Stefan – L1.1 G40.6 Li, Xuejin – D6.4, D19.6, R23.12 Linden, Paul F. – L30.3 Llorens, Coraline – H33.8, Z40.12 Luchini, Paolo – R5.7 Li, Yang – D2.7 Lindgren, Björn – L15.2 Lo Jacono, David – D11.3, E5.1, Lucht, Robert – D5.8, D34.2 Li, Yangfan – E32.3 Lindgren, Kjell – L28.4 L14.5, L12.5 Lucquiaud, Mathieu – M16.6, Li, Yaofa – D1.10 Lindner, Anke – F1.11, G11.2, Lobatto-Dauzier, Nicolas – H23.4 M22.4, R26.9 Li, Yaofa – H28.7 R39.10 Lockard, Michael – G14.9, M32.8 Ludar, Lotan – G14.9 Li, Yi – H21.1 Lindstrom, Annika – D16.9 Locke, Rory – KP1.126 Ludu, Andrei – D13.7 Li, Yinxiao – G9.6, G9.7 Ling, Hangjian – H8.4, R18.7 Lockerby, Duncan – M9.1 Luelff, Johannes – G11.2, R16.1 Li, Yiwei – KP1.16 Ling, Julia – G28.3, H21.3 Lockerby, Duncan A. – E20.5, Lueptow, Richard – H10.6 Li, Yixuan – G8.4, R18.10 Ling, Yue – KP1.115 G11.8 Lueptow, Richard – H10.4 Li, Yuanda – R38.10, P1.336, Ling, Yue – M22.1 Lohse, Detlef – H36.5 Lueptow, Richard M. – H9.5, Q34.9 Ling, Yue – M22.2 Lohse, Detlef – A31.4 L10.7, S44.3 Li, Zhaorui – H4.1, L4.1, D8.2, Lingwood, R.J. – G22.5, H17.5 Lohse, Detlef – D31.7 Luhar, Mitul – A20.8, L32.7, D20.1, D40.5 Linkmann, Moritz – A36.3, F1.48, Lohse, Detlef – H11.6 M15.6, R40.1 Li, Zhe – A23.7, S27.6 KP1.112, KP1.113, M6.7, M28.2 Lohse, Detlef – D32.9 Lukassen, Laura J. – R19.11 Li, Zhen – G7.3 Liot, Olivier – H11.9, R19.9 Lohse, Detlef – H20.2 Lumay, Geoffroy – L25.6 Li, Zhen – R23.12 Lipkis, Rory – A27.5 Lohse, Detlef – G11.7 Lundell, Fredrik – L39.11 Li, Zhen – R23.3 Lira, Rafael – E37.1, R13.2 Lohse, Detlef – D32.10 Lundgreen, Ryan – A14.6, A24.3 Li, Zhen – R7.10 Lira Rangel, Francisco Javier – Lohse, Detlef – A31.2 Luo, Guanrong – A14.8 Li, Zhen – R4.11 G19.8, M10.6 Lohse, Detlef – A31.1 Luo, Haoxiang – L24.2 Li, Zhen – R4.10 Lisazo, Rodrigo – A26.7 Lohse, Detlef – H20.5 Luo, Haoxiang – H27.7 Liakos, Anastasios – H37.1, H37.9, Liska, Sebastian – L7.1, M5.7 Lohse, Detlef – H20.4 Luo, Hong – L8.4 H31.3 Lismont, Marjorie – H15.4, H32.6 Lohse, Detlef – G11.8 Luo, Hong – L8.5 Liang, Chunlei – E31.6, L8.2 Lissandrello, Charles – D23.10 Lohse, Detlef – M11.1 Lupo, James A. – M7.8 Liang, Zach – D8.2, D8.8, G3.1, Lissandrello, Charles – H17.3 Lohse, Detlef – M22.8 Luppi Sato, Camila – KP1.118 H3.8 Lister, John – H32.7 Lohse, Detlef – R12.6 Lushi, Enkeleida – D6.10, G23.1, Liao, Yang – A29.1 Lister, John – L36.5 Lohse, Detlef – R20.5 H11.4, H11.9, L39.1, L39.2 Liberzon, Alex – G36.9, L5.3 Lister, John – L36.6 Lohse, Detlef – R28.8 Lust, Ethan – R1.9 Liberzon, Dan – D27.7 Lister, John – G28.6 Lohse, Detlef – E32.4 Lust, Ethan – R1.2 Liburdy, James – M30.8, R13.7 Liu, Allen – E24.5, S3.4 Lohse, Detlef – L35.8 Lust, Ethan – R1.6 Licht, Stephen – R13.12 Liu, Bi-Feng Liu – KP1.16 Lohse, Detlef – L20.8 Luznik, Luksa – R1.6 Lichtner, Derek – A19.8 Liu, Bin – A28.4 Loire, Sophie – G29.6 Luznik, Luksa – R1.2 Lieb, Anna – L6.1, R1.8 Liu, Can – G27.6, H22.8 Lombard, Jean-Eloi – KP1.155, Luznik, Luksa – R1.9 Lieberknecht, Erika – M5.4 Liu, Chang – R27.4 L9.8 Luzzatto-Fegiz, Paolo – G21.9, Lieberman, Daniel E. – G26.1 Liu, Chao – R9.9, R11.7 Lomperski, Steve – M1.1 L12.7, L13.1, L30.12, P27.1, R18.1 Lieberthal, Brandon – R2.7 Liu, Chen-Yu – L28.7 London, Mara – E3.2 Lv, Yu – L8.12 Liel, Uri – G14.1, L3.4 Liu, Chien-chia – E31.4, G22.10, Longmire, Ellen – L22.12 Lykov, Kirill – D6.4, R4.8 Lienhard, John H. – KP1.52 L35.2 Longmire, Ellen – R17.7 Lyskina, Galina – L23.1 Loodts, V. – D11.6 133 -- M -- Maiti, Ritwik – R12.12 Marchisio, Daniele – A23.2, G1.7, Martinuzzi, Robert J. – G18.10, Méndez, Federico – H8.9 Maitland, Duncan – L23.10 R4.2 G33.7, M14.9, R12.3 Ma, Allen – A20.7, L26.2 Maitra, Tanmoy – A13.8, D13.7, Marconi, V.I. – H25.7 Marusic, Ivan – G22.2 Ma, Ding – M26.8 H33.6 Marcos, - – D15.2, R39.3 Marusic, Ivan – R22.4 Ma, Dong – A7.5 Majda, Andrew – E31.3 Marcotte, Florence – D11.2 Marusic, Ivan – D22.2 Ma, Ming – R25.1 Major, Todd – A12.5, J20.1, J20.2 Marcus, Phil – R30.2 Marusic, Ivan – D22.6 Ma, Ming – R35.8 Makhmalbaf, Hady – R30.3 Marcus, Philip – R30.1 Marusic, Ivan – A11.9 Ma, Peter – D5.8, G31.8, R32.8 Makiharju, Simo A. – L36.3 Marcus, Philip – L30.2 Marusic, Ivan – L22.7 Ma, Peter C. – D5.5, D26.7 Makoto, Tsubokura – L6.9 Margairaz, Fabien – E20.6 Marusic, Ivan – L22.5 Ma, Yi – R31.3 Maksim, Dadonau – R11.3 Marichal, Yves – A31.6, D8.6 Marut, Kenneth – R37.4 Ma, Yi – R31.4 Maksoed, W.H. – F1.28, F1.29, Marin, Alvaro – L39.7 Marxen, Olaf – H22.7, L18.7, M27.2 Maas, Leo – L1.49, L29.8, M31.7 F1.30, YP12.11, YP12.32, Marin, Alvaro – R8.4 Marzuola, Jeremy – R40.5 Mac Intyre, Jonatan R. – E33.5 KP1.160 Marin, Daniela – H18.5, KP1.89 Masen, Marc – L10.12 MacArt, Jonathan F. – A39.3 Maksym, Ted – M4.4 Marin, Oana – M1.1, L32.10 Mashayak, Sikandar Y. – M9.7, Macchietto, Sandro – D14.7 Maktabi, Sepehr – E37.6 Marion, Andrea – G1.4 T23.6 MacDonald, Michael – R22.3 Malachosky, Edward – A12.5, Mariotti, Alessandro – R5.2, Mashayek, Ali – KP1.104, L29.1, Machado, Anaïs – D2.4 M36.1 R5.11, R5.12, R35.5 L30.7, L30.10, R7.2 Machicoane, Nathanael – E30.4, Malaga, Carlos – A24.4, L1.3, Mark, Andreas – E35.4, R11.8 Mashayek, Farzad – R3.9 E30.5, R19.1 R31.10 Markel, David – R9.3 Masila, Danny Raj – A15.5, E35.6 MacIver, Malcom – D26.3 Malamataris, Nikolaos – H37.1 Markfort, Corey – L4.12, L12.6, Masnadi, Naeem – A13.5, H31.3 MacMinn, Chris – A1.2, H1.1 Malamataris, Nikolaos – H37.9 R32.6 Masoud, Hassan – R8.3 MacMinn, Christopher – H1.8 Malaya, Nicholas – A18.4 Markicevic, B.I. – HR.1, L1.4 Masoud, Hassan – M3.1 MacMinn, Christopher W. – D3.2, Malcherek, Andreas – L3.12 Markides, Christos – M17.9 Masoud, Hassan – G28.5 H1.2 Maldarelli, Charles – R8.5 Markides, Christos – G5.3 Masri, Assaad R. – H6.4, H6.6 MacPhee, David – H12.6 Maldarelli, Charles – R39.6 Markides, Christos N. – L18.10 Massa, Luca – A5.4, R21.8 Madison, Trystan – D30.2, D30.5, Maldarelli, Charles – G28.8 Markmann, Juergen – G11.5, H1.7 Massimo, De Pietro – G29.7 D23.7 Malik, Nadeem – G20.7, KP1.142 Markovic, Uros – D14.2 masson, lucien – R37.1 Maeda, Kazuki – D3.9, M36.4 Mallery, Kevin – L33.1 Marmorino, George – G4.2 Massoudi, Mehrdad – A3.8, 1A.27, Maelfeyt, Bryan – M5.1 Malomed, Boris – L31.12 Marmottant, Philippe – R35.10 1B.57, M26.2, M11.4, M11.8 Maffettone, Pier Luca – G2.10, Mamalis, Dimitris – R33.10 Marmottant, Philippe – R9.2 Mastellone, Andrea – R3.5 H23.7 Man, Yi – H25.10 Marmottant, Philippe – G8.5 Mastin, Larry – A21.6 Magari, Patrick – G25.3, L21.8 Manafirasi, Setareh – R8.5 Marmottant, Philippe – G8.6 Mastorakos, Epaminondas – A7.3 Maggiolo, Dario – G1.4 Manalis, Scott – G8.3 Marom, Liad – L15.12 Mastroberardino, Antonio – M3.8 Magli, Enrico – A8.9, A36.5 Manar, Field – R15.6 Marques Rosas Fernandes, Vitor Mastroberardinob,, Antonio – Magnaudet, Jacques – G33.5 Manasseh, Richard – A11.1, A11.2, – H18.3, H18.4, M21.3 D24.5 Magnaudet, Jacques – G17.1 L39.6 Marquier, Andre – M40.8 Masuk, Ashik Ullah Mohammad Magnaudet, Jacques – R36.10 Mancho, Ana M – R28.4 Marsden, Alison – M24.2 – D1.2 Magniez, Aurelie – A24.9, G19.8 Mancia, Lauren – A4.7, L37.6 Marsden, Alison – M24.10 Matalon, Moshe – E5.6 Magorrian, Samuel – M29.10 Mancini, Peter – G30.2, L16.4, Marsden, Alison – L6.4 Matalon, Moshe – G39.5 Magstadt, Andrew – L5.11 L16.5 Marsden, Alison – L23.1 Matar, Omar – D9.1 Magstadt, Andrew – L5.12 Mancuso, Jordan – D5.8, R23.4 Marsden, Alison – L24.7 Matar, Omar – E33.4 Magstadt, Andrew – KP1.171 Mandal, Sandip – M12.8 Marsden, Alison – H24.3 Matar, Omar – D14.7 Magstadt, Andrew – KP1.170 Mandre, Shreyas – R1.3 Marsden, Alison – H24.8 Matar, Omar – D33.1 Magstadt, Andy – L21.4 Mandre, Shreyas – G28.1 Marshall, Andre – M11.5 Matar, Omar – H8.6 Mahadevan, L – D26.1, G27.7, Mandre, Shreyas – A35.4 Marshall, Curtis – H35.9, M28.2 Matar, Omar – H8.5 M16.1 Mandre, Shreyas – L28.5 Marshall, Ian – H7.8, L23.5 Matar, Omar – A35.9 Mahadevan, L. – E23.2 Mandre, Shreyas – KP1.109 Marshall, Jeffrey – G19.2 Matar, Omar – H36.3 Mahadevan, L. – G18.2 Mandre, Shreyas – E23.2 Marshall, Jeffrey – A7.5 Matar, Omar – H7.1 Mahadevan, Lakshminarayanan Mandujano, Francisco – L1.3, Marshall, Jeffrey – L2.7 Matar, Omar – G18.3 – D24.1 R31.10 Marston, Brad – R30.7 Matar, Omar – G18.4 Mahady, Kyle – L2.4, M16.5, MANGENEY, Claire – G35.9 Marston, Brad – KP1.102 Matar, Omar – A31.8 M12.7, R16.1 Mani, Ali – H14.4 Marston, Brad – E31.1 Matar, Omar – A32.4 Mahajan, Achal – R12.4 Mani, Ali – G33.4 Marston, Brad – E21.2 Matar, Omar – G18.5 Maharbiz, Michel M. – H25.8 Mani, Ali – H14.10 Marston, Jeremy – M26.1 Matar, Omar – A35.5 Maharjan, Rijan – A2.4, G19.3, Mani, Ali – G3.3 Marston, Jeremy – M16.2 Matar, Omar – A35.8 G27.7 Mani, Ali – D5.10 Marston, Jeremy – L36.4 Matar, Omar – H7.3 Mahdavi, Mahboobe – D14.10, Mani, Ali – H14.6 Marston, Philip L. – M36.6 Matar, Omar – M8.3 D19.9, M35.5, R10.5 Mani, Ali – A10.3 Martínez-Bazán, Carlos – D17.7, Matar, Omar – M17.1 Mahesh, Krishnan – D7.2 Mani, Ali – L20.5 R27.10, R36.10 Matar, Omar – M17.4 Mahesh, Krishnan – D7.3 Mani, Ali – A3.7 Martínez-Calvo, Alejandro – G17.5 Matar, Omar – M17.3 Mahesh, Krishnan – R18.10 Mani, Ali – A3.4 Martínez-Suástegui, Lorenzo – Matar, Omar – M17.9 Mahesh, Krishnan – R18.11 Mani, Ali – A3.1 KP1.55, L32.10 Matar, Omar – M17.2 Mahesh, Krishnan – A22.8 Mani, Ali – R25.5 Martanti, Dewi Lita – R10.3 Matar, Omar – M9.8 Mahesh, Krishnan – L9.4 Mani, Ali – R18.6 Marten, Darmawan – D32.5 Matar, Omar – R4.1 Mahesh, Krishnan – R25.9 Mani, Ali – M7.3 Martens, Erik A. – G27.3 Matar, Omar – G5.3 Mahesh, Krishnan – A4.3 Manikantan, Harishankar – E23.1 Mårtensson, Gustaf – E35.4 Matar, Omar – L18.6 Maheshwari, Shantanu – H36.5 Manna, Utpal – A8.6 Marthelot, Joel – A27.9 Matar, Omar – L18.3 Maheswaran, Shyamala – A24.1 Manneville, Sébastien – A2.9 Marthelot, Joel – G13.10 Matar, Omar – L18.1 Mahmoud, Saleh – M2.8 Manneville, Sebastien – E12.6, Marthelot, Joel – M18.8 Matar, Omar – L18.11 Mahmoudi, Seyed Reza – A13.6, R24.1 Marti, Philippe – A30.2, D1.10 Matar, Omar – E32.5 A36.7, L4.8, M12.5 Manneville, Sébastien – A2.6 Martin, Alexandre – G21.2, W24.6 Matar, Omar K. – A33.6, A33.9, Mahmoudzadeh Akherat, S. M. Manohar, Krithika – L27.3 Martin, David – A32.1 R33.10 Javid – R24.8 Manolidis, Michail – G25.2 Martin, Matthieu – A6.6, A23.3 Mathai, Varghese – A25.5, L20.8 Mahoney, Bryan – M7.1 Manor, Ofer – G8.4, H10.6 Martin, Nathan – H29.5, R13.8 Matheou, Georgios – R21.2 Mahoney, John – KP1.126 Mansoor, Mohammad – D4.8, Martin, Paul – R31.9 Mathews, Edwin – D20.10 Mahr, Claudius – R24.2 H1.1, L36.4, M16.2 Martindale, James – H23.3, H11.1 Mathiesen, Joachim – G1.3, G6.2, Maia, Joao – L39.12 Mansour, Kamyar – H19.10 Martinez, Adam – H4.3, H3.1 Z2.13 Maia, Joao – H2.1 Manzo, Maurizio – H14.7, M35.3 Martinez, Luis – B21.14, B35.6, Mathioudakis, Alexandros – A39.1 Maia, Joao – E35.3 Mao, Qian – G14.5 E28.4, J35.7 Mathis, Alexander – G26.2 Maiden, Michelle – D29.4, KP2.16 Mao, Wenbin – R8.10 Martinez Mercado, Julian – A8.6, Mathpati, Channamallikarjun – Mailleur, Alexandra – G35.2 Maquet, Laurent – D31.2, D31.3, D34.3, M14.1 A32.5 Mailybaev, Alexei – G29.7 E13.2, M35.1 Martinez-Bazan, Carlos – G5.8 Mathur, Manikandan – M31.6, Maimouni, Ilham – M18.5 Maqui, Agustin – A35.6, D20.2 Martinez-Legazpi, P. – R24.1 L10.8 Maines, Warren R. – R2.7 Marbach, Sophie – G9.9, H9.8 Martini, Nicola – R5.2 Matia, Yoav – D15.3, R10.7 Maire, Pauline – L40.3 Marcelet, Meryem – G13.7 Martinuzzi, Robert – M27.8 Matin, Rastin – G1.3, G6.2 Maisto, Pietro – M11.5 Marchioli, Cristian – A13.7 Martinuzzi, Robert – M15.4 Matlis, Eric – M28.2

134 Matsuda, Yoshiyuki – H28.10 McKinley, Gareth – G10.2 Meneveau, Charles – G12.5 Miller, Michael – R1.3 Matsumoto, Kiyoshi – A31.6, D13.2 McKinley, Gareth – A1.7 Meneveau, Charles – G12.6 Miller, V.A. – E23.9, M14.7, M28.3 Matsumoto, Satoshi – L18.4 McKinley, Gareth – E14.3 Meneveau, Charles – D22.2 Miller, W. D. – G4.2 Matsumoto, Yoichiro – KP1.37 McKinley, Gareth – E14.6 Meneveau, Charles – D22.9 Millet, Christophe – H30.4 Matsumoto, Yuko – JR.1, JR.3, McKinley, Gareth – D32.4 Meneveau, Charles – R22.12 Mills, Zachary – G16.10 H19.4 McKinley, Gareth H. – E12.4, E12.6 Meneveau, Charles – R41.11 Mills, Zachary Grant – KP2.13 Matsuo, Yuichi – H27.3, H37.3 McLaughlin, Clare – L28.1 Meneveau, Charles – R19.7 Miloh, Touvia – G6.6, H14.3 Mattson, Joseph – M1.2 McLaughlin, Richard – D30.4 Meneveau, Charles – R20.2 Min, Dahhea – A18.2 Mauer, Johannes – L26.12 McLaughlin, Richard – G4.7 Meng, Hui – M26.8 Min, Haoda – A4.1, R21.3 Maurel, Agnes – L31.6 McLaughlin, Richard – G4.8 Meng, Hui – M26.6 Minh, Do-Quang – R33.2 Maurel, Agnes – R31.9 McMullan, W. Andrew – D19.2 Meng, Hui – L23.8 Minh, Doan – D25.9 Maurel, Agnes – M27.5 McNulty, M. – JP8.4, H20.3 Meng, Hui – L23.9 Miquel, Benjamin – E36.5, L31.2, Maurel, Agnes – D13.4 McPhail, Michael – H26.4 Meng, Hui – H3.8 R30.11 Mautino, Anthony R. – E30.1 McQueen, Trevor – R2.11, W42.3 Meng, Hui – G3.1 Mirajkar, Harish – D30.6 Mawatari, Kazuma – E11.6, McRae, Oliver – M17.7 Meng, Qiang – E10.4 Miralles, Vincent – G11.9, G36.5 KP1.69, L36.9 Medale, Marc – A12.4, G35.4 Menges, Achim – L10.6 Miramontes, Diego – KP1.105 Maxey, Martin – D9.6 Medina, Abraham – KP1.169 Menolascina, Filippo – G23.8 Miranda, Colin S. – A6.6 Maxey, Martin – D2.5 Medina, Abraham – KP1.168 Menon, Karthik – R35.7, Y45.10 Mirbagheri, Seyed Amir – H24.2, Maxwell, Adam – M36.4 Medina, Albert – A17.6, A17.2, Menon, Narayanan – H3.7 M23.9 Maxwell, Adam D. – M36.2 L16.10 Menon, Narayanan – H32.2 Mirbod, Parisa – A24.6, G3.8, Mayer, Martin – KP1.118 Meeker, Steven – A2.6 Menon, Narayanan – H2.8 KP1.132, M1.8, M24.6 Maynes, Daniel – G35.7 Megaridis, Constantine – E13.4, Menshov, Igor – A7.4 Mirhashemi, Arman – KP1.151 Maynes, Daniel – D34.2 G35.8, H5.7 Merati, Parviz – R30.3 Mirjalili, Seyedshahabaddin – Maynes, Daniel – A14.6 Megson, Peter – E25.2, E18.3, Mercat, Jean – A23.7 G33.4 Maynes, Daniel – H11.10 E18.6 Merceron, Aymeric – L10.3 Miroshnikov, Victor – E29.2, L10.5 Maynes, Daniel – R18.5 Mehdi, Faraz – R20.12 Mercier, Justin – A17.9 Mirsaidov, Utkur – E11.5, R9.5 Maynes, Daniel – R26.10 Mehdizadeh, Amir – A13.1 Mercier, Matthieu – D30.7, H6.3, Misbah, Chaouqi – E24.4 Mayo, Lisa – D9.6, E33.3 Meheust, Yves – G36.8 M5.10, R17.4 Mischaikow, Konstantin – A6.1 Mayrhofer, Arno – R32.6 Mehmedagic, Igbal – R10.2 Mercury, Lionel – G35.6 Mischaikow, Konstantin – M5.7 Mazzei, Luca – G10.8 Mehmedagic, Igbal – M39.4 Meritt, Andrew – M32.10 Mishra, Avanish – D10.10 Mazzino, Andrea – A5.3, A15.1, Mehrabadi, Mohammad – R26.2 Merkow, Jameson – G31.5, L6.4 Mishra, Manoranjan – H18.7, R 27.10 Mehrabadi, Mohammad – L2.11 Merrell, Tyler – R35.9 H18.9, H18.10, L22.5 Mazzitelli, Irene – D33.7, R21.4, Mehrabian, Hadi – G2.6 Merrifield, Sophia – KP1.104 Mishra, Shruti – A35.4, G26.1, R28.2 Mehta, Yash – K4.3, H3.3 Mertadam, Sercan – KP1.79, G26.2 McAllaster, Michael – A28.1 Meiburg, Eckart – H3.5 L32.9 Misztal, Marek – G6.2 McAllister, Sara – G39.10 Meiburg, Eckart – KP1.89 Merzari, Elia – A27.5, M1.1 Mitchell, Kevin – KP1.126 McBride, Andrew – M12.3 Meiburg, Eckart – M30.2 Meshkati, Farshad – H11.5, L25.8 Mitchell, Kevin – M5.1 McBride, Samantha – G24.6, Meiburg, Eckart – M30.4 Meshkati, Meshkati – L26.3 Mitchell, Taylor – A11.8, A24.8 L25.4, L5.10 Meiburg, Eckart – M30.7 Messerschmidt, Marc – R2.11 Mitchell, William – D15.10, L10.2 McC. Hogg, Andy – L29.3 Meichle, David – E25.2, J42.3, Mestel, Jonathan – FD.7, HG.1, Mito, Yoichi – D3.3, H20.10 McCallum, Christopher – G14.8 L35.8 L3.8 Mitra, Abhijit – H27.2, R6.3 McCarroll, Louise – H28.2 Meimukhin, Danila – L38.5 Metcalfe, Ralph – D15.9, M11.7 Mitra, Dhrubaditya – M4.8 McCarthy, Ian – L33.9 Meinhart, Carl – A10.2 Metzger, Bloen – D2.8 Mitra, Surjyasish – L35.5, R33.6 McCarthy, Philip – E40.5, H21.8, Meinke, Matthias – A40.4, E8.2, Meyer, Antoine – A11.3, R11.5 Mitra, Sushanta – L35.5 M18.8 H4.4, KP1.122 Meyer, Chad – E4.2 Mitra, Sushanta – R33.6 McCaslin, Jeremy – G5.9, H33.1 Meireles, M. – M3.2 Meyer, Chad D. – C1.4, R2.5 Mittal, Nitesh – L39.11 McClure, Jeffrey – L33.3 Mejia-Alvarez, Ricardo – D39.2 Meyer, Colin R. – M29.1 Mittal, Raina – KP1.57 McClure, Sarah – L15.5 Mejia-Alvarez, Ricardo – D39.3 Meyers, Brett – G14.1, H24.7 Mittal, Rajat – KP1.57 McComb, W. David – F1.48, Mekadem, M. – G15.2, G15.7, Meyers, Johan – E24.4, G12.5, Mittal, Rajat – KP1.28 KP1.113, M28.2 H20.1, R12.2 G12.6, L12.4, L12.11, L13.4, Mittal, Rajat – L14.1 McConnell, Miranda – R10.6 Mekki-Berrada, Flore – G8.6, H4.4 L13.6, L13.11, L35.5, R26.6 Mittal, Rajat – L14.7 McCormick, Andrew – D26.1, Melchionna, Simone – G26.1 Mezic, Igor – G29.6 Mittal, Rajat – L24.11 H52.7, V52.2 Melfi Jr, James – L27.1 Mezic, Igor – G29.5 Mittal, Rajat – L24.8 McCue, Scott – E33.3, L16.11 Melfi Jr., James – L27.5 Mezic, Igor – A10.2 Mittal, Rajat – L24.1 McDermott, Randall – L7.3 Meliga, Philippe – E40.6 Mhatre, Sameer – G8.4 Mittal, Rajat – R22.12 McDonald, James G. – G40.2 Melina, Gianfrancesco – M20.2 Mi, XiaoCheng – R2.4 Mittal, Rajat – R24.4 McDonough, J. M. – E20.3 Melius, Matthew – D28.6, R31.3, Mi no, G. – H25.7 Mittal, Rajat – R24.5 McDougall, Trevor – L29.1 R31.4, R31.5 Mi no, Gastón L. – R39.5 Mittal, Rajat – R38.6 McElwaine, Jim – R12.1 Melkoumian, Sergei – M14.8 Mi no, Gaston – R39.10 Mittal, Rajat – M13.1 McElwaine, Jim – M12.1 Melville, Ken – L31.7 Miao, Haiyan – L6.3 Mittal, Rajat – M39.7 McEvoy, Harry – G35.1, H16.7 Melville, W. Kendall – D2.1, H30.6 Miao, Sha – D9.5 Mittal, Sanjay – A15.5 McFall-Ngai, Margaret – A6.9, Melville, W.K. – H30.8, L16.6, Micallef, Daniel – E28.5 Mittal, Varun – R7.11 H23.10, L18.7 L16.7 Michaels, Dan – H39.6 Mituniewicz, Austin – E32.6 McFarland, Jacob – E39.3 Melvin, Jeremy – JO4.14, D40.7, Michel, Guillaume – L31.1 Mivehchi, Amin – D13.5, R13.12 McFarland, Jacob – KP1.94 M18.4 Michelin, Sebastien – H23.4 Miyawaki, Shinjiro – D15.10, E15.1, Mcfarland, Jacob – KP1.12 Mema, Ensela – D10.1, P1.30, Micka, Daniel – L21.8 H26.6 Mcfarland, Jacob – E39.5 W50.8 Mied, Richard – G4.2 Miyazaki, Takeshi – M27.10 McFarland, Jacob – L17.6 Mendelson, Leah – D26.6, G27.1, Mier, Frank Austin – M28.5 Mizobuchi, Yasuhiro – H27.3, McGah, Patrick – R24.2 L32.11, L29.4 Mikel-Stites, Maxwell – G23.9 H37.3 McGann, Brendan – E6.1 Mendez, Federico – H14.9 Mikhaeil, Mark – A22.5, D40.4 Modarres-Sadeghi, Yahya – D18.9 Mcgarry, Joseph – E7.3 Mendez, Simon – L26.12 Mikishev, Alexander – E13.2, Modarres-Sadeghi, Yahya – A24.7 McHale, Glen – D31.5, G8.5 Mendoza, C. – R28.4 M21.2 Modarres-Sadeghi, Yahya – D18.2 McHugh, John – D13.1 Mendoza, Marcos – A28.4 Mikkelsen, Robert Flemming – Modarres-Sadeghi, Yahya – E23.4 McHugh, John – M31.9 Meneghello, Gianluca – H17.9, G12.4, L30.11 Modarres-Sadeghi, Yahya – D18.8 McIlroy, Claire – A12.2, L13.10 L9.11, M23.5 Miksis, Michael – D37.8 Modarres-Sadeghi, Yahya – E40.2 McKay, Cameron – R39.12 Menelaou, Konstantinos – G1.2, Miksis, Michael – D37.6 Moens, Maud – D30.6, E28.6 McKay, Mairi – KP1.112, KP1.113 H30.5 Milani, Pedro – A22.4 Moeny, Michael – L36.1, R25.8 McKenna, Chris – M30.5, R14.2 Menesses, Mark – D24.2 Milathianaki, Despina – T1.2, T1.3, Moffatt, Keith – C1.1, R30.4 McKeon, Beverley – A20.2 Meneveau, Charles – E28.4 R2.11 Moghadam, S.M. Alavi – KP1.122 McKeon, Beverley – M15.9 Meneveau, Charles – L11.9 Miles, Christopher – A16.8 Mohaghar, Mohammad – L4.2, McKeon, Beverley – E19.1 Meneveau, Charles – L12.1 Milewski, Paul – M33.3 E39.3, KP1.12 McKeon, Beverley – H22.3 Meneveau, Charles – L13.3 Miller, Colin – G39.10 Mohaghegh, Fazlolah – A31.4, McKeown, Ryan – L19.7 Meneveau, Charles – L13.6 Miller, Laura – M24.9 A40.3 McKinley, Gareth – R18.7 Meneveau, Charles – L13.9 Miller, Laura – R37.5 Mohagheghian, Shahrouz – R25.4 McKinley, Gareth – R37.1 Meneveau, Charles – L13.11 Miller, Laura – R40.5 Mohamad, Mustafa – D16.10, McKinley, Gareth – D2.3 Meneveau, Charles – L13.4 Miller, Mark – G12.10, H26.8, L35.6 KP1.50

135 Mohamadali, Meysam – D19.10, Morishita, Koji – L22.2 M9.8, R14.2 Narayanan, Vinod – A19.2, D38.2, KP1.45 Morishita, Koji – L22.1 Mullin, Tom – D2.7 R34.6 Mohamed, Mamdouh – R6.9 Morishita, Koji – L20.4 Mumbaraddi, Avinash – R24.6 Narayanaswamy, Venkat – D23.2, Mohamed, Nora – L24.9 Morita, Katsuaki – D14.9, E36.4, Munday, Phillip – G15.9 E27.5 Mohammad Karim, Alireza – R33.8 F1.65, H28.10 Mundis, Nathan – R3.6 Narayanaswamy, Venkateswaran Mohammad Karim, Alireza – D33.3 Morita, Yusuke – DK.11, D2.6 Munier, Nadege – L40.3 – BM.5, M2.5 Mohammadi, Alireza – D17.2, Morize, Cyprien – D3.6, QH.8, Munro, James – NR1.9, L36.5, Narezo-Guzman, Daniela – H11.6 E17.5, R17.2 QZ.7, M12.10 L36.6 Narsimhan, Vivek – R23.10, R13.4 Mohammadmoradi, Peyman – Moroney, Timothy – E33.3, L16.11 Munro, R.J. – A30.4, D26.1 Narteau, Clément – R29.9 KP1.34 Morozov, Alexander – M6.7 Munters, Wim – E24.4, G12.6, Nascentes, Fernanda – R11.4 Mohammadzadeh, Milad – D11.4, Morra, David – A35.6, M15.10 L12.4, L35.5 Nasiri, Farshad – A13.6 M36.9 Morril-Winter, Caleb – H22.1 Munz, Claus-Dieter – E31.1, L8.7, Nasouri, Babak – H25.9 Mohan, Prakash – R19.10 Morrill-Winter, Caleb – L22.5 L8.11 Nasr-Azadani, Mohamad – G13.2, Mohan, Shikhar – G39.5 Morrill-Winter, Caleb – L32.2 Muradoglu, Metin – A12.9 M30.4, M30.7 Mohseni, Kamran – G7.8 Morrill-Winter, Caleb – R22.4 Murai, Yuichi – G19.5, KP1.84 Nass, Karol – G10.10, R2.11 Moin, Parviz – D8.4 Morris, Jeffrey – D2.10 Muramatsu, Akinori – G5.1, H1.9 Nastac, Gabriel – E20.2 Moin, Parviz – L11.8 Morris, Karla – D9.7 Murano, Mayuko – R35.3 Nasto, Alice – L28.2 Moin, Parviz – L2.10 Morris, S. J. S. – M8.10 Mureithi, Njuki – M40.2 Natarajan, Mahesh – A20.9, H38.4 Moin, Parviz – R41.3 Morris, S.J.S. – D10.2 Muriel, Diego F – L14.4 Nath, Saurabh – E36.2, E36.3, Moin, Parviz – R21.11 Morris, Scott – KP1.151 Murison, Julie – D31.7, H1.9 E36.5, G13.2 Moin, Parviz – E6.2 Morris, Stephen – H13.9 Murman, Scott M. – R5.6 Nathan, Graham J. – M2.3, M2.8 Moin, Parviz – D8.8 Morrison, Benjamin – M6.6 Murphy, David – A35.6, G12.4, Nathan, R. – A1.9, R16.5, R16.6 Moin, Parviz – D5.10 Morrison, Benjamin C. – R27.6 M15.10, R 27.2 Naughton, Jonathan – A22.6 Moin, Parviz – D9.8 Morrison, Jonathan – L15.3 Murphy, Elizabeth – G24.9 Nave, Gary – D18.3, D18.1, H27.2 Moin, Parviz – E18.2 Morrison, Jonathan – L15.8 Murphy, Eric – H24.7, R26.2 Nawroth, Janna – H23.10 Moisan, Lionel – R40.8 Morrison, Jonathan – H15.5 Murphy, Kevin – E36.2, V39.9 Nayebzadeh, Arash – KP1.100, Moisy, Frederic – A13.4 Morrison, Jonathan – H17.8 Murphy, Kevin R. – E36.3 M15.8, M21.8 Moisy, Frederic – D13.3 Morrison, Jonathan – G22.8 Murthy, Sandeep – A7.2 Nazareth, Robson – L38.11 Moisy, Frederic – E30.4 Morrison, Jonathan – E17.2 Murthy, Venkatesh – G26.2 Nazockdast, Ehssan – D25.2, L5.6 Moisy, Frederic – E30.5 Morrison, Jonathan – D17.4 Musa, Mirko – R29.5, R26.10 Neal, Douglas – A22.1 Mok, Alexander – H9.3 Morrison, P.J. – L29.6 Musacchio, Stefano – R28.2 Neal, Douglas – R32.6 Mokadam, Nahush – R24.2 Morrison, P.J. – R15.1 Muscutt, Luke – G30.3, R38.5 Neal, Douglas – M27.7 Molaei, Mehdi – R39.9 Morrison, Philip J. – CP12.92, Musta, Mustafa – L19.5 Nedic, Jovan – D21.1, D21.2, Molaei, Mehdi – D25.5 G16.5, TP12.41 Musunuri, Naga – G28.3 M30.6 Momen, Mostafa – E21.6, KP1.148, Morrison, Rebecca – D40.5, R5.9 Musunuri, Naga – A25.3 Nedyalkov, Ivaylo – A24.2, H4.9, L23.6 Morrissette, Jared – E13.4 Mutabazi, Innocent – R30.10 R1.11 Monastero, Marianne – D16.9, Mortazavi, Milad – R25.5 Mutabazi, Innocent – A11.3 Needleman, Daniel – D25.2 R20.2 Morton, Chris – G18.4, M15.4, MYDLARSKI, LAURENT – E27.3 Neitzel, G. Paul – M32.8 Monazami, Reza – M3.2, R26.11 R32.10 Myers, Lucas – KP1.67 Nelson, Nicholas – D5.5, L17.5 Monchaux, Romain – A8.3 Morvan, Thomas – H16.3 Myong, Rho Shin – A12.4, M19.2 Nelson, Rhodri – D11.10, R15.11 Mondragon-Suarez, J.H. – L3.5 Moser, Robert – R19.10 Mysa, Ravi Chaithanya – D18.4, Nemes, Andras – H26.5, L20.3, Mondragon-Suarez, Jose Moser, Robert – R3.11 D18.4, D18.10 M25.9 Humberto – L3.11 Moser, Robert – R5.9 Nepf, Heidi – E17.2, M40.4, M40.9, Mongruel, Anne – E2.3, G35.9 Moser, Robert – D14.9 -- N -- R40.1 Monsalve, Eduardo – L31.6 Moser, Robert – A18.4 N, Rithwik – L5.4 Nepf, Heidi M. – A21.2 Monschke, Jason – G21.3, R4.10 Moser, Robert D. – G22.3 Néel, Baptiste – E13.6 Nepiyushchikh, Zhanna – A24.5 Monsivais, Ian – H8.9 Mostert, Wouter – D39.8, H22.6 Na, Wonhwi – KP1.59 Nepomnyashchy, Alexander – Monsorno, Davide – H2.5, L24.5 Motevaselian, Mohammad Nabi, Saleh – D11.10, H2.4, R10.4 E13.2 Montenegro Johnson, Thomas – Hossein – M9.7 Naccache, Monica – R11.4 Nerenberg, Robert – D24.8 H23.4 Mothe, Anirudh Reddy – M2.5 Nachbin, André – M33.3 Ness, Chris – E2.3 Montenegro-Johnson, Thomas – Motta-Mena, Javier – D28.7 Nachbin, Andre – LL.1, M33.6, Ness, Christopher – A2.2, KP1.146 M23.5, M21.2 Mouhali, Waleed – A18.8, E30.2, M33.7 Neufeld, Jerome – M29.7 Monty, Jason – L32.8 F1.38 Nadeem, Muhammad – R18.9 Neves, Catarina – KP1.28 Monty, Jason – D19.7 Mouterde, Timothée – D34.5 Nadhan, Athrey – M32.4 Nevins, Thomas – A5.1 Monty, Jason – D22.10 Movahed, Pooya – M36.2 Nadiga, Balu – G30.2, G20.3 Ng, Boon Thiam – A7.9 Moon, Byeong-Ui – L11.8, L39.4 Movassat, Mohammad – H14.6, Nadim, Ali – A31.3, G33.1, L15.5 Ng, Chin Hei – D32.2, R28.8 Moore, John – D32.4 R4.5 Nagata, Masato – A17.4, G29.2 Ng, Hoi Dick – F1.26, F1.56, M12.1, Moore, John – L8.10 Mowlavi, Saviz – M17.6, M12.7 Nagatsu, Yuichiro – H18.2 R2.4 Moore, Nick – A27.6, R23.6 Moxey, Dave – KP1.155, L9.8 Nagel, Sidney – A35.2 Nguyen, Baolong – M20.6 Moore, Stephen – A7.5, M26.9 Mozaffari, Ali – D9.8, R39.6 Nagueh, Sherif – R24.9 Nguyen, Frank – A28.7 Moored, Keith – A27.4, A27.5, Mozaffari, Farshad – D15.9 Naguib, Ahmed – M28.7 Nguyen, Hoa – F1.9, R39.12 D7.10, D26.9, G27.8, H5.1 Muangnapoh, Tanyakorn – H9.7, Naguib, Ahmed – D17.4 Nguyen, Hoang-Ngan – A23.8 Moored, Keith W. – A26.6 R16.9 Naguib, Ahmed – E15.2 Nguyen, Khuong – E21.3, L27.3 Moosavi, Robabeh – H1.9 Mudbhari, Durlav – A27.5 Naguib, Ahmed – D27.1 Nguyen, Kim Anh – A24.9 Mora, Pablo – D24.1, G38.1 Mueller, Michael – A20.8, A34.7, Naik, Sameer – D5.8 Nguyen, Quoc – D21.10, G22.8 Moradi, Momene – M26.1 A39.8, H34.1, M27.8 Naik, Shibabrat – A29.8, G35.10 Nguyen, Rose – M5.9 Moran, Alexis – KP1.166 Mueller, Michael E. – A39.3, Nair, Aditya – H29.4 Nguyen, Thanh-Binh – KP1.61 Moran, Brian – KP2.18 G39.8, H6.4, H6.6, M2.3, M2.8, Nair, Aditya – H29.8 Nguyen, Thanh-Vinh – A31.6, Moran, Jeffrey – H14.1, H14.2, R6.1 Nair, Vineet – G13.4 D13.2 H10.8, R10.10 Mueller, Peter – H25.5 Nakajima, Takehiro – KP1.40 Nguyen, Trong – R13.9 Moran-Lopez, Tiberius – D39.4 Mugele, Frieder – G31.1 Nakamura, Kenta – KP1.21 Ni, Angxiu – H16.5 Morciano, Matteo – M9.5 Mugele, Frieder – G31.2 Nakanishi, Hiroaki – M22.7 Ni, Qionglin – D20.7, E28.1 Mordant, Nicolas – L31.4, M19.8 Mugele, Frieder – G31.10 Nam, Jin – G32.5, F44.13 Ni, Rui – D1.2 Moreau, Christian – R27.12 Mughal, Shahid – D38.7, H17.7 Nama, Nitesh – KP1.117, R4.6 Niazi, Mehdi – H3.2 Moreau, Eric – FT3.5, D16.2 Mukherjee, Debanjan – H7.3, Nandakumar, Krishnaswamy – Niceno, Bojan – R35.6 Morgan, Brandon – KP1.94, L17.6, M25.5 JA.3, M7.8 Nichols, Joseph – D24.5, D24.9, L21.4 Mukhopadhyay, Shomeek – H1.2 Nandyala, Dhiraj – D33.5 E6.2, E26.2, G15.6, L27.3 Morgan, Jennifer – D26.5 Mullen, Jon – E26.5 Nangia, Nishant – R38.4 Nichols, Joseph W. – A29.4, Morgan, Rachel – A8.9 Mulleners, Karen – D28.6 Nania, Manuela – G18.4 A29.8, H38.1, H38.2, H38.3, Morgans, Aimee – A7.6, A20.3, Mulleners, Karen – L16.5 Napolitano, Michele – H16.4 L9.4 D17.9, D17.10, R12.9 Mulleners, Karen – L16.4 Narasimha, Roddam – E8.5 Nickels, Adam – A29.9, M19.7 Moriconi, Luca – E25.4, R15.7 Mulleners, Karen – R13.4 Narayanan, Kiran – KP2.18 Nicolaou, Laura – G25.9, M7.4 Morikawa, Kyojiro – KP1.69 Mulleners, Karen – R13.5 Narayanan, Ranga – KP2.5 Nicolaou, Zachary – R16.2 Morimoto, Kenichi – M11.8 Mulleners, Karen – R13.6 Narayanan, Ranga – L18.4 Nielsen, Eric – D8.7 Morishita, Koji – R21.1 Muller, Caroline – L29.5 Narayanan, Ranga – A31.7 Nielsen, Lasse Tor – D18.5, H25.4 Morishita, Koji – R20.9 Muller, Erich – E33.4, H7.3, H10.2, Niemela, Joseph – L41.4

136 Niemela, Joseph – L11.1 Odesanya, Azeez – M35.6 Ortega-Casanova, Joaquin – Palmer, Emily – KP1.28 Nieves, David – A30.1, G2.5 Odier, Philippe – A30.8 AR.1, L16.3 Palmore, John – E5.2, H27.7 Nigues, Antoine – E11.3 Odier, Philippe – L30.1 Orthey, Perry – A24.2 Palocios, Rafael – L14.8 Nik, Medhi B. – D5.5 Oettinger, David – A29.4, D17.9 Ortiz, Sabine – L29.10, L10.8, M1.2 Pan, Chong – M14.10 Nika, Grigor – H2.2 Ogden, Kelly – D30.8, R1.2 Ortiz-Rivera, Isamar – R9.4 Pan, Shaowu – D20.5 Nikakhtari, Zahra – G24.2 Ogrosky, H. Reed – A9.4, G18.8 Osaki, Taichi – D4.1, KP1.37, L37.2 Pan, Tsorng-Whay – E24.1, R13.9 Nikiforakis, Nikolaos – R2.4 Oh, Jeong Su – A33.3 Oshima, Emile – A26.7 Pan, Wenxiao – E9.4, M5.9 Nikolaidis, Marios – R20.10 Oh, Sehyeong – L27.11 Oshiyama, Daisuke – A15.4 Pan, Ying – G8.10, KP1.35, M40.9 Nikora, Vladimir – R29.3 Oh, Seungyoung – L27.11 Osterroth, S. – L1.4 Pan, Yulin – A13.8 Nikoueeyan, Pourya – A22.6 Ohl, Claus Dieter – H35.4 Ostilla Mónico, Rodolfo – G11.7 Pan, Zhao – D31.8, E4.5, E11.6, Nikurashin, Maxim – L29.1, L30.10 Ohl, Claus-Dieter – A4.3, D4.10, Ostilla Monico, Rodolfo – H20.5 L33.7, M32.10, M35.1 Nini, Michele – L8.9 D34.3, H4.1, H4.9, H14.8, H36.6, Ostilla-Mónico, Rodolfo – M11.1 Panayotaros, Panayotis – E29.3 Ninomiya, Takahiro – F1.41, R28.9 H36.8, L37.3, M36.9, M36.10 Ostilla-Monico, Rodolfo – E25.1, Panchagnula, Mahesh – A31.9, Niroobakhsh, Zahra – G18.10 Ohta, Ryoichi – E11.6 H20.4, L32.1, L32.3, R16.4, D6.5, D22.4, H10.7, M11.7, R22.2 Nishikawa, Masato – H18.4 OI, Yuto – KP2.24, M35.9 R16.11 Panchapakesan, Nagangudy – Nishio, Yu – A21.9, D38.1, D21.5, Oishi, Jeffrey – M31.5, R30.8 Osusky, Michal – E8.4 E9.2, H31.6, R3.4 D21.8, M21.6 Oka, Tomonari – D38.1 Otero, J. Javier – G15.5 Panda, Satyananda – EY.1, L28.12 Nita, Bogdan – 1A.37, KP2.12 Okamoto, Sachiya – M22.10 Otte, Martin – E21.3, L27.3 Pandey, Anshuman – M27.2 Nita, Satoshi – G31.4, R14.8 Okino, Shinya – D13.8, D23.6 Oualli, H. – G15.2, G15.7, H20.1, Pandian, Arun – GO5.12, L17.9 Nithianantham, Ajithshanthar – Okumura, Ko – R35.3 R12.2 Pandit, Rahul – M22.9 D21.5 Okumura, Ko – D10.6 Ouellet, Frederick – K4.4, D39.9 Pandolfino, John E. – G26.9 Nitzkorski, Zane – D7.2, D7.3, Okuno, Yuta – F2.28, KP2.34 Ouellette, Nicholas – A29.1 Panizza, Pascal – J1.237, N21.8, H21.7 OL, Michael – A17.6 Ouellette, Nicholas – M19.3 R36.8 Niu, Xiting – D19.4, E24.1 Ol, Michael – E15.6 Ouellette, Nick – R29.1 Pant, Sarbottam – G10.10 Nix, Stephanie – H19.3, R23.9 Olander, Jeffrey – G18.8 Overmars, Edwin – A19.1 Pantano, Carlos – R7.6 Noack, Bernd – H29.10 Olcum, Selim – G8.3, X29.15 Owaga, Shunichi – L23.1 Pantano, Carlos – R7.5 Noack, Bernd – M27.8 Olinger, David – GC.8, D14.4 Oweis, Ghanem F. – E27.4, M21.10 Pantano, Carlos – R22.10 Noack, Bernd R. – M27.9 Oliphant, Kerry – A14.6, A24.3 Owen, Drew – KP2.13, G43.2, Pantano, Carlos – L2.9 Noble, David – H39.10 Oliveira, Maria Luisa Bambozzi de R9.7 Pantano, Carlos – H21.4 Noca, Flavio – A17.9, E30.6 – KP1.46 Owkes, Mark – E9.5 Panton, Ronald – D22.1 Noel, Alexis – E1.2, G26.5 Oliver, James – A7.6, A33.7, H1.9 Owkes, Mark – L5.8 Paolucci, Samuel – L17.10 Noest, Robert – B47.4, L27.2 Oliver, Todd – D14.9, L27.4, R5.9 Owkes, Mark – H7.7 Papadakis, George – A20.2, Noguchi, Yuto – 1A.19, KP2.27 Olivier, Doaré – M13.7 Owkes, Mark – L38.12 M20.3, M20.9, R32.8, R20.1 Nokes, Roger – M30.1, R28.5 Olivieri, Stefano – A15.1, R27.10 Owolabi, Bayode – G22.4 Papadopoulos, Periklis – D33.2, Nold, Andreas – H28.6 Olles, Joseph – C3.2, D32.8 Oyarte Gálvez, Loreto – R12.7 J51.9 Nold, Andreas – M9.5 Olmstead, Dell – H4.4, E39.1, Oyarzua, Elton – G9.4, G9.5, Papageorge, Michael – A22.5 Nold, Andreas – R33.3 E39.2 M9.3, L36.11 Papageorgiou, Demetrios – L18.7 Nold, Andreas – R33.12 Olsen, Michael G. – D9.4, H20.8 öz, Sören – R13.4 Papageorgiou, Demetrios – L18.8 Nold, Andreas – R33.9 Olson, Britton – D39.6 Oza, Anand – A23.1 Papageorgiou, Demetrios – H8.7 Nomura, Keiko – H19.7 Olson, Britton – KP1.94 Oza, Anand – G27.5 Papageorgiou, Demetrios – E17.3 Noonan, John – J12.8, M32.3 Olson, Britton – L8.1 Oza, Anand – M33.8 Papageorgiou, Demetrios – A19.4 Nordsiek, Freja – L10.9, T44.5 Olson, David – M28.7 Oza, Anand – M33.9 Papageorgiou, Demetrios – G18.3 Norton, Michael – H36.4 Olson, Peter – M29.2, L22.11, Oza, Anand – M33.5 Papageorgiou, Demetrios T. – Nott, Prabhu – M12.2 R30.4 Oza, Anand – M33.6 R16.10 Nourgaliev, Robert – FG.10, GB.4, Olson, Sarah – A23.4, A23.8, Ozgen, Alp – E6.6 Papalexandris, Miltiadis – H5.3 KB.4, D9.9, G7.7, L8.8 M23.10, R39.7, S29.5 Ozturk, Mesude – KP1.15 Papalexandris, Miltiadis V. – D1.1, Nouri Gheimassi, Arash – R3.2 Olsthoorn, Jason – L18.8, R28.6 H2.5 Novati, Guido – G27.4, G27.7 Omari, Dennis – E18.1 -- P -- Papavassiliou, Dimitrios – D21.10 Nowak, Emilia – E10.4, G10.5, Omidyeganeh, Mohammad – P. Gosselin, Frederick – R1.8 Papavassiliou, Dimitrios – E14.2 KP1.88, L35.7 R40.9 P. Vlachos, Pavlos – G5.5 Papavassiliou, Dimitrios – G1.10 Nozu, Tsuyoshi – A21.4, L25.5 Omidyeganeh, Mohammad – Pabon, Rommel – D26.1, E19.6 Papavassiliou, Dimitrios – KP1.15 Nugroho, Fahrudin – D15.9, R10.3 A15.3 Paci, Alexandre – L29.8, M5.10 Paquier, Anna – A13.4, D13.3 Numata, Daiju – A15.4, WF1.5 Omori, Toshihiro – H23.2, L16.5, Pack, Min – F1.66, G32.8, G33.2, Parau, Emilian – G29.1, H31.10 Nunes, Janine – A7.1, L39.5 L16.9, L18.9 M2.6 Paredes, Ruben – H13.4 Nunes, Janine K – G10.3 ó Náraigh, Lennon – M16.6 Padberg-Gehle, Kathrin – A20.5 Parimalanathan, Senthil Kumar – Nunes, Janine K. – E10.5 Ong, Christopher – KP2.15 Padding, Johan – A12.8, L10.5, H13.8 Nunna, Bharath Babu – KP1.116, Onishi, Keiji – A21.4, L25.5 M24.2 Parish, Eric – F2.3, R3.12 M1.4 Onorato, Miguel – H31.8, H33.9 Padhani, Shahid – G5.6 Park, Chang Seok – A32.6 Nunno, A. Cody – G39.8 Onoue, Kyohei – M15.2, R36.1 Padovan, Roberta – A14.9 Park, Doohyun – F1.34, KP1.150 Nurwantoro, Pekik – R10.3 Onuki, Hajime – KP2.24, M35.9 Padrino, Juan – LK.5, G7.5 Park, George – L2.10 Nya, Loïc – E13.1 Ooi, Andrew – A11.6 Padrino, Juan C. – A3.4, G1.5 Park, George I. – R21.11 Ooi, Andrew – R22.3 Page, Jacob – D1.8, G10.6, R16.4 Park, Hanwook – L24.4 -- O -- Ooi, Andrew – M26.9 Pagneux, Vincent – D13.4, L31.6, Park, Hyun – H15.2, R25.5 O’Brien, Jeff – D5.5 Ooi, Andrew – M24.3 M27.5, M30.4, R31.9 Park, Hyun Jin – AN.10, KP1.84 O’Brien, Jeffrey – D5.9, G20.9, Ooi, Andrew – A19.9 Pagonabarraga, Ignacio – E10.6 Park, Hyungmin – L27.10 H38.10 Ooi, Andrew – G22.2 Pahlavan, Amir – A1.7, R14.11 Park, Hyungmin – L27.11 O’Connor, Joan – D23.10 Oostenrijk, Bart – L4.3 Pahlevan, Niema – D7.6, L24.12 Park, Hyungmin – M22.5 O’Hern, Corey – R29.1 Opadrishta, Harish – E22.3 Pain, Chris – A35.8, D9.1, H7.1, Park, Hyunwook – J4.7, K1.129, O’Hern, Sean – E15.1, H9.6 Opher, Merav – A8.9 R4.1 H15.7 O’Hern, T.J. – M36.7, R1.6 Or, Yizhar – L25.5, L17.9, R17.10 Pain, Christopher – G7.1 Park, Jae Sung – M6.9 O’Keeffe, Niall – A1.3 Oran, Elaine – A6.7 Paiola, Johan – E12.3 Park, Joonsik – A7.9, A32.2 O’Neill, Charles – E16.4 Oran, Elaine – E6.3 Pak, On Shun – H23.6 Park, Jung Su – A33.3 O’Rear, Edgar – KP1.15 Oran, Elaine – M2.9 Pak, On Shun – E24.5 Park, Junho – G16.3, L32.9 Oakes, Jessica – KP1.23, L18.8 Oran, Elaine – R2.10 Pak, On Shun – D15.6 Park, Keunhwan – A25.8, KP1.24, Oakley, India – A15.8 Oran, Elaine S. – E6.6 Pak, On Shun – L26.4 M7.8 Oakley, Jason – KP1.97 Oratis, Alexandros – A24.3 Paksereht, Pedram – D3.4 Park, Kyeong – M22.8, R26.3 Oakley, Jason – L17.12 Ordu, Mustafa – D31.10 Pal, Anikesh – A27.7, D30.10 Park, Sangro – A3.2, H19.3 Obabko, Aleksandr – M1.1 Orlandi, Paolo – L7.12 Pal, Nairita – M22.9 Park, Sera – KP1.59 Oberai, Assad – R3.8 Orlandi, Paolo – L22.3 Pal, Pinaki – G40.5 Park, Seung-Bu – KP1.49 Oberai, Assad – E23.6 Orlandi, Paolo – A20.3 Palacci, Jeremie – L25.1 Park, Sinwook – G14.1 Oberlack, Martin – A32.5, H25.8, Orlicz, Greg – H3.1, R28.5 Palacci, Jeremie – L39.8 Park, Sinwook – G14.2 R20.3, R20.7 Orlu, Ramis – D17.3 Palaniappan, D. – A16.9 Park, Sung Goon – E23.5, G27.6, Oberlander, Andrew – A36.1, F2.14 Orpe, Ashish – D6.3 Palies, Paul – H39.3 L6.5, L12.5 Oberleithner, Kilian – E22.6, Orpe, Ashish – H10.8 Paliwal, Nikhil – M26.6 Park, Yong Seok – A33.3 G36.1, G36.2, H29.5, M34.2 Orpe, Ashish – M3.9 Pallantla, Ravi Kumar – D29.2, Park, Young-Gil – KP1.27, Q49.12 Obligado, M. – M20.8 Ortega, Jason – L23.10 M32.8, M32.9 Park, Yun Sung – KP1.66

137 Parker, Colin – H12.7 Peng, Gunnar – D11.1, H2.2, Pineirua, Miguel – J52.8, R38.3 Pothos, Stamatios – L32.3, M20.7 Parkman, Henry – A24.2 H32.7, L22.6 Pinelli, Alfredo – A15.3, M13.10, Potts, Ian – L2.1 Parks, Mike – E9.4 Peng, Shuhua – A31.2, A31.4 R40.9 Poulain, Cedric – G8.9 Parlange, Marc – E20.6 Peng, Yan – K1.93, R23.7, L42.9 Piomelli, Ugo – E22.4 Poulain, Stephane – L36.2 Parlange, Marc – M4.4 Peng, Zhangli – E24.5 Piomelli, Ugo – E22.2 Poulichet, Vincent – G36.10, L2.2 Parlier, Yves – M13.4 Peng, Zhiwei – L26.4 Piomelli, Ugo – R22.5 Poulikakos, Dimos – A13.8, D13.7, Parmentier, Philippe – M18.10, Pennathur, Sumita – G14.8 Piomelli, Ugo – A22.3 H33.6 R15.4 Pennathur, Sumita – H9.10 Pipinos, Iraklis – A8.6, L26.9 Poulikakos, Lily – H1.10 Parras, Luis – D38.5 Pennrice, Matt – H31.6 Pirat, Christophe – G35.2, H14.4, Pouliopoulos, Antonis – M36.1 Parry, Andrew O. – M8.9 Pepona, Marianna – G6.1 H33.8 Pouliquen, Olivier – A2.1, D2.4 Parry, Samantha – A25.7 Peppa, Sofia – A18.1, EP.6 Piroozram, Parastoo – KP1.129, Pouransari, Hadi – D32.1, D32.2, Parsa, Shima – E1.4 Pepper, Rachel – R39.1 L26.6 D32.3, D32.4, M7.3 Partida, Ramon – KP1.21 Peralta Lopez, Salomon – Pirozzoli, Sergio – L22.3 Pourazarm, Pariya – E23.4, Partl, Manfred – H1.10 KP1.168, KP1.169 Pirozzoli, Sergio – L7.12 G21.10 Partridge, Jamie – L4.2, L19.6 Perazzo, Antonio – G10.3 Pirozzoli, Sergio – A20.3 Pourdeyhimi, Behnam – B15.7, Partridge, Jamie L. – L30.3 Perazzo, Carlos A. – E33.5 Pisciuneri, Patrick – M7.6, R31.1 H9.4 Parussini, Lucia – R5.1 Percival, James – A3.9, G7.1, Pitt, Jonathan – L6.6, M5.4 Pouya, Shahram – E27.1, G29.2 Pascazio, Giuseppe – H16.4 G10.5, L33.7, L33.11, M22.8, Pittaluga, Chiara – A14.9 Povall, Timothy – M12.3 Paschereit, C. Oliver – H29.5 R33.1, R35.9 Pivkin, Igor – R4.8 Powers, Joseph – R7.1 Passaggia, Pierre-Yves – A11.4, Perdikaris, Paris – L24.3, L7.8, Pivkin, Igor – R4.9 Powers, Thomas – M23.3 L29.9 R5.1 Pizzo, Nicholas – H30.6, L31.7, Pradas, Marc – M16.3 Passalacqua, Alberto – GU.6, Perego, Mauro – E9.4 L16.7 Pradas, Marc – L18.10 GU.8, D9.4 Perena, Angel – A36.8 Platt, John D. – M29.4 Pradas, Marc – E17.3 Patankar, Neelesh – D26.3 Perez del Villar, C. – R24.1 Plesniak, Michael – L8.2 Pradhan, Sahadev – H40.10, Patankar, Neelesh – R38.4 Perez-Calleja, Patricia – D24.8 Plesniak, Michael W – H24.1, KP1.162 Patankar, Neelesh A. – G26.9 Perez-Espejel, Diana – R32.3 M39.1 Pradillo, Gerardo – A36.1 Patel, Amar – M23.6 Perfect, Bradley – A13.3 Plesniak, Michael W. – D16.1, Prahl Wittberg, Lisa – D8.10, Patel, Anand – M26.7 Perlekar, Prasad – R28.2 D16.2, D16.3, D32.7, G18.6 D16.9, D32.3, R24.3 Patel, Harsh – G28.3 Perlekar, Prasad – M22.9 Plimpton, Steven – B13.4, D40.6 Prakash, K. Arul – A15.2 Patel, Namu – H5.10 Perlekar, Prasad – L2.3 Plouraboue, Franck – A23.3 Prakash, Manu – L40.6 Patel, Ravi – KP1.120 Perlin, Marc – E14.1 Plouraboué, Franck – G23.3 Prakash, Manu – E33.6 Paterna, Enrico – A21.9 Perlin, Marc – R18.3 Plumley, Meredith – A30.2 Prakash, Manu – A28.3 Pathak, Ashish – E9.6, H16.4, Perlin, Marc – R22.8 Plummer, Abigail – R30.7 Prakash, Manu – A32.9 M7.5 Perocco, Enrico – A19.5 Poesio, Pietro – D30.4, M8.3, prakash, vivekn – L20.8 Pathikonda, Gokul – M19.10 Perol, Thibaut – M29.4 M9.8, L22.4, R27.9 Pramanik, Satyajit – H18.9, M9.4 Patnaik, B.S.V. – EJ.2, EJ.9, G7.4, Perot, Blair – L40.11 Pogorelov, Alexej – E8.2 Praprotnik, M. – G9.1, L36.10 L15.6, M25.8 Perot, J. Blair – D21.6, M19.1 Pohlman, Nicholas – L10.10, Prasad, Vishnu – R32.5 Patterson, Colin – H33.5 Perrard, Stéphane – M20.4 L24.10 Prasser, Horst-Michael – R35.6 Patteson, Alison – D23.2, L26.2, Perrotta, Gino – M30.7, R13.2 Pohlman, Nicholas A. – A14.8, Pratama, Ryan – R10.3 Q49.1 Perry, Bruce A. – H6.4, H6.6 F1.105, H4.8, M32.5 Praturi, Divya Sri – G16.7 Patwary, Jahin – R4.7 Pesci, Adriana – H25.1 Poirault-Chassac, Sonia – A24.9 Praud, Olivier – A6.2, G23.3 Patyal, Advitya – E5.6 Petelina, Nina – D26.6 Polagye, Brian – A13.3, D14.5, Premlata, Amarnath – A32.4 Paul, Immanuvel – M20.3 Peter, Emanuel – R4.8, R4.9 R1.5, R1.12 Premnath, Kannan Nandha – A4.7 Paul, Mark – M5.7 Peters, Frank – A12.8 Polanco, Juan Ignacio – A18.6 Preston, C. – L1.4 Paul, Mark – G8.1 Peters, Nathan – G40.10 Polavarapu, Rinosh – A22.3, Prestridge, Katherine – E3.4 Paul, Mark – D11.9 Peters, Norbert – D21.4 D40.2 Prestridge, Katherine – H3.1 Pauley, Laura – A13.1, E16.2 Petersen, Alec – L20.7, J17.4, Poliakoff, David – D9.7, W26.5 Prestridge, Kathy – D39.2 Paulsen, Joseph D. – H32.2 J17.5 Polizzi, Stefano – KP1.99 Prestridge, Kathy – D39.3 Pavlidis, Dimitrios – H7.1 Petersen, Mark – L17.3, M11.4 Pollard, Beau – D26.7 Prestridge, Kathy – L21.3 Pavlidis, Dimitrios – G7.1 Peterson, Bonnie – G30.6 Pollock-Muskin, Halley – L24.9 Prevost, Richard – A22.1, R32.6, Pavliotis, Grigorios – A9.2, E17.3, Peterson, C.J. – A17.1 Poludnenko, Alexei – G39.9 M35.1 H35.8, L18.8, R10.6 Peterson, Sean D. – H19.6, L19.10, Poludnenko, Alexei – D5.9 Pringuey, Thibault – M18.5 Peacock, Thomas – A29.6 R32.7 Poludnenko, Alexei – D20.9 Prisco, Anthony – R24.2 Peacock, Thomas – M3.4 Petitjeans, Philippe – D13.4, L31.6, Pomalégni, Gisele – M10.4 Pritchard, David – L28.10 Peacock, Thomas – M31.10 M27.5, M30.4 Pommella, Angelo – A4.9, H36.3, Priya, Shashank – R37.4 Peairs, Evan – M6.6 Petitjeans, Phillipe – R31.9 M36.1 Probst, Patrick – KP1.118 Pealatere, Roseanna – M24.8 Petrin, Christopher – H27.3 Poncet, Sebastien – A23.7 Proment, Davide – E25.3 Pearce, Jennifer – G1.5, M9.2 Petronio, Andrea – A14.9 Pond, Ian – L26.10, R7.3, R20.8 Prosperetti, Andrea – D31.7 Pearlstein, Arne J. – A18.2, M29.8 Petrosyan, Arakel – A8.5 Ponomarenko, Alexandre – E36.1, Prosperetti, Andrea – G3.4 Pearson, Brodie – G30.8 Pettit, Donald – L28.4, M8.1, R16.6 W28.1 Prosperetti, Andrea – M35.5 Peaudecerf, Francois J. – M35.2, Pettit, Donald R. – A36.4 Poole, Robert – A1.3, D12.7, Prosperetti, Andrea – A4.5 R18.1 Petty, Charles – D25.10, G20.5 D26.9, E27.3, G22.4, G33.4 Prost, Victor – M33.2 Pecenak, Zachary – D8.2, D8.8, Petty, David – H21.4, L22.1 Poon, Eric – A7.5, M24.3, M26.9 Protas, Bartosz – M14.8 G3.1 PEYLA, Philippe – A23.3 Poon, Wilson – E2.3 Protas, Bartosz – L19.1 Peerhossaini, Hassan – D25.6 Peyrounette, Myriam – H24.2, Popadic, A. – G9.1, L36.10 Protiere, Suzie – G32.3 Peerhossaini, Hassan – D32.6 KP1.20 Pope, Audrey M. – KP2.30 Prud’homme, Robert K. – E10.5, Peet, Yulia – H11.7, H19.4 Pham, Hieu – M30.8 Pope, Stephen – R41.6 D43.13 Pei, Suyang – L30.2 Pham, Ngoc – G1.10 Popinet, Stéphane – E9.3 Pruett, Brian – K4.2, D4.2, L21.2 Pei, Suyang – R30.2 Pham, Sang Van – H9.9 Popinet, Stephane – H30.8, H32.2, Pucci, Giuseppe – D12.2, G16.4, Peinke, Joachim – L32.5 Philip, Jimmy – G22.2 KP1.115, L16.6 H33.3, L35.6 Peinke, Joachim – D28.9 Philip, Jimmy – D22.6 Popov, Pavel – D5.7, KP1.141, Puczylowski, Jaroslaw – D29.1, Peinke, Joachim – E28.5 Philip, Jimmy – A11.9 R21.12 L32.5 Peinke, Joachim – D28.3 Philip, Jimmy – L22.5 Popova, Marinela – G13.6, H9.4 Puente-Velazquez, J. Amadeus – Peixinho, Jorge – H1.2, R14.4, Philipp, Jenna – L9.3 Porfirio, Tiago – G35.3 L25.9 R34.9 Phillips, Michael – D4.7, F22.2 Poroseva, Svetlana V. – R5.6 Puga, Alejandro – D25.5, G28.10, Pelanti, Marica – G7.10 Picano, Francesco – D3.1, G1.4, Porté-Agel, Fernando – L4.12 M20.6 Pelcovits, Robert – A28.5 Q46.11 Porta, David – D7.1 Pullin, Dale – H40.2 Pell, Susan – A25.3, M9.6 Picardo, Jason – M17.8, G34.1 Porte, Elze – L10.12 Pullin, Dale – D39.8 Peltier, Richard – L30.10 Pichard, Helene – R31.9 Porte-Agel, Fernando – L12.6 Pullin, Dale – A8.7 Peltier, W. R. – L30.7 Pidaparti, Sandeep – R25.2 Porte-Agel, Fernando – L13.9 Pullin, Dale – A8.8 Peltier, W. Richard – L30.6 Piedra, Saul – R36.2 Porté-Agel, Fernando – L11.11, Pullin, Dale – R3.3 Pelton, Matthew – A12.5 Pier, BenoIt – G17.2 L12.12 Pumir, Alain – R19.4 Pena, Carlos – A31.8 Pier, Benoit – G17.3, R32.5 Portsmore, Merredith – H4.2 Pumir, Alain – L3.1 Peng, Cheng – A4.1, E22.3, Pierre, Thiery – KP1.85 Portwood, Gavin – A30.7 Pumir, Alain – G20.4 1B.59, R21.3, R21.6 Pierson, Jean-Lou – G33.5 Posa, Antonio – A27.7, H30.2, Purri, Matt – L40.12 Pikus, Aaron – H40.9 L9.9, R25.8 Pushpavanam, S – M17.8 Puzinauskas, Paul – 1A.12, L33.5 138 -- Q -- Raman, Venkat – A39.8 Reese, Jason – G11.8, M9.1, Risso, Frederic – L35.4 Qadri, Ubaid – D21.10, H37.8 Raman, Venkat – E6.4 M36.5 Ristenpart, William – A10.4, D5.6, Qamar, Adnan – L30.4, M36.8 Raman, Venkat – D20.6 Regan, Marc – A22.8 D5.8, G31.7, H13.9, H13.10, Qamar, Nader H. – M2.3 Raman, Venkat – A39.2 Regele, Jonathan – H7.9 L22.4, M7.3, R23.4, R3.5, R3.6 Qi, Liu – E11.5 Raman, Venkat – H6.7 Regele, Jonathan – H7.10 Ristorcelli, Raymond – H20.10, Qi, Qin M. – R23.10 Ramananarivo, Sophie – A27.3 Regele, Jonathan – G40.4 H28.5 Qi, Yusheng – R31.12 Ramananarivo, Sophie – G27.5 Regele, Jonathan D. – A3.8, D4.7, Ristroph, Leif – A27.3 Qian, Yuzhou – G23.5 Ramananarivo, Sophie – A27.2 E19.6, H35.2, M24.8, M34.7 Ristroph, Leif – A27.2 Qiao, Rui – KP1.68 Ramaprabhu, Praveen – D40.9 Reger, Robert – A29.9, M19.7 Ristroph, Leif – G27.5 Qin, Boyang – D12.6, R8.7 Ramaprabhu, Praveen – D39.5 Regli, Marianne – L28.2 Ristroph, Leif – L39.8 Qin, Suyang – L19.8, L19.12, M14.3 Ramaprabhu, Praveen – E39.6 Reich, David – D10.3, E16.1, R14.9 Ritos, Konstantinos – M9.1, R6.1 Qin, Tongran – G18.1, G16.1 Ramaprabhu, Praveen – KP1.93 Reichert, Benjamin – L38.3 Rival, David – D16.1 Qiu, Shi – G35.9, R40.11 Ramaprabhu, Praveen – M2.7 Reidenbach, Matthew – G24.9 Rival, David – L19.3 Qiu, Songgang – D14.10, D19.9, Ramaprabhu, Praveen – M18.3 Reigh, Shang-Yik – A28.6 Rival, David – L19.4 M35.5, R10.5 Ramaswamy, Meera – E2.5 Reijers, Sten – D32.10 Rival, David – R38.7 Qu, Xiaopeng – A31.5, D34.1, Ramaswamy, Sriram – H2.8 Reilly, David – E39.3 Rivas, Nicolas – R12.10 H32.4 Ramchandran, Arun – D10.3, Reilly, David – KP1.12 Rivera, Aramis – R39.10 Qu, Zijie – A28.1 M8.2, R 27.7 Reinbacher, Fynn – G40.4 Rivera, Gustavo – R29.2, R17.11 Quéré, David – M13.4 Ramesh, Kiran – E15.1 Reinhartz, Olaf – M24.2 Rivetti, Marco – D34.7 Quadros, Russell – KP1.43 Ramesh, O – LU.8 Reinten, Hans – AH.5, L35.8 Rivière, Nicolas – M40.6 Quaife, Bryan – E24.3, G1.2, Ramesh, O. – M21.5 Reis, Pedro – A27.9 Rizzo, Karl-Joseph – L14.3 KP1.17 Ramesh, O.N. – G18.2, G27.4, Reis, Pedro – G13.10 Roberts, Karen – A21.6 Quang, Tran Si Bui – E11.5 R6.3 Reis, Pedro – R39.4 Robey, Harry – BO4.1, CI3.2, Quaranta, Greta – H25.2 Ramirez-Pastran, Jesus – E20.5, Reis, Pedro – A25.6 GO5.13, JO4.3, YP12.4, KP1.92 Quataert, Eliot – M31.5 KP1.83 Reis, Pedro M. – M18.8 Robin, Antoine – G9.8 Quere, David – R31.10 Ramkrishnan, Aruna – H18.1 Rekos, John – H32.1 Robison, Bruce – L33.10 Quere, David – R36.4 Ramos, Eduardo – R36.2 Remington, Bruce – KP1.92 Robisson, Agathe – D2.3 Quere, David – H33.2 Ramos, Laurence – A32.8 Ren, Jie – A6.1 Roché, Matthieu – E13.1 Quere, David – D31.9 Ramsey, Scott – E4.1, E4.3 Ren, Jie – D6.2 Rockwell, Donald – R14.3 Quéré, David – D34.5 Ramudu, Eshwan – M29.2 Ren, Jing – L27.8 Rockwell, Donald – R14.2 Qui, Zhanlong – H32.2 Rana, Chinar – H18.10, M9.5 Ren, Yan – H27.8 Rockwood, Matthew – G19.9, Quibeuf, Guillaume – M12.10 Rana, Verinder – JO4.14, M18.4 Ren, Yan – A26.5 G18.5 Quintard, Michel – H24.2 Randall, Greg – KP2.23 Ren, Zhuyin – G39.7 Rodenborn, Bruce – R30.5 Quintela, Julio – M33.2 Randall, Greg – E37.5 Renaudiere de Vaux, Sebastien – Rodrigues, Neil – G10.5, H36.6, Quirk, James – E4.2, Q5.5 Randles, Amanda – KP1.21 A8.4 R29.12 Qureshi, Muhammad Umar – Rani, Sarma – M4.2 Rendon, Pablo Luis – D7.1 Rodrigues, Neil S – H5.4 H24.6 Rani, Sarma – A7.7 Rengaswamy, Raghunathan – Rodriguez, Daniel – G17.8, M18.2, Rani, Vijaya Krishna – A7.7, G20.3 A15.5, E35.6 M18.3 -- R -- Ranjan, Devesh – KP1.12 Restelli, Marco – L8.9 Rodriguez, Mauro – M4.3, R36.3 Raayai, Shabnam – E14.6 Ranjan, Devesh – KP1.76 Retamal, M. – KP1.90 Rodriguez, Steven N. – D28.5 Rabaud, Marc – A13.4, D13.3, Ranjan, Devesh – D40.4 Retter, Jonathan – A5.4, A5.9 Rodriguez Lopez, Eduardo – D19.4 D16.4, R29.10 Ranjan, Devesh – E39.4 Retterer, Scott – E36.3 Rodriguez-Rivero, Cristina – G13.2 Rabault, Jean – L15.2 Ranjan, Devesh – E39.3 Retterer, Scott – E36.2 Rodriguez-Rodriguez, Javier – Raby, Alison – R31.7 Ranjan, Devesh – KP2.4 Retterer, Scott – D34.1 L36.8 Radcliff, Thomas – KP1.41, L4.1 Ranjan, Devesh – R25.2 Reuter, Christopher – H39.7 Rodríguez-Rodríguez, Javier – Raddatz, Andrew – L26.10 Ranjan, Prateek – A21.2 Reuther, Nico – D19.9, L22.4 H13.3 Radespiel, Rolf – H37.6 Ranjan, Pritanshu – L11.5 Rewakowicz, Ana – H32.10 Roesler, Bernard – H12.9, M35.9 Radhakrishna, T.G. – M17.8 Ranjan, Rajesh – E8.5, L34.8 Reyssat, Etienne – D21.13, G4.5, Roffin, Maria Chiara – G23.7 Radulescu, Matei – R12.2 Ranjan, Rakesh – H39.9, R34.2 H33.2, M35.8 Rogachevskii, Igor – M4.8 Radulescu, Matei I. – G40.2, R2.6 Rao, Pooja – YP12.47, KP1.172, Reyssat, Mathilde – A24.9 Roh, Chris – G27.9, R6.12 Raessi, Mehdi – D34.9 L35.5 Rezvantalab, Hossein – G28.9 Rohlfs, Wilko – G13.1, KP1.52, Raessi, Mehdi – KP1.103 Rao, Pradeep – M5.8 Riaz, Amir – G7.9 M29.8, M21.8 Raessi, Mehdi – E9.6 Rao, Sai – D10.9, H8.8 Riaz, Amir – D1.3 Roig, Véronique – A9.1 Raessi, Mehdi – R6.4 Rasheed, Fayaz – G24.5, M25.3 Ribe, Neil – H13.9 Rolland, Joran – E31.2 Raessi, Mehdi – M7.5 Rast, Joshua – R22.6 Ribeiro, Adolfo – E30.3 Rollin, Bertrand – K4.4, D39.9 Rafai, Salima – A6.6, A23.3, M6.6 Rastegari, Amirreza – M26.8, Riboux, Guillaume – D31.6, G12.1, Roman, Federico – EV.2, D30.3 Raghavan, Ashwin – A5.8 R18.2 H36.1 Romano, Francesco – M5.6 Raghunandan, Aditya – D15.5, Ratner, Albert – EE.5, H35.2 Ricard, Yanick – D11.4, M11.3 Romero Rodriguez, Jose Alberto G24.5, M25.3 Rau, Matthew J. – H5.2 Ricco, Pierre – A20.2, H15.9, – D23.10 Rah, K. Jeff – H20.7 Rauenzahn, Rick – A3.7, PO5.4 H20.2 Rona, Aldo – D19.2 Rahai, Hamid – M2.4, R14.10 Raux, Pascal – D13.3, H12.9, Rice, James R. – M29.1, M29.4 Ronellenfitsch, Henrik – A25.1, Rahbari, Iman – F1.50, L21.5 L10.8 Rice, Thomas – A17.8 Q44.1 Rahimian, Abtin – D25.2 Ravaine, Valérie – A2.9 Richard, Patrick – M39.2, M35.5 Rongy, L. – D11.6, D19.8 Rahman, Aminur – M5.5 Ravichandran, S. – A18.5, M4.9 Richardson, John – A8.9 Rongy, Laurence – A2.6, L28.11, Rahman, Atikur – D34.5 Ray, Samriddhi – M4.9, M32.1 Richet, Océane – L29.5 L2.3 Rahman, Kalimur – L35.1 Rayz, Vitaliy – G7.3, L23.7, M26.7 richiardone, renzo – L30.4 Ronney, Paul – D5.6 Rahman, Mustafa – F1.19, KP2.2 Read, Peter L. – A30.5, HG.8 Richter, David – A4.9 Roper, Marcus – L39.9 Rahmani, Amir – D33.5, G9.2 Rebollo-Munoz, Noelia – R28.2 Richter, David – R29.7 Roper, Marcus – M25.4 Rahmani, Mona – A3.1, A3.4, Reckinger, Scott – M11.4 Rico-Guevara, Alejandro – G26.7, Rosakis, Alexandros – G27.9 G10.6 Reckinger, Scott – G30.7 F12.9 Rosales, Rodolfo – R2.8 Raizen, David – H9.6, M23.4, R8.9 Reckinger, Scott J. – D40.8, L19.7 Ricouvier, Joshua – R35.2 Rosales, Rodolfo – M33.9 Rajabzadeh Oghaz, Hamidreza – Reckinger, Shanon – M11.4 Rigas, Georgios – A9.9, E17.1, Rosales, Rodolfo – M33.5 L23.9 Reckinger, Shanon – E3.2 L15.8, R12.9 Rosales, Ruben – A1.5, H31.1 Rajaei, Hadi – G19.4, M10.7, M10.8 Reddivari, Sahithya – E3.5, E7.6 Rikhtegar Nezami, Farhad – Rosato, Anthony – 1B.88, L10.1 Rajalakshmi, G. – H3.7 Reddy, Lakshminarayana – R12.3 KP1.21 Rosenberg, Brian – E14.4 Rajendran, Rahul – G25.4 Redman, Andrew – E22.1, Riley, James – D30.1 Rosenberg, Ethan – G31.7, H13.9 Rajesh, V. – G18.2 KP1.32, KP1.33 Riley, James – A13.3 Roshanghalb, Farid – L35.9 Rallabandi, Bhargav – R9.6 Rednikov, Alexei – D31.3 Riley, Lauren – L33.5 Rosi, Giuseppe – A28.8, L19.3 Rallabandi, Bhargav – R8.1 Rednikov, Alexey – A32.7 Rimer, Sara – E3.5, E7.6, M29.10 Rosiejka, Brett – M32.3 Rallabandi, Bhargav – R8.2 Rednikov, Alexey – A33.2 Rimer, Sara P. – KP2.14 Ross, Frances – H36.4 Rallabandi, Bhargav – R8.4 Rednikov, Alexey – D31.2 Ringuette, Matthew – A27.1 Ross, Shane – A29.8 Ram, Omri – D4.9 Reeks, Michael – L2.1 Rio, Emmanuelle – G36.5 Ross, Shane – M5.8 Ramachandra, Abhay – H7.2, H7.7, Rees Jones, David – A19.3, M29.9 Rios Perez, Carlos – L3.11, M1.8, Ross, Shane D. – H27.2 H24.3 Reese, Daniel – L17.12, L21.5, M1.9 Rossetti, Jack – 1A.22, R6.8 Ramachandran, Aravind – M2.5 L21.9 Rips, Aaron – L14.7 Rossi, Massimiliano – L39.7 Ramachandran, Ashwin – E38.2 Riske, Karin – E37.1, R13.2 Rossi, Massimiliano – R8.4

139 Rossini, Lorenzo – D7.3, D7.4, -- S -- Sale, Danny – A24.1, R1.5 Santoni, Christian – D30.9, E24.6, R24.1 S, Ajithkumar – H11.5 Salehipour, Hesam – L30.6 H29.7, L12.2, L12.3 Rostami, Minghao – A23.4 S, Anillal – H11.5 Salevan, Julia – R29.1 Sapsis, Themistoklis – D16.10, Rostami, Sara – E8.4 S, Bharathraj – R12.5 Salewski, Matthew – H20.1, R14.4 H29.1, H29.2, KP1.50, M3.4, Rostamimonjezi, Sara – EK.8, S, Pushpavanam – M17.10, Z45.7 Salez, Thomas – G18.2 M31.4, M31.6 KP1.151 S. Sritharan, Sivaguru – A8.6 Salez, Thomas – M16.1 Saraiya, Vishaal – R37.10, R38.9 Rosti, Marco Edoardo – A15.3 S.J., Jaju – A12.6 Salibindla, Ashwanth K. R. – D1.2 Saranadhi, Dhananjai – E14.3 Rotea, Mario A. – D8.1, H29.7 Sébastien, Michelin – M13.7 Salin, Dominique – D29.5, G9.5 Saravan-Butler, Maya – M17.3 Roth, Steven – KP1.23, R21.1 Srensen, Jens Nrkr – G12.4 Salinas, Jorge – D3.5, D32.6 Sarfati, Raphael – G32.5, F44.13, Rothamer, Dave – EM.3, L17.12 Saad, S. – G15.2, G15.7 Salinas, Pablo – G7.1, H7.1 Z50.7 Rother, Michael – G13.5, R35.1 Saadat, Mehdi – E26.1, R26.11, Salkin, Louis – R36.8 Sarig, Itai – L38.4 Rothstein, Jonathan – D33.3 R38.8, R38.9 Saloner, David – L23.7 Sarioglu, Ali Fatih – R8.10 Rothstein, Jonathan – D34.4 Sabatino, Daniel – G19.3 Salort, Julien – H11.9, R19.9 Sarioglu, Fatih – A24.1 Rothstein, Jonathan – E40.2 Sabuwala, Tapan – G1.1, H10.1 Salsac, Anne-Virginie – L40.3 Sarkar, Sutanu – G30.9 Rothstein, Jonathan – R18.8 Sadek, Mahmoud – D38.5, L23.8, Salsac, Anne-Virginie – E24.2 Sarkar, Sutanu – D30.10 Rothstein, Jonathan P. – A5.5, L23.9 Salvador-Vieira, G. – M31.1 Sarkar, Sutanu – M30.8 E36.6, P44.10 Sader, John – G8.3 Salvetti, Maria Vittoria – R5.2 Sarkar, Sutanu – R41.8 Rotkovitz, Lauren – A35.5 Sader, John – A12.5 Salvetti, Maria Vittoria – R5.11 Sarkar, Sutanu – R28.7 Rouchon, Jean-Francois – L14.3 Sadique, Jasim – D28.8, R2.3, Salvetti, Maria Vittoria – R5.12 Sarkar, Sutanu – L4.4 Rouhi, Amirreza – D28.4, E22.2 R22.12, R25.9 Salvetti, Maria Vittoria – G12.7 Sasidharan Nair, Unnikrishnan – Roumpea, Evangelia – H8.5 Sadot, Oren – GP9.135, D4.9 Salvetti, Maria Vittoria – L38.7 H38.5 Roumpea, Eynagelia-Panagiota – Sadoughi, Mohammadkazem – Samaee, Milad – H24.10, KP2.30, Sathian, Sarith – G31.9 D10.7, H8.1 KP1.77, M9.10 KP2.31, R24.9, R37.7 Sattarzadeh, Sohrab – H15.3 Rowe, Kristopher – R15.2 Sadowski, Matthew J. – A21.2 Samanta, Arnab – D24.8, E38.1 Satwindar, Sadhal – M36.5 Rowley, Clarence – R5.10 Sadr, Reza – E11.1 Sambath, Krishnaraj – D37.1 Sau, Amalendu – A9.8, E10.5 Rowley, Clarence – H29.3 Sadr, Reza – KP1.107 Sambrook Smith, Greg H. – D24.8 Saudreau, Marc – M40.8 Rowley, Clarence W. – A26.7, Sadr, Reza – D14.1 Sameen, A – H19.5 Sauma Perez, Tania – D2.7 D16.4 Sadr, Reza – L40.9 Sameen, Abdulvahab – H11.5 Saunders, Curtis – G19.2 Roy, Anubhab – H21.4, H3.6, Sadri, Samaneh – L12.7 Samimy, Mo – E18.1, G25.10, Saurabh, Shakti – H26.10, R7.9 M20.9 Saeedi, Mohammad – G21.7, H38.8, L15.11 Sauret, Alban – L10.3 Roy, Christopher J. – R5.4 M15.4 Sampara, Naresh – M33.10 Sauret, Alban – L10.2 Roy, Rishav – R8.11 Saenz, Pedro – H9.3, H28.8, Sampath, Kaushik – L24.6 Sauret, Alban – M12.10 Roy, Rita – E3.6 L38.11, L9.8 Samtaney, Ravi – A8.8 Sauret, Alban – KP2.10 Roy, Saikat – D6.5, R24.8 Saenz, Pedro J. – A33.9 Samtaney, Ravi – A8.7 Sauret, Alban – D3.6 ROYON, Laurent – G35.9 Sáenz, Pedro – H33.3 Samtaney, Ravi – M36.8 Sauret, Alban – H32.3 Rozema, Wybe – D8.4 Safari, Mehdi – H6.2, H34.9 Samtaney, Ravi – R4.4 Savas, Ömer – L32.6 Ruban, Anatoly – A19.4, E20.2, Safaripour, Alireza – E27.1 Samtaney, Ravi – R3.3 Savage, Van – B10.4, M25.4 M25.6, M25.8 Safdari, Arman – G6.5, KP1.48 Samtaney, Ravi – R6.9 Saveliev, Alexei – A36.2, MW1.54, Rubega, Margaret – G26.7, F12.9 Saffaraval, Farhad – G25.3 Samtaney, Ravi – KP2.2 KP1.65 Rubin, Shimon – A10.5, D10.4 Sagaceta-Mejia, A.R. – L3.3, L3.4 Samtaney, Ravi – KP2.18 Savva, Nikos – R33.9 Rubinstein, Robert – H40.8 Saha, Abhishek – G33.9, G39.4, Samtaney, Ravi – E17.4 Savva, Nikos – H28.6 Rubinstein, Robert – R19.3 H5.9, H36.1 Samtaney, Ravi – D39.7 Sawchuk, Alan – R24.6 Rubinstein, Shmuel – M32.1 Saha, Sandeep – H29.7, R16.4 Samtaney, Ravi – D39.8 Sawford, B.L. – G20.2, H28.8 Rubinstein, Shmuel – L19.7 Sahin, Mehmet – G7.2, KP1.26, Samudrala, Nivi – G32.5 Saxton, Matthew – A33.7 Rubinstein, Shmuel – D24.1 L16.6 San, Omer – H29.9 Saxton-Fox, Theresa – A20.2, Rubinstein, Shmuel – A1.4 Sahin, Neslihan – KP1.79, L32.9 San Juan Blanco, Jorge E. – R29.4 R 27.6 Rubinstein, Shmuel – E36.1 Sahni, Onkar – L8.3 Sanada, Toshiyuki – KP2.22 Sayadi, Peter – H15.1 Rubio-Rubio, Mariano – G17.5, Sahni, Onkar – R3.8 Sanada, Toshiyuki – R35.4 Sayadi, Taraneh – H15.1 G15.2 Sahni, Onkar – L9.5 Sanaei, Pejman – E1.3, H3.3 Sayadi, Taraneh – A7.2 Rueda Villegas, Lucia – D31.1, Sahni, Onkar – L9.6 Sanchez, Antonio L. – G40.3, Sayag, Roiy – H3.10, R16.5 H3.2 Sahoo, Ganapati – G29.7, G25.2 H35.3 Saylor, J.R. – R35.9 Rui, Maryann – L30.2 Sahoo, Subhadarshinee – M3.9 Sanchez, Pablo – G38.3 Sbragaglia, Mauro – G6.9 Ruiz Chavarria, Gerardo – H19.1 Sahu, Kirti – R36.12 Sanchez, Salvador – H14.9 Scagliarini, Andrea – M11.2 Ruiz-Columbie, Arquimedes – Sahu, Kirti – R26.7 Sandberg, Richard – D21.8, G15.5, Scalo, Carlo – L21.5 G29.8, L12.9, L23.2, L25.7 Sahu, Kirti – A32.4 J29.2 Scalo, Carlo – A7.8 Ruiz-Rus, Javier – R27.10 Sahu, Kirti Chandra – A33.6, Sander, Leonard – R12.11 Scardovelli, Ruben – H5.1, M22.1, Rusak, Zvi – G19.5 R33.10 Sandoval-Villalbazo, A. – L3.3 M22.2 Rusak, Zvi – H19.2 Sahu, Rakesh – G36.4 Sandoval-Villalbazo, A. – L3.4 Schäffel, David – M8.6 Rusak, Zvi – E16.6 Sai, P.S.T. – M25.8 Sandoval-Villalbazo, A. – L3.5 Schönecker, Clarissa – M8.6 Ruscher, Christopher – A29.1, Said Mohamed, Ahmed – L35.12 Sandoval-Villalbazo, A. – L3.6 Schaffer, David – 1A.31, L25.3 G5.2, G38.5, L5.12 Saidi, Hiba – H26.9 Sandoval-Villalbazo, Alfredo – Schaner, Markus – M6.1 Rusconi, Roberto – G23.8 Saikia, Bijaylakshmi – E38.2 L3.11 Scharfman, Barry – E29.1, G25.1 Rusconi, Roberto – R39.5 Saint-Jalmes, Arnaud – E13.1 Sandstede, Bjorn – M5.9, J13.10 Schatz, Michael – D29.2 Russel, William – G2.2 Saint-Michel, Brice – A2.6, E12.6, Sanford, Sean – L25.4 Schatz, Michael – M6.2 Russell, Thomas P. – H32.2 R29.4 Sangani, Ashok – D9.2, G23.6 Schatz, Michael – M5.7 Russo, Serena – A12.4, R5.7 Saintillan, David – E23.1 Sanghi, Tarun – L36.7, M9.6 Schecter, David A. – H30.5 Ruyer, Pierre – L10.11 Saintillan, David – D23.3 Sankaran, Venkateswaran – Scheel, Janet – A20.5 Ruyer-Quil, Christian – L18.9 Saintillan, David – D23.6 H34.2, R3.6 Scheel, Janet – G11.4 Ryan, Kevin – A22.4 Saintillan, David – D37.5 Sano, Takayoshi – L17.7 Scheeler, Martin W. – G19.6, L49.8 Rycroft, Chris – L6.1 Saintyves, Baudouin – G18.2 Sansas, Fabien – M40.3 Scheid, Benoit – M16.7 Rycroft, Chris – A35.4 Sajini Devadas, Mary – A12.5 Sansom, Kurt – H24.9 Scheid, Benoit – G13.1 Rycroft, Chris – E24.6 Sakajo, Takashi – D11.10, R15.9 Santer, Matthew – H15.5, R20.1 Schella, Andre – H10.9 Ryu, Bo Kyung – G31.3 Sakakibara, Jun – G22.10 Santhanakrishnan, Arvind – L27.9 Schellenberger, Frank – D33.2 Ryu, Jaeha – L6.5 Sakakibara, Jun – M22.7 Santhanakrishnan, Arvind – Scheller, Johannes – L14.3 Ryu, Jaiyoung – A35.4, H7.1, L23.3 Sakaue, Hirotaka – M27.10 KP2.30 Schertzer, Jeffrey – E10.3 Ryu, Sangjin – KP1.27 Sakaue, Hirotaka – A15.6 Santhanakrishnan, Arvind – Schiavazzi, Daniele – G31.5, H7.2, Ryu, Sangjin – KP1.166 Sakaue, Hirotaka – H28.10 KP2.31 H24.3, L6.4, L24.7, L7.3 Ryu, Sangjin – R39.2 Sakaue, Hirotaka – E27.2 Santhanakrishnan, Arvind – H12.5 Schiffbauer, Jarrod – G14.2 Ryu, Sangjin – R36.7 Sakaue, Hirotaka – E36.4 Santhanakrishnan, Arvind – R37.7 Schiffbauer, Jarrod – G14.1 Ryu, Sangjin – L40.1 Sakievich, Philip – H11.7, H19.4 Santhanakrishnan, Arvind – R24.9 Schilling, Oleg – D39.1 Ryu, Seul-a – A33.3 Sakurai, Teluo – L25.3, R20.9 Santhanakrishnan, Arvind – Schilling, Oleg – D39.4 Ryzhov, Eugene – M5.2 Sala, Kyle – L2.7 H24.10 Schlatter, Philipp – H17.5 Rzeznik, Andrew – H31.1 Salac, David – E37.3 Santhanam, Anand – R24.7 Schlatter, Philipp – D38.10 Salac, David – E37.4 Santhanam, S. – A1.9, R16.5 Schlatter, Philipp – D17.3 Salamat, Yasamin – M1.8 Santilli, Edward – G30.9 Schlatter, Philipp – L22.9 Salcedo, Erick – KP1.55 Schleicher, William – G27.8

140 Schlichting, Ilme – R2.11 Seifert, Avraham – A30.1, KP1.7, Shaqfeh, Eric – A40.1 Shin, Dong Ho – H36.7, L20.6 Schlueter, Kristy – L18.4, M14.5 L15.12, R13.3 Shaqfeh, Eric – G37.2 Shin, Sangwoo – A10.8, E10.5, Schlup, Jason – H6.10, H31.5 Seiler, Peter – G15.6 Shaqfeh, Eric S. G. – G1.8 G13.8, M16.6 Schmessane, Andrea – F1.76, Seizilles, Gregoire – R12.9, R23.3 Shaqfeh, Eric S.G. – R23.10 Shin, Sehyun – KP1.29, KP1.59, H31.5 Sekaran, Aarthi – G5.7 Sharan, Nek – R7.5, R31.5 L18.2 Schmid, Peter – H37.8 Seki, Masako – KP1.123 Sharath S, Girimaji – A18.8 Shin, Seungwon – A31.8, A35.9, Schmid, Peter – A21.8 Sekiguchi, Yoshito – M22.7 Shardt, Orest – G28.5, M12.4 D16.6, G16.3, H8.5, H12.2, Schmid, Peter – A9.7 Sekimoto, Atsushi – A26.8, D29.8 Shariatmadar, Hamed – KP1.77, L18.6, L18.11, M17.4 Schmid, Peter – A7.2 Selçuk, Can – G19.10 M9.10 Shinbrot, Troy – H10.1 Schmid, Peter J. – H17.2 Sellappan, Prabu – D30.5 Sharif, Md. Tanveer – G10.10 Shiomi, Junichiro – D33.6 Schmidt, David – A5.5 Sellappan, Prabu – M15.6 Sharifi-Mood, Nima – D6.9, D9.8, Shiomi, Junichiro – G31.4 Schmidt, Lukas – G3.9 Sellier, Mathieu – A3.9, A14.3, L10.10, R39.6 Shipley, Kara – A27.9, D30.9, Schmidt, Oliver – G17.6 H2.1, L28.12 Sharma, Ati – D29.10 G23.1, G23.2 Schmidt, Oliver – G17.7 Semaan, Richard – GE.7, H29.10 Sharma, Ati – G15.5 Shiri, Samira – D34.10 Schmidt, Patrick – M16.6, M22.4 Semenov, Sergey – A12.4, G35.4 Sharma, Ishan – G13.4 Shirinsky, Olga – L23.1 Schmit, Alexandre – R36.8 Semin, Benoit – D31.7, L31.1, Sharma, Manjul – H19.5 Shirota, Minori – D31.7 Schmitz, Sven – R14.9 L31.2 Sharma, Varun – D30.1, E21.4, Shishkina, Olga – E26.9, G24.2, Schmitz, Sven – E16.1 Semin, Benoît – G8.8 G12.1 G11.3 Schmuck, Markus – H28.6 Sen, Ayusman – R9.4, R9.5, Q27.4 Sharma, Vivek – G10.1 Shivamoggi, Bhimsen – R19.1 Schmuck, Markus – M3.5 Sen, Sudip – KP1.95 Sharma, Vivek – G10.4 Shklyaev, Oleg – D37.4, F19.7, Schmuck, Markus – R33.9 Sengupta, Anupam – D23.1, G6.4 Sharma, Vivek – G36.2 R9.5 Schneider, Kai – R20.9 Seo, Changdeok – KP1.59 Sharma, Vivek – G36.3 Shmakova, Natalia – M31.2, M31.3 Schneider, Kai – G30.5 Seo, Eung Ryeol – A14.5 Sharon, Eran – L31.8 Shoeibi Omrani, Pejman – R5.11 Schneider, Kai – H20.6 Seo, Jaemyeong Mango – E31.5 Sharon, Eran – H13.6 Shoele, Kourosh – M13.1 Schneider, Kai – A26.3 Seo, Jongmin – G8.8, R18.6 Sharp, David – M18.4 Shoele, Kourosh – R38.6 Schneider, Kai – H27.10 Seo, Jung Hee – H16.6, R24.5 Sharp, David H. – JO4.14, D40.7 Shoele, Kourosh – L14.7 Schneider, Tobias – D29.9 Seo, Jung-Hee – D7.5, H7.4, Sharp, Nicole – E3.3 Shoele, Kourosh – L14.1 Schneider, Tobias – M6.4 L24.1, L24.8, L24.11, R24.4 Shattuck, Mark – R29.1 Shoeman, Robert – G10.10, R2.11 Schnitzer, Ory – D37.3, D33.4 Seon, Thomas – L5.2 Shaw, Ryan – A10.7 Shojaei-Zadeh, Shahab – D2.10 Schock, Harold – A39.5, D5.3 Seon, Thomas – M35.10 She, Dan – YP12.47, KP1.172 Shojaei-Zadeh, Shahab – G28.9 Schofield, Sam – D9.9 Seong, Baekhoon – A33.4, D32.5, She, Zhen-Su – L11.4 Shoji, Takeshi – H36.7, L5.6 Schosser, Constantin – D27.6 F1.60 She, Zhen-Su – H11.3 Short, Mark – R2.5 Schovanec, Joseph – KP2.31, Septham, Kamthon – L15.3, R12.12 She, Zhen-Su – D22.3 Short, Mark – E4.2 R24.9 Serra, Mattia – A29.3 She, Zhen-Su – L21.7 Shrefler, John – KP2.5 Schröter, Matthias – H1.9, H10.9 Sescu, Adrian – H38.7 She, Zhen-Su – L21.6 Shrestha, Samir – H40.1, M10.10 Schranner, Felix – L8.7 Seshadhri, Santhosh – L23.7 She, Zhen-Su – E22.6 Shringarpure, Mrugesh – D3.5, Schreyer, Anne-Marie – D35.7, Sesterhenn, Joern – A5.7, A26.3, Shearer, Michael – D32.7, H31.4 D32.6, R29.6 H37.6 H27.10 Sheehy, Patrick – E9.5 Shrivastava, Ishita – G5.4 Schroeder, Joyce – D7.8, R24.11, Seta, Takeshi – G6.6 Sheikhi, Reza – R25.6 Shui, Pei – E9.3, H32.2 R24.12 Sethi, Rajandrea – G1.7 Sheikhi, Reza – A39.6 Shukla, P. – D41.8, H18.8 Schroeder, Wolfgang – A40.4, Sethna, James – E2.1 Sheikhi, Reza – E8.1 Shukla, Priyanka – R12.6 E8.2, H4.4, KP1.122 Sett, Soumyadip – KP1.122 Sheikholeslami, Mohsen – KP1.77, Shukla, Ratnesh – BL.1, D17.8, Schuh, Jonathon – G10.7 Sett, Soumyadip – G36.4 M9.10 R18.12 Schulman, Rafael – H32.5 Setu, Siti Aminah – E10.6 Sheinberg, Dustin – A26.5 Shum, Henry – R9.4 Schulmeister, James – H37.4, Sevilla, Alejandro – G17.5 Shelley, Michael – G27.5 Shum, Henry – R9.5 R18.6 Sevilla, Alejandro – R27.10 Shelley, Michael – D25.2 Shum, Ho Cheung – L5.7 Schult, Allen – H12.7 Sewell, Everest – H4.6, L17.11 Shelley, Michael – A27.2 Shum, Ho Cheung – G32.6 Schultz, Michael – R22.4 Seyed-Aghazadeh, Banafsheh Shelley, Michael – D23.9 Siala, Firas – M30.8, R13.7 Schultz, Michael – M19.9 – D18.2, D18.8, D18.9, D18.6 Shelley, Michael – L39.8 Sibley, David – M9.5 Schultz, Michael – G24.10 Sha, Sha – A28.5 Shemer, Lev – R31.8 Sibley, David – R33.12 Schultz, Michael – G24.9 Shaban, Hassan – D9.3 Shen, Hao – H38.9, N30.1 Sibley, David – R33.9 Schultz, William – H28.2, L2.10 Shabbir, Aamir – E8.4 Shen, Jikang – D1.2 Sibley, David – H28.6 Schulz, Alexander – A25.1, L24.10 Shadden, S.C. – R24.1 Shen, Lian – H30.10 Sibley, David N. – R33.3 Schumacher, Joerg – A20.5 Shadden, Shawn – L6.4 Shen, Lian – L31.10 Siconolfi, Lorenzo – A21.6, D38.6, Schumacher, Joerg – G11.4 Shadden, Shawn – KP1.23 Shen, Lian – L31.11 L38.7, M25.5, R5.12 Schunk, Cosima – KP1.25, L6.1 Shadden, Shawn C – KP1.22 Shen, Meng – D13.10, H9.5 Sicot, Geraldine – A24.9 Schuszter, Gabor – D1.7 Shadden, Shawn C. – L23.2, Shen, Xinhui – R39.3 Sid, Samir – D12.1, D1.10, D19.1, Schutt, Riley – L16.8, L16.9, M30.3 L23.3, L23.11, M25.5, R23.2 Shen, Yueyang – A36.4 L11.7 Schutzius, Thomas – H33.6 Shaffer, Franklin – H3.2, L32.6, Sheng, Jian – R39.9 Siddique, Javed – D24.5, M3.8, Schwalbe, Margot – A26.1 M22.4 Sheng, Jian – R24.10 R9.8 Schwer, Douglas – H35.7, R2.3 Shah, Kinnari – L40.5 Sheng, Jian – D24.4 Siddiqui, Adnan – M26.6, M26.8 Scofield, Dillon – KP1.105, L3.9, Shah, Krupa – G36.2 Sheng, Jian – D25.5 Siddiqui, Junaid – M36.8 R2.2 Shah, Preyas – E9.6, G1.8 Sheng, Jian – D27.5 Siddle-Mitchell, Seth – E7.1, L32.1 Scolan, Helene – A30.5 Shahinfar, Shahab – E2.5, H15.3, Sheng, Jian – E26.4 Sidilkover, David – R13.3 Scotti, Alberto – M10.5 H17.4, R23.6 Shephard, Mark – R3.8, X30.6 Sieber, Moritz – G36.1, G36.2, Scotti, Alberto – L30.8 Shahmurov, Rishad – D11.7, F1.86 Shepherd, Joseph E. – R2.6 H29.5 Scotti, Alberto – A11.4 Shahsavari, Setareh – E12.4, H3.4 Sheplak, Mark – D26.1, E19.6 Siefert, Emmanuel – M33.8 Scotti, Alberto – G30.9 Shaiju, A.J. – L15.6 Sherman, Alana – L33.10 Siegel, Michael – D33.6, L28.3 Scribano, Gianfranco – G36.6, Shallcross, Gregory – H27.8, L6.2 Sherman, Erica – E6.3, G24.3 Sierakowski, Adam – A4.5, E32.4, M2.1 Shams, Ehsan – EC.1, GJ.6, Sherrit, Stewart – L14.10 G3.4, H3.4 Sealy, William – E27.5 E23.6, R3.8 Sherwin, Spencer – L14.8 Sierra, Raymond – G10.10, R2.11 Searle, Matthew – M26.7, R18.5 Shamshery, Pulkit – A14.4 Sherwin, Spencer – L9.8 Sigurdson, Marin – A10.2 Sebastiao, Israel – H40.9 Shan, Bob – E23.6 Sherwin, Spencer – KP1.155 Sillero, Juan – G27.2, L22.10 Secchi, Eleonora – A6.3, E11.3, Shan, Jerry – D7.8 Sherwin, Spencer J. – D38.7 Silton, Sidra – D16.10 G9.9 Shan, Jerry – L40.7 Sherwood, Joseph M. – L26.8 Silva, Carlos – R21.9 Seddighi, Mehdi – H15.9, H26.1, Shan, Jerry – L40.12 Shi, Ke – R7.1 Silva-Lopes, Alexandre – E22.2 L32.8 Shan, Jerry – L39.3 Shi, Wei – L16.7 Silvis, Maurits – L9.2 Seelen, Luuk – L10.5 Shanbhogue, Santosh – E5.3, Shi, Yanxiang – D5.9, R26.6 Simmons, Mark – E10.4, G10.5, seena, Abu – L22.6 H39.6 Shi, Yipeng – A4.2 H8.4, KP1.88, L35.7, L33.11 Sefiane, Khellil – L28.10 Shang, Jessica – H37.7 Shibani, Bhatt – E19.5 Simon, Amelie – G13.7 Sefiane, Khellil – L38.11 Shang, Jessica – M24.2 Shig, Lior – KP1.7 Simons, Dylan – E39.1, E39.2 Sefiane, Khellil – A33.9 Shang, Zhi – L31.7, M7.8, L33.1 Shih, Hong-Yan – L41.11 Simons, Joseph-John – D29.7 Sefiane, Khellil – R33.10 Shankar, Viswanathan – G13.4 Shih, Hong-Yan – R17.1 Simpson, Mark – A18.3, A18.6 Sefiane, Khellil – D31.5 Shannon, Alexander – M24.6 Shikhmurzaev, Yulii – L13.9 Sinding, Kyle – D27.2 Sefiane, Khellil – H28.8 Shao, Xueming – A4.4, M4.1 Shimoyama, Isao – A31.6, D13.2 Singh, Amneet – D26.3 Sefiane, Khellil – A32.4 Shapiro, Carl – L13.4 Shin, Beomjune – A25.9 Singh, Anand Pratap – H21.8

141 Singh, Arvind – H22.2, R26.10 Snoeyink, Craig – M8.4, R27.3, Squire, Dougal – D22.6, H26.4, Stogner, Roy – A18.4, A18.7 Singh, Dhiraj – G28.1, G28.2 R29.6 R22.4 Stokes, Yvonne – A14.7, L1.6 Singh, Kiran – G28.6 Sobac, Benjamin – D31.3 Squires, Kyle – G21.1 Stone, Douglas – G25.4, R30.9 Singh, Pushpendra – G28.3 Sobac, Benjamin – A33.2 Squires, Kyle – H3.10 Stone, Douglas R. – E30.1 Singh, Pushpendra – L40.5 Sobac, Benjamin – D31.2 Sreenivasan, K.R. – R21.5 Stone, Howard – G37.1 Singh, Pushpendra – A25.3 Sobhani, Sadaf – E5.5, G1.6 Sreenivasan, K.R. – G20.9 Stone, Howard – H37.7 Singh, Ravi – G28.2 Socha, John – E17.1, G26.8 Sreenivasan, Katepalli – L11.1 Stone, Howard – G36.9 Singh, Ravi – G28.1 Socha, John J. – H27.2 Sreenivasan, Katepalli R. – Stone, Howard – G14.5 Singh, Vachitar – KP2.10, L10.2 Socolofsky, Scott – PG.4, L11.9 KP1.76, KP2.4, R41.10 Stone, Howard – D15.6 Sinha, Avick – L5.9 Soderberg, Daniel – L39.11 Sridharan, Prashanth – A3.5, K4.3 Stone, Howard – E23.3 Sinha, Krishnendu – E38.2, Sojka, Paul – D32.8 Srinivas, S.S. – G21.5 Stone, Howard – G4.10 KP1.43 Sojka, Paul E. – D32.7, G10.5, Srinivasan, Balaji – D20.4, L34.1 Stone, Howard – A33.1 Sinha, Kushal – A8.4, G2.9 H5.4 Srinivasan, Kalyan Kumar – G40.8 Stone, Howard – H32.3 Sinha, Shayandev – G28.10, Soldati, Alfredo – A13.7 Srinivasan, Siddarth – E14.3 Stone, Howard – G13.8 KP1.62, KP1.67 Soldati, Alfredo – L30.11 Srinivasan, Siddarth – D24.1 Stone, Howard – E35.1 Sinha, Sumit – D24.8 Soldati, Alfredo – H31.8 Srinivasan, Siddarth – R18.7 Stone, Howard – E24.5 Sinha Mahapatra, Pallab – G35.8, Solomon, Michael – H28.2 Sritharan, Sivaguru S. – A16.7, Stone, Howard – A10.8 H5.7 Solomon, Tom – D25.9 A20.6 Stone, Howard – G13.6 Sinha Mahapatraa, Pallab – E13.4 Solomon, Tom – D29.7 St. Laurent, Louis – KP1.104 Stone, Howard – L39.5 Sinha-Ray, Suman – H9.4 Solomon, Tom – D29.6 St. Leger, Judy – E36.6 Stone, Howard – R39.8 Sinha-Ray, Sumit – H9.4, G34.5, Solovitz, Stephen – A21.6 Staat, Hendrik – L35.8, M15.3 Stone, Howard – G28.5 P1.137 Sommeria, Joel – E26.4, M1.6, Stack, Cory – L5.11 Stone, Howard – R2.11 Sinhuber, Michael – M20.7, M27.9 L30.5 Staffilani, Gigliola – G16.2 Stone, Howard – R8.3 Sipp, Denis – A9.9 Somszor, Katarzyna – H32.3 Stagni, Alessandro – D5.3 Stone, Howard – M3.1 Siria, Alessandro – E11.3 Son, Gihun – A40.5, A40.6 Stamper, Megan – G30.1 Stone, Howard – M8.8 Siria, Alessandro – G9.9 Son, Kwangmin – D25.10, L5.9 Stan, Claudiu – A15.6, E10.1, Stone, Howard – M8.7 Sirignano, William – KP1.141 Sondak, David – KP1.127 G10.10, R2.11 Stone, Howard A – G10.3 Sirignano, William – D5.7 Sondak, David – H11.1 Stanic, Milos – YP12.3, KP1.97 Stone, Howard A. – A11.2, A16.5, Sirmas, Nick – R12.2 Song, Jialei – H27.7, L6.4 Stanislas, Michel – R20.1 E10.5, R6.1, Q10.2 Sisoev, Grigory – A9.3 Song, Kahye – A25.5, M9.1 Stannarius, Ralf – R36.5 Stoop, Norbert – D25.4, L1.6, Sivaramakrishnan, Balachandar – Song, Simon – L38.9 Stapf, Michael – D24.9 F44.7 A11.6 Song, Simon – M1.7 Staples, Anne – G26.4 Storey, Brian – A24.1 Sivasubramanian, Jayahar – Song, Yi – H9.6, F37.7, M37.9, Staples, Anne – H8.10 Storey, Brian – L24.9 L21.10 Z48.10 Staples, Anne – R7.4 Stott, Shannon – A24.1 Sizaret, Hubert – E1.4 Soori, Tejaswi – E1.2 Staples, Anne – G23.9 Stout, Eric – H19.9 Skachkov, Ilya – L37.4 Sorathiya, Shahajhan H. – H16.8 Staples, Anne – L7.2 Stoyanov, Simeon D. – E10.5 Skarysz, Maciej – A9.5, H18.10, Soria, Julio – L22.10 Starke, Genevieve – KP1.2 Strack, Dillon – M3.7, R5.10 M29.9 Soriano, Karina – KP1.167 Starosvetsky, Yuli – L38.5 Strand, C.S. – M28.3 Skifton, Richard – KP1.78 Sotelo, Luz – KP1.27, Q49.12 Starosvetsky, Yuli – L38.4 Strawbridge, Eva – H23.5 Skinner, Laura – D29.7 Soteriou, Marios – KP1.41 Starov, Victor – E33.4, R14.3 Stremler, Mark – D18.3 Skipper, A.N. – L12.11, R37.2 Soteriou, Marios – L5.5 Stauber, Hagit – D10.5, D5.9 Stremler, Mark – D18.10 Skitka, Joseph – E21.2 Sotiropoulos, Fotis – E28.2 Staziaki, Pedro V. – KP1.21 Stremler, Mark – M5.8 Skrbek, Ladislav – MN.1, L41.6 Sotiropoulos, Fotis – D28.1 Stechmann, Samuel – E31.3, Stretch, Derek – M1.3, L30.9 Sled, John – A24.6 Sotiropoulos, Fotis – L13.10 G20.4 Strickland, Stephen – D32.7, Slepski, Jonathon – KP1.151 Sotiropoulos, Fotis – L13.8 Steele, Stephanie – A12.8, H16.9 D32.8, H31.4 Sleutel, Pascal – A33.6, A33.7, Sotiropoulos, Fotis – G30.6 Steen, Paul – A31.5 Strivay, David – M35.1 E32.4 Sotiropoulos, Fotis – R32.6 Steen, Paul – M1.2 Strohm, Eric M. – R9.8 Sloan, Nicholas – L20.3 Sotiropoulos, Fotis – R29.11 Stegmeir, Matthew – L32.3 Strom, Benjamin – D14.5, D24.2, Slotine, Jean-Jacques – H27.5 Sotiropoulos, Fotis – M24.7 Stegmeir, Matthew – G40.8 D24.3, R1.12 Slowicka, Agnieszka – E23.3, Sotiropoulos, Fotis – R1.7 Stein, David – D1.9, L7.5 Strong, Scott – E25.1 L10.6 Souffland, Denis – L17.4 Steinhardt, Will – A1.4 Strongrich, Andrew – H40.9 Smaoui, Nejib – G29.10, H17.6 Soulaine, Cyprien – F1.69, G7.9 Steinhoff, John – BB.10, D7.4, Stroock, Abraham – D1.8 Smarandache, Florentin – KP1.11 Soumya, Sunakraneni – A15.2 KP1.47 Stroock, Abraham – G9.8 Smarandache, Florentin – KP1.64 Souza, Andre – H11.2 Steiros, K. – R32.9 Stutz, Colin – E15.4 Smiddy, Sam – G36.9 Souza, Andre N. – M16.2, M16.3, Stellingwerf, Robert – GO5.10, Su, Haiyan – KP1.163, KP1.167 Smith, Adam – A20.2, P1.112 R10.7 D4.6, YP12.3, KP1.97 Su, Sylvie – A30.5 Smith, Barton – M27.7 Souza, Leandro – G17.8 Stellmach, Stephan – A30.2, G2.1 Su, Yu – E2.2, H2.3, W35.6 Smith, Barton – KP1.78 Souzy, Mathieu – D2.8, G2.7 Stelzenmuller, Nickolas – A13.5, Su, Yunxing – D24.3, R1.3 Smith, Barton L. – R11.2 Sowah, Sandra S. – R6.1 M19.8 Su, Zhuang – A9.2, A9.3, M19.7, Smith, Edward – AB.3, H7.3, Spagnolie, Saverio – M23.3 Stephan, Olivier – R9.2 M19.8 H10.2, H28.6 Spagnolie, Saverio – A12.7 Stephan, Sören – H37.6 Subasic, John – A24.3 Smith, Geoffrey B. – G4.2, R28.11 Spagnolie, Saverio – D15.10 Stephen, Olivier – G8.5 Subramani, Hariprasad – D9.5, Smith, Josh – D2.1, R2.2 Spalart, Philippe R. – H27.3, H37.3 Steppe, Cecily – G24.9, G24.10, H33.2 Smith, Katherine – H30.3 Spandan, Vamsi – E25.1, M22.8 G26.6 Subramaniam, Akshay – H4.5, Smith, Kevin – G6.7 Spann, Andrew – D5.5, R9.12 Stern, Catalina – H4.4 D39.10 Smith, Leslie – H11.1 Sparacino, J. – H25.7 Stevens, Benjamin – E5.4, R1.3 Subramaniam, Shankar – L2.11 Smith, Marc – G14.9, H35.5, Spedding, Geoffrey – D30.2 Stevens, Kimberly – R26.10 Subramaniam, Shankar – A3.3 L4.10, M32.8, R5.8 Spedding, Geoffrey – D30.5 Stevens, Richard – G12.5 Subramaniam, Shankar – R26.2 Smith, Marc K. – H35.7 Spedding, Geoffrey – G17.9 Stevens, Richard J.A.M. – R20.2 Subramaniam, Shankar – R26.1 Smith, Sydney – M17.3 Speetjens, Michel – A29.7 Stever, Michael – R16.9 Subramanian, Chelakara – BE.10, Smith, Timothy – L2.9, S3.3 Speetjens, Michel – G29.9 Stewart, Colin – R37.4 E14.5, KP1.101 Smith, Travis – H39.10 Speetjens, Michel F. M. – G4.9 Stewart, D. Scott – R2.7 Subraveti, Sai Nikhil – M25.8 Smits, Alexander – D19.1 Speirs, Nathan – G33.7 Stewart, D. Scott – A5.2 Succi, Sauro – R39.12 Smits, Alexander – A5.6 Spellman, Wyatt – H14.4, L16.2 Stewart, Peter – G36.1 Succi, Sauro – H11.4 Smits, Alexander – E14.4 Spelman, Tamsin – G8.5, R9.2 Stewart, Simone – H18.5, KP1.89, Succi, Sauro – H40.7 Smits, Alexander – A26.7 Spencer, Thomas – G26.3 L22.8 Suckale, Jenny – M29.4 Smits, Alexander – H37.7 Spietz, Henrik Juul – KP1.156, Stocker, Andrew – KP1.137, M3.6 Sudakov, Ivan – R28.10 Smits, Alexander – G22.8 R15.3 Stocker, R. – AK.3, EG.2, MQ.1, Sudarsanam, Senbagaraman – Smits, Alexander – G27.8 Spillers, Russell – L21.2 MQ.9, H25.7, QS.5 M5.4, R10.2 Smits, Alexander – R38.8 Spirnak, Jonathan – KP1.75 Stocker, Roman – D25.10 Sugihara-Seki, Masako – D2.6, Smits, Alexander J. – D16.4, R41.4 Spiteri, Raymond J. – R25.3 Stocker, Roman – D23.1 F1.22, F1.41, G2.9, M29.2, R28.9 Smolka, Linda – L28.1, S20.4 Spitulnik, Adam – L10.10 Stocker, Roman – R39.5 Sulchek, Todd – R8.10 Smriga, Steven – A6.3, G23.8 Spohn, Andreas – M27.9, R12.8 Stocker, Roman – D24.6 Sullivan, Matthew – H8.6 Snoeijer, Jacco – D32.10 Sprakel, Lisette M.J. – L26.11 Stocker, Roman – G23.8 Suman, Sawan – A4.8, D20.4, Snoeijer, Jacco – K1.1 Sprinkle, Brennan – D26.3 Stoeber, Boris – D33.4, M12.2 R23.6 Snoeijer, Jacco H. – D32.9, G2.6 Sprittles, James – L13.9, R14.4 Stogin, Birgitt – D33.7 Summy, Dustin – H40.2

142 Sun, Bo – R26.1 Tagg, Randall – L41.3 Taylor-Power, Gregory – KP2.3 Thoraval, Marie-Jean – E4.6, Sun, Bo – A3.3 Taghavi, Ray – E16.3 Tchelepi, Hamdi – AF.6, G7.9 E32.3, E32.4 Sun, Chao – L20.8 Taguchi, Satoshi – A27.6, H40.3 Tchoufag, Joel – G17.1, M16.5, Thornton, Anthony – H10.3 Sun, Chao – R20.5 Taguelmimt, Noureddine – M21.9 R4.3, R36.10 Thoroddsen, S. T. – A35.3, E10.2, Sun, Chao – G33.9 Tai, Cheng-Feng – G25.8, LA.6 Techet, Alexandra – G25.1 L35.2, L40.8 Sun, Chao – H5.9 Tai, Hsiang-Ting – D6.9 Techet, Alexandra – L32.11 Thoroddsen, S.T. – H33.1, H33.7, Sun, Chao – D31.7 Taira, Kunihiko – G15.9 Techet, Alexandra – M27.3 S5.8 Sun, Chao – A31.1 Taira, Kunihiko – H29.8 Techet, Alexandra – M27.6 Thoroddsen, Sigurdur – H35.3 Sun, Chao – H11.6 Taira, Kunihiko – G17.10 Techet, Alexandra – G27.1 Thoroddsen, Sigurdur – L36.4 Sun, Chao – H20.2 Taira, Kunihiko – A9.7 Techet, Alexandra – D13.2 Thoroddsen, Sigurdur – M16.2 Sun, Dejun – G38.6, R18.1 Taira, Kunihiko – H29.4 Techet, Alexandra – D26.6 Thoroddsen, Sigurdur T. – E32.3 Sun, Jin – A2.2 Taira, Kunihiko – E4.4 Tedford, Edmund – H28.6, H31.6 Threatt, Arnesha – D7.6 Sun, Jin – E2.3 Takagi, Daisuke – L12.9, R37.8 Teisseire, Jérémie – G13.3, U30.13 Thrippleton, Michael – H7.8, L23.5 Sun, Jin – KP1.146 Takagi, Shu – KP1.37 Teisseire, Jeremie – D34.7, L49.1 Thundat, Thomas – G24.2 Sun, Rui – D3.7, R5.4 Takagi, Shu – L37.2 Tejada-Martinez, Andres – H30.2, Tian, Wei – L13.7 Sun, Shiwei – A30.6 Takagi, Shu – M22.7 H23.9, H23.10, L4.11, R31.3, Tian, Yifeng – H4.1, D8.2 Sun, Tao – R33.7 Takagi, Shu – M9.4 R31.4 Tiani, Reda – L28.11 Sun, Tiezhi – R25.11 Takagi, Shu – M9.9 Tembely, Moussa – R16.7 Tiari, Saeed – D14.10, D19.9, Sun, Wei – L24.2, T12.2 Takagi, Youhei – E25.6, M22.10 Temel, Fatma Zeynep – A28.1, M35.5, R10.5 Sun, Ying – G32.8 Takata, Shigeru – D36.7, G9.10 H6.6 Tierney, Lydia – L20.1, L20.2 Sun, Yiyang – G17.10 Takatori, Sho – A23.9, A49.10 Templeton, Jeremy – D9.7, H21.3, Tilley, BS – D1.6, M16.10 Sung, Hyung Jin – A27.7 Takeuchi, Hideki – KP1.139 M31.10 Tim, Colonius – L14.10 Sung, Hyung Jin – G22.5 Tallapragada, Phanindra – D26.7 Temtem, Márcio – G35.3 Tinguely, Marc – A4.2, H36.3, R5.7 Sung, Hyung Jin – G22.7 Tallapragada, Phanindra – M5.4 Tenenbaum-Katan, Janna – D15.9, Tinney, Charles E. – KP1.3 Sung, Hyung Jin – E23.5 Talnikar, Chaitanya – E8.3, E8.6, G25.10 Tirandazi, Pooyan – L38.1 Sung, Hyung Jin – G27.6 R2.4, R2.5 Tenneti, Sudheer – A3.3 Tirumkudulu, Mahesh – D6.5 Sung, Hyung Jin – L6.5 Talon, Laurent – D29.5, H3.5 Tenneti, Sudheer – R26.2 Tissot, Gilles – H29.10 Sung, Hyung Jin – R18.9 Tam, Daniel – H25.2 Tenney, Andrew – G5.2, F1.37, Tissot, Gilles – G38.7 Sung, Hyung Jin – L22.11 Tambasco, Lucas – D12.4, M33.9 L21.4 Tithof, Jeffrey – D29.2 Sup Song, Won – G16.10 Tammisola, Outi – G13.5, G20.6 Teramoto, Hiroshi – A29.2 Tithof, Jeffrey – M5.7 Sur, Samrat – R18.8 Tamura, Tetsuro – A21.4 Teran, Joseph – EA.7, R24.7 Tiwari, Bishnu – L39.3 Suramlishvili, Nugzar – G29.4, Tan, Beng Hau – H36.6 Terashima, Hiroshi – D5.1, G40.7, Tiwari, Dhirendra – G35.6 G35.8 Tan, Huanshu – A31.1, A31.4 H35.6 Tiwari, Sudarshan – H40.1, M10.10 Suresh, Pranav – G7.4, M25.10 Tan, Ming Kwang – A7.9, D7.7, Terrapon, Vincent – D12.1 To, Kiwing – D6.9, Z50.12 Suresh Babu, Arun Vishnu – E15.1 L40.10 Terrapon, Vincent – L33.8 Tobalske, Bret – H27.7, H27.8, L6.2 Suri, Balachandra – D29.2 Tan, Yan Ming – E26.6, L22.12 Terrapon, Vincent – L11.7 Tobias, Steve – E31.1, R30.6, Suri, Balachandra – M5.7 Tan, Yuehan – A17.5 Terrill, Christopher – L27.9 R30.7 Surko, C.M. – E7.2 Tanaka, Mio – D14.9, E36.4 Teste, Bruno – A24.9 Tobin, Nicolas – D28.2, M25.10 Surowka, Piotr – A35.12, G19.1 Tanaka, Tomoyuki – H23.2 Testik, Firat – L35.1, L17.12 Todd, Andrew – A10.6 Sutherland, Bruce – A11.5 Taneda, Keinosuke – D17.1 Tewari, Shubha – R35.7 Toga, K. Bugra – H32.2 Sutherland, Duncan – A19.9 Tang, Chao – R13.11 Thacker, Adrien – L4.8 Tognetti, Gaspar – L24.11 Sutherland, Kelly – G27.10, MQ.6 Tang, Clement – G10.10 Thalabard, Simon – J43.5, R19.2 Tohidi, Ali – A11.7, M19.9 Sutton, Jeffrey – A22.5, E14.2 Tang, Ho Lun – H20.2 Tham, Daniel – D18.6 Tokic, Grgur – H31.2 Suzuki, Nobuhiro – H30.1 Tang, Hongyang – D6.10 Thamann, Michael – E26.5, M29.3 Tollefson, Joshua – R30.1 Suzuki, Shota – E40.4 Tang, Jay – H4.1 Thameem, Raqeeb – R8.1, R8.2, Toloui, Mostafa – G21.8, G26.5, Suzuki, Toshihiro – H40.3 Tang, Jay – A28.5 Z45.11 L13.5, L33.1 Suzuki, Yuji – G31.4, M11.8, R14.6 Tang, Qing – A21.2, H22.10, Thangam, Siva – R10.2 Tomar, Gaurav – EP.1, H13.10 Svensson, Martin – E35.4 KP1.87, M25.2 Thangam, Siva – M39.4 Tomiyama, Akio – G6.6 Swain, Geoffrey – E26.6 Tang, Sindy – A15.6, E10.1, H12.10 Theillard, Maxime – D23.3, R31.3 Tompkins, Ben – M26.7 Swan, James W. – G2.1, W35.6 Tang, Tian – G15.9, L35.10 Theisen, Eric – FD.8, M1.2 Toner, Mehmet – AN.1, A24.1 Swartz, Sharon – H27.1, R28.1, Tang, Wenbo – A29.9 Theodoly, Olivier – D10.6, L38.3, Tong, Chenning – E21.3 R28.2, R28.3, R28.4, R28.5 Tang, Xiaoyu – G33.9 L38.10 Tong, Penger – G11.9 Swartz, Sharon M. – KP1.25, L6.1 Tang, Yifeng – E20.1, M26.2 Theodorakis, Panagiotis – E33.4, Toosi, Siavash – D8.5 Swinney, Harry – L29.2 Tang, Yihao – H6.7 H7.3, H10.2, R14.2 Tootkaboni, Mazdak – D34.9, R6.4 Swinney, Harry – L41.2 Tang, Yu-Hang – G7.3, G27.13, Thete, Sumeet – G18.6 Toppaladoddi, Srikanth – H11.4, Swinney, Harry L. – L29.6 R7.10, R23.12 Thete, Sumeet – G32.2 R19.10 Swinney, Harry L. – M31.1 Tanguy, Sebastien – D31.1, E9.1, Thete, Sumeet – L36.6 Torczynski, J.R. – M36.7 Swinney, Harry L. – R30.5 H3.2, H11.9 Thete, Sumeet – L36.7 Torczynski, John – D40.6, R1.7 Swisher, Nora – M18.2 Tani, Hiroumi – G22.2, G40.7 Thete, Sumeet – R16.3 Tordella, Daniela – A8.9, A27.3, Swisher, Nora – KP1.97 Tani, Marie – D10.6, J20.7 Thibault, Pierre – G8.6, H4.4 A36.5, G16.2, L30.4 Swisher, Nora – KP1.92 Tanisli, Murat – KP1.79, L32.9 Thiele, Uwe – E29.4, H4.10, R33.5 Tordjeman, Philippe – A8.4, L35.4 Szczudlak, Joshua – KP1.151 Tao, C.Y. – A11.3, H24.1, R12.8, Thiffeault, Jean-Luc – D11.2 Torniainen, Erik – R9.3 Szenicer, Alexandre – G9.8, G3.7 R24.9 Thiffeault, Jean-Luc – A29.6 Torres Victoria, Ayax Hernando Sznitman, Josue – D10.5 Tao, Ran – E1.5 Thiffeault, Jean-Luc – A29.5 – A3.7, KP1.168, KP1.169 Sznitman, Josue – G25.6 Taravella, Brandon – H5.3, M39.3 Thiffeault, Jean-Luc – H25.5 Toschi, Federico – L20.12 Sznitman, Josué – G25.10 Tarokh, Ali – KP1.133 Thiria, Benjamin – R38.3 Toschi, Federico – L20.11 Tarokh, Atefeh – KP1.133 Thiria, Benjamin – R40.7 Toschi, Federico – M11.2 -- T -- Tartakovsky, Alexandre – A31.5, Thiry, Olivier – E22.5, M18.7 Toschi, Federico – M10.8 T, Sundararajan – H13.8 E9.4, R4.11, M5.9 Thomas, Amalia – G35.1 Toschi, Federico – M10.7 T. Mohan, Manil – A8.6 Tas, Niels – G35.6 Thomas, Brian – R36.11 Toschi, Federico – R28.2 Taamallah, Soufien – E5.3 Tasadduq, Bushra – R8.10, R10.11 Thomas, C. – D11.6 Toschi, Federico – L2.4 Tabak, Esteban – G1.10, H31.1 Tasaka, Yuji – KP1.84 Thomas, Christian – H17.7 Toschi, Federico – D32.10 Tabeling, Patrick – R35.2 Tasaka, Yuji – H11.8 Thomas, Cory – A10.6 Toschi, Federico – L2.3 Tabkhi, Hanieh – KP1.100, M15.8, Taub, H. – KP1.90 Thomas, Emma – D18.1 Toschi, Federico – L2.2 M21.8 Tavakoli-Dastjerdi, Faryar – E36.6 Thomas, John – G6.7 Toschi, Federico – G29.9 Taccoen, Nicolas – E7.4, G36.6 Tavoularis, Stavros – D21.1 Thomas, Vaughan – H25.1, H25.2, Toschi, Federico – H40.7 Tachibana, Shigeru – H3.5, Tavoularis, Stavros – D21.2 H25.3, L13.3, R20.10 Tosi, Luis Phillipe – L14.10 KP2.34 Tavoularis, Stavros – D9.3 Thomases, Becca – D1.9, L7.5, Totpal, Alexander – R13.7 Tadmor, Gilead – R13.3 Tavoularis, Stavros – M26.4 L26.1, M23.7, M23.8, R8.5 Toulson, Elisa – A39.5 Tadrist, Loic – H11.3, M40.8 Taylor, Brian – E23.1, G38.2 Thomazo, Jean-Baptiste – G4.5 Toupoint, Clement – D30.7 Tafreshi, Hooman – M8.1, M8.2 Taylor, John – G30.1 Thompson, Alice – H18.3, L18.8, Towery, Colin – D5.9, D20.9, Tagawa, Yoshiyuki – L36.10 Taylor, John – L29.11 R22.6 W15.9 Tagawa, Yoshiyuki – M35.9 Taylor, John – L4.1 Thompson, Karten – M7.8 Towne, Aaron – G17.7 Tagawa, Yoshiyuki – KP2.9 Taylor, Katherine – A14.4, M7.7 Thomson, Jim – A13.3 Towne, Aaron – G17.6 Tagawa, Yoshiyuki – KP2.27 Taylor, Keith – A17.8, H25.7, L15.9 Thomson, Scott – L33.7 Tran, Davis – A14.4 Tagawa, Yoshiyuki – KP2.24 Taylor, Paul – R31.7 Thondapu, Vikas – M24.3, M26.9 Tran, Justin – H7.2, H24.3

143 Tran, Steven – L9.6 Tunuguntla, Deepak – G24.2, Valluri, Prashant – A33.9 Varghese, Philip – A39.2, D20.6, Tran, Steven – L9.5 G24.5, H10.3 Valluri, Prashant – L38.11 D34.9, D35.6, E6.4 Trask, Nathaniel – D9.6 Turkington, Bruce – G20.1 Valluri, Prashant – E9.3 Varghese, Stephen – G29.9 Trastour, Sophie – G26.1, G26.2 Turner, John – KP2.3 Valluri, Prashant – R26.9 Variano, Evan – G3.7 Tremblay, Olivier – M39.5 Turner, John – L12.8 Valluri, Prashant – L23.5 Varsakelis, Christos – H2.5 Trevi no, César – KP1.55, L32.10 Tussie, Tomas – H6.3 Valluri, Prashant – M16.6 Varshochi, Hilda – H22.3, M2.7, Triana, Santiago A. – AV.7, AV.8, Tuteja, Anish – E14.1, H8.2, H8.9, Valorani, Mauro – G40.5, L5.4 M18.3 E30.1 R18.3 Van Beeck, Jeroen – L6.2, M31.3 Vasil, Geoffrey – M31.5, M19.10, Triantafillu, Ursula – F2.23, L26.10 Tutkun, Murat – H22.8 Van Buren, Tyler – A26.7, D16.4, R30.8, R16.6 Triantafyllou, George – A18.1, EP.6 Tutkun, Murat – G12.9 E14.4, E26.4, G27.8, L26.7, Vasilyev, Oleg V. – D40.8, H21.2, Triantafyllou, Michael – H27.5 Tutkun, Murat – L12.9 L28.11, R38.8, R32.1 H21.7, R7.7 Triantafyllou, Michael – H37.4 Tutkun, Murat – L12.5 van de Moortele, Tristan – H26.5, Vassilicos, Christos – R32.8 Triantafyllou, Michael – E15.3 Tutkun, Murat – G21.10 M25.9 Vassilicos, J. Christos – L7.11 Triantafyllou, Michael – H16.9 Tutkun, Murat – E19.2 Van de Riet, Keith – A25.7 Vassilicos, J.C. – A25.8, H27.9, Triantafyllou, Michael – E26.3 Tutkun, Murat – D19.5 Van de Vondervoort, Mia – R9.8 L28.10, M20.8, M30.6, R32.9 Triantafyllou, Michael – M15.3 Tutty, Owen – AL.8, A16.5 van de Water, Willem – G22.8, Vassilicos, John Christos – D19.3 Triantafyllou, Michael – M25.1 Tyagi, Mayank – M7.8 H14.6, M28.9 Vassilicos, John Christos – R20.1 Trieling, Ruben – D11.6, G29.9, Tympel, Saskia – H8.6, L20.11, van den Berg, Marc – AH.5, L35.8 Vassilicos, John Christos – M20.9 R29.3 L20.12 van den Bremer, Ton – H23.5, Vassilicos, John Christos – M20.5 Trinh, Philippe – L30.10 Tynan, G. – PP12.97, H20.3 M5.1, R31.7 Vassilicos, John Christos – M20.3 Tripathi, Anjan – H3.8 Tytell, Eric – A26.1, D26.4, M28.8 van den Ende, Dirk – G31.2 Vassilicos, John Christos – M20.2 Tripathi, Manoj – A14.7, A32.4, Tytell, Eric D. – R37.9 van den Ende, Dirk – G31.1 Vasudevan, Mukund – R17.3 R4.1, R4.2, R5.6, R26.7, R36.12 van der Bos, Arjan – G15.1, L35.8 Vasyliv, Yaroslav – A31.2, G7.2 Tritschler, Volker – G40.1, R13.9 -- U -- van der Hoef, Martin – H36.5 Vaughan, Benjamin – G25.5 Trittel, Torsten – G34.3, R36.5 Udaykumar, H.S. – E2.1, A40.3, van der Meer, D. – R12.6 Vedantam, Srikanth – D6.5, H10.7 Troian, Sandra – G29.3 J4.1, K6.2, P1.1, S2.1, S2.2, S2.3 van der Meer, Devaraj – R12.7 Vedula, Prakash – H40.5 Troian, Sandra – R16.2 Uddin, Jamal – M16.2 van der Meer, Devaraj – R12.10 Vedula, Vijay – D7.5, M24.10 Trojer, Mathias – A1.6, D3.5 Uddin, Jamal – L36.4 van der Meer, Devaraj – M32.5 Veerapaneni, Shravan – E37.2, Troshin, Victor – A30.8, R13.3 Ueckermann, Mattheus – L21.8 van der Meer, Devaraj – R36.5 L5.1 Troutman, V.A. – M28.3 Ueckert, M – D1.6, M16.10 van der Poel, Erwin – M11.1 Vega-Martínez, Patricia – H13.3 Trouve, Arnaud – D23.3, G39.10 Ueda, Kazuhiro – KP2.33 van der Poel, Erwin – G11.8 Vejdani, Hamid – H27.1 True, A.C. – R37.11 Ueno, Ichiro – R16.6 van der Poel, Erwin – G11.6 Vela-Martin, Alberto – H27.5, Trujillo, Ernesto – M4.4 Ueno, Kazuyuki – JR.1, JR.3, van der Poel, Erwin – G11.7 R19.6, R19.12 Truman, C. Randall – E39.2 H19.4 van der Vaart, Kasper – D17.8, Velarde, John-Michael – 1A.9, Truman, C. Randall – E39.1 Ugajin, Takuya – E11.6 H10.2 KP1.171 Truong, Christine – D27.2 Ukeiley, Lawrence – E4.4 van der Veen, Roeland – H20.2 Velasco Fuentes, Oscar – E29.1, Truong, Tien – R13.9 Ukeiley, Lawrence – M19.7 van der Veen, Roeland C.A. – R18.3 Truscott, Tadd – M35.1 Ukeiley, Lawrence – E19.6 R20.5 Vella, Dominic – A33.7 Truscott, Tadd – M32.10 Ukeiley, Lawrence – G17.10 van der Voort, Dennis – M28.9 Vella, Dominic – G28.6 Truscott, Tadd – G33.7 Uksul, Esra – R13.5 van Gils, Dennis – M10.10 Vella, Dominic – L23.4 Truscott, Tadd – L33.7 Um, Eujin – A10.8, H2.3 van Gils, Dennis P. M. – L11.2 Vella, Dominic – R8.8 Truscott, Tadd – H32.1 Umbanhowar, Paul – H10.6 van Gorp, Thijs – R29.8 Vella, Dominic – D23.8 Truscott, Tadd – D31.8 Umbanhowar, Paul – H10.4 van Heijst, GertJan – L4.3, M21.3, Velte, Clara – A22.7, D27.8, D27.9, Tryggvason, Gretar – R35.8 Umbanhowar, Paul B. – L10.7, M28.9, R29.8 D29.8, D29.9 Tryggvason, Gretar – D14.4 S44.3 van Hinsberg, Michel – A32.2, Vemuri, Hari – E17.2 Tryggvason, Gretar – G7.6 Umemura, Yutaka – G40.7 L2.2, L2.4 Venayagamoorthy, Karan – D21.5 Tryggvason, Gretar – M22.1 Unal, Mehmet Fevzi – L16.6 van Hout, Rene – A19.1, A32.7, Venayagamoorthy, Subhas – Tryggvason, Gretar – M22.2 Underhill, Patrick – G23.5 M9.7 M30.9 Tryggvason, Gretar – R25.1 Ungarish, Marius – M30.10 van Kuik, Gijs A. M. – E28.5 Venayagamoorthy, Subhas Karan Tsai, Hsieh-Chen – H30.8, R14.4 Uno, Atsuya – H27.2, R21.1 van Limbeek, Michiel A.J. – D31.7 – H36.1, L30.9 Tsai, J.C. – D6.4 Unruh, William – H28.6, H31.6 van Loo, Stephanie – L38.6 Ventura, Nathaniel – M5.9 Tsai, J.C. – R12.8 Updegrove, Adam – G31.5, L6.4 Van Poppel, Bret – H1.4, KP1.75, Venturi, Daniele – M31.1, R5.1 Tsai, Pei Hsun – E32.4 Uranakar, Harshavardhana – L5.8 Venugopal, Vishnu – A18.8 Tsai, Peichun Amy – E10.4 H39.4 van Rees, Wim – A12.2, G27.4 Venuturumilli, Raj – D3.9 Tsai, Scott S.H. – L39.4, R9.8 Urzay, Javier – D5.9 van Rees, Wim M. – G27.7 VerHulst, Claire – E24.2, L12.1, Tsamopoulos, John – A1.5, A1.6, Urzay, Javier – D5.10 van Reeuwijk, Maarten – G3.9, L13.3 D5.4, E12.5, L24.5, M8.5, R26.8, Urzay, Javier – G40.3 R31.7 Verma, Aekaansh – H24.8 R22.9 Urzay, Javier – R21.11 van Rhijn, Alexander – E27.1, Verma, Mahendra – CO5.10, Tsang, Alan Cheng Hou – D23.4, Urzay, Javier – L2.10 G29.2 TO5.6, L11.10, R19.9 G6.8 Usha, R – G13.5, M16.8 van Rooij, Tom – L37.4 Verma, Salman – G39.10 Tsang, Yue-Kin – E31.6 Uyeda, C.M. – R2.9 van Wachem, Berend – H3.7, R6.7 Vermach, Lukas – A16.2, G28.9 Tsaoulidis, Dimitrios – H5.8, H8.2, van Wachem, Berend G.M. – H7.4, Vermant, Jan – A23.9, J7.2 M20.10, R15.10 -- V -- L18.10, R22.10 Vernay, Clara – A15.1, A32.8, Tseluiko, Dmitri – L18.8 V, Kumaran – R12.5 van Wyk, Stevin – R24.3 M15.2 Tseluiko, Dmitri – L18.5 V, Raghavan – H13.8 Vanapalli, Siva – M23.6 Vernescu, Bogdan – H2.2 Tseluiko, Dmitri – R33.5 V., Kumaran – A12.6 Vanapalli, Srinivas – G35.6 Vernet, Julie A. – L15.2 Tseluiko, Dmitri – M16.9 V. Vasilyev, Oleg – R7.9 Vandembroucq, Damien – R40.3 Verneuil, Emilie – G13.3, L19.1 Tseluiko, Dmitri – M16.3 Vécsei, Miklós – M16.4 Vanderwel, Christina – D21.3, Veron, Fabrice – R31.3 Tsoumpas, Yannis – A32.7 Vadala-Roth, Benjamin L. – H24.5 G28.1, R22.1, R29.1 Veron, Fabrice – R31.4 Tsoumpas, Yannis – A33.2 Vadarevu, Sabarish – D29.10 Vandewalle, Nicolas – H32.6 Veron, Fabrice – R31.5 Tsubokura, Makoto – A21.4 Vahidkhah, Koohyar – R23.1 Vandewalle, Nicolas – G15.1 Verschoof, Ruben A. – R20.5 Tsubokura, Makoto – R14.5 Vaidya, Ashwin – KP1.163, Vandewalle, Nicolas – L25.6 Versluis, Michel – E32.4 Tsuchiya, Hokuto – G5.1 KP1.167, KP2.12, G3.5 Vandre, Eric – L28.7 Versluis, Michel – L37.4 Tsuji, Yoshiyuki – L28.9 Vainchtein, Dmitri – A24.2 Vanella, Marcos – L7.3 Versluis, Michel – L35.8 Tsuji, Yoshiyuki – H18.4 Vakarelski, I.U. – H33.1 Vanka, Surya Pratap – R36.11 Verstappen, Roel – D8.4, L9.2 Tsukahara, Takehiko – KP1.69 Vakarelski, Ivan Uriev – H35.3 Vanneste, Jacques – A22.8, E31.6 Vertenstein, Mariana – KP1.159 Tsunoda, Masaya – E30.2, R14.5 Vakulenko, Sergey – R28.10 Vannozzi, Carolina – A15.2, L35.3 Verzicco, Roberto – G11.7 Tu, Jonathan H. – A9.6, H25.8 Valente, Pedro – E27.2, G35.3 Varanakkottu, Subramanyan – Verzicco, Roberto – G11.8 Tu, Shenyinying – M25.4 Valenzuela, Joanna – A28.4 R 27.8 Verzicco, Roberto – H20.4 Tuckerman, Laurette S – R17.4, Validi, AbdoulAhad – A39.5, H34.8 Varanasi, Kripa – A36.7 Verzicco, Roberto – H20.5 R17.5 Valignat, Marie-Pierre – D10.6, Varanasi, Kripa – H35.6 Verzicco, Roberto – R28.8 Tulchinsky, Arie – D15.4, L18.6 L38.10 Varble, Nicole – D16.7, L23.8 Verzicco, Roberto – M11.1 Tulgestke, A.M. – M28.3 Vallikivi, Margit – D26.4, G22.8 Varga, Zsigmond – G2.1 Verzicco, Roberto – M22.8 Tully, Susan – D17.5 Vallis, Geoffrey – E31.6 Vargas-Magaña, Rosa – E29.3 Viallat, Annie – R23.8 Tumin, Anatoli – H17.1 Vallis, Geoffrey – G20.6 Varges, Priscilla – R11.4 Viboud, Samuel – M1.6, L30.5 Valluri, Prashant – H28.8

144 Viggiano, Bianca – G12.9 -- W -- Wang, Mengyu – E1.2 Weislogel, Mark – L28.4 Vijayakumar, Ganesh – D28.4, Wachs, Anthony – M7.4 Wang, Mengze – KP1.164 Weiss, Robert – B43.9, L7.9 L30.3 Wachtor, Adam J. – H20.10 Wang, Mu – A2.5 Weiss, Stephan – M10.2 Villafane, Laura – G3.2 Wada, Shigeo – G25.6, LK.3 Wang, Qiming – L18.7, L28.3, Weiss, Talia M. – H27.2 Villanueva, Alex – R37.4, R12.2 Wadhwa, Navish – G27.3, H25.3, T49.5 Weissburg, M.J. – R37.11 Villermaux, Emmanuel – E13.6 M6.7 Wang, Qing – L9.1 Weissmueller, Joerg – G11.5, H1.7 Villermaux, Emmanuel – D32.9 Wagemann, Enrique – G9.4, G9.5, Wang, Qiqi – H16.5 Weitz, Dave – D24.7, Y10.2 Villermaux, Emmanuel – H35.1 W22.11 Wang, Qiqi – E8.6 Weitz, David – E1.4 Villermaux, Emmanuel – G1.1 Wagenhoffer, Nathan – D7.10 Wang, Qiqi – D8.7 Weitz, David – KP1.16 Villermaux, Emmanuel – D2.8 Wagner, C. – KP1.90 Wang, Qiqi – E8.3 Weitz, David – G1.9 Villermaux, Emmanuel – L5.2 Wagner, Caroline – E1.2, E1.6, Wang, Ruo- Qian – A14.4 Wells, Andrew – G11.5 Villermaux, Emmanuel – R26.12 G10.2 Wang, Ruo-Qian – A14.1, M7.7 Wells, Andrew – M29.9 Villone, Massimiliano Maria – Wagner, Christian – E24.4 Wang, Shaofei – M15.5, M18.4 Wells, Andrew – M29.10 G2.10 Wagner, Christian – A12.1 Wang, Sheng – R33.4 Wells, Gary – D31.5 Vincent, Lionel – H27.6, M9.10 Wagner, Gregory – G30.4, M36.6 Wang, Shih-Hao – L38.8 Welsh, Nathaniel – L24.11 Vincent, Olivier – G9.8, G3.7 Wagner, Justin – K4.2, D4.2, Wang, Shixiao – D11.7, E16.6, Wen, Baole – R10.7 Vincent, Thomas – H10.9 D32.8, L21.2 E21.3, G19.5, G33.5, H19.2 Wen, Baole – D1.5 Vinod, Ashwin – D18.2, R1.4 Wagoner, Brayden – G32.2 Wang, Shiyan – A23.5, H17.1 Wen, Chaofan – A1.3, D12.7 Vinuesa, Ricardo – G27.9, L22.9, Wahl, Colin – Q1.47, M5.9 Wang, Shizhao – D33.5, L7.10 Wen, Jennifer – R11.3 L32.5 Wai, Jonathan – A9.4 Wang, Sung-Ning – D12.3, R19.4 Wen, Xin – R21.6, Q1.13 Viola, Francesco – D8.1 Waisbord, Nicolas – L1.6, M17.4 Wang, Wentian – G40.2 weng, Dengming – A6.2 Viola, Francesco – R33.1 Waisman, Dan – D10.5, D5.9 WANG, XIANG – E35.5 Wentzel, Andrew – KP1.30 Viola, Francesco – R33.11 Wajnryb, Eligiusz – H2.9 Wang, Xiaofeng – A33.4 Weon, Byung Mook – KP1.39 Viola, Ignazio Maria – D17.5, Wajnryb, Eligiusz – E23.3 Wang, Xiaolin – M13.10 Weon, Byung Mook – R35.5 H15.4, R30.3 Wakimoto, Tatsuro – L28.9 Wang, Xiaoling – D24.7 Weon, Byung Mook – G35.5 Violeau, Damien – M39.8 Waldman, Rye – E29.4, H33.9 Wang, Xincai – M36.9 Weon, Byung Mook – A33.3 Virot, Emmanuel – E36.1, G24.2, Waleffe, Fabian – H11.1 Wang, Xue-Ying – M10.9 Wereley, Steve – D10.10 M13.5 Walker, Jessica – G24.10, G26.6 Wang, Yan – M17.1 Werer, Michael – G1.6 Viroulet, Sylvain – H10.5 Walker, Lynn – D37.4 Wang, Yankui – KP1.144, L16.7, Wermer, Lydia – G40.9 Visbal, Miguel – M14.4, R4.7 Walker, Phillip – A29.9, D17.3 L12.2 Wermer, Lydiy – E6.1 Visser, Andre – LL.10, G27.3 Walker, Rachel – H30.2, H23.9 Wang, Yanxing – A40.2, D16.3 Wesfreid, Jose Eduardo – R17.8 Visser, Claas Willem – D32.9, Wall, Darren – G29.2 Wang, Yayun – A4.5, E32.4 Wesfreid, Jose Eduardo – A9.5 H12.4 Wallace, James – D27.2, H22.9 Wang, Yin – G11.9 Wessling, Matthias – HC.7, H14.4, Visser, Claas-Willem – E32.4 Walls, Peter – H1.5, H9.4, H30.7 Wang, Yingqiao – D6.10 H14.6 Viswanath, Kamal – G38.1, G38.3, Walther, J. H. – G9.1, G9.4, G9.5, Wang, Yuan – A30.6 Westergaard, Carsten – D30.2, G38.4, M17.3 M9.3 Wang, Yuli – R33.2 G12.10, G29.8 Viswanathan Pillai, Vinod Kumar – Walther, Jens Honore – KP1.156, Wang, Z Jane – L27.1 Westerweel, Jerry – A19.1 M25.8 R15.3 Wang, Z. Jane – L27.5 Weston, Brian – G7.7 Vitale, Alessandra – G18.5, L8.6, Wan, Jiandi – R23.6 Wang, Z. Jane – L27.2 Wettlaufer, John – H11.4 M43.10 Wan, Qian – D4.1, F2.6, G35.7 Wang, Zhantao – G31.10 Wettlaufer, John – M5.3 Vitry, Youen – A36.3 Wan, Yin Chi – M36.9 Wang, Zhenyu – L13.7 Wettlaufer, John – D23.8 Vlachos, Pavlos – M27.4 Wan, Zhenhua – G38.6 Wang, Zhiqiang – D5.7, H24.4 Wettlaufer, John – H1.1 Vlachos, Pavlos – M24.5 Wang, An – H13.5 Wang, Zuankai – G35.10, KP1.60, Wexer, Jason – M8.7 Vlachos, Pavlos – G26.8 Wang, An-Bang – AH.5, E32.4 N39.1 Wexler, Jason – M8.8 Vlachos, Pavlos – H24.7 Wang, Cheng – L40.4 Ward, Kevin – L18.4 Weyer, Floriane – H15.4, H32.6 Vlachos, Pavlos P. – H5.2 Wang, Cheng – R9.6 Ward, Michael – L39.8 Weymouth, Gabriel – G30.3, Vlahovska, Petia – J1.1 Wang, Cong – H5.10 Ward, Thomas – M35.6 R38.5 Vlahovska, Petia – A36.1 Wang, Dan – K1.80, R27.5 Ward, Thomas – R16.11 Wheatley, Vincent – A8.7, A8.8, Vlahovska, Petia – D37.9 Wang, Dayang – A11.2, D19.5 Ward, Thomas – E1.2 D39.8, H22.5, H22.6 Vlahovska, Petia – D37.8 Wang, Dong – D6.2 Warhaft, Z. – R21.8 White, Andrew – M35.6 Vlahovska, Petia – D37.6 Wang, Dong – D6.8 Warhaft, Zellman – H27.8, R41.7 White, Brian – M10.5 Vlahovska, Petia – L39.1 Wang, Dong – A6.2 Warren, Patrick – A10.8 White, Brian – A11.4 Vlahovska, Petia – L39.2 Wang, Dong – M12.6 Washuta, Nathan – A13.5 White, Brian – L29.9 Voelkel, Stephen – A39.2, D34.9, Wang, Fuxin – L19.12, M14.3 Wassermann, Florian – D27.1 White, Carl – E26.1 E6.4 Wang, Gerald – G9.3, L36.6 Watanabe, Takeshi – G28.8, R19.5 White, Christopher – H22.1 Vogel, Andrew – H16.3 Wang, Gonghao – R8.10, R10.11 Watanabe, Tomoaki – A28.2, White, Christopher – D2.9 Vogt, Tobias – H11.8, M23.1 Wang, Guiren – G20.8 D30.1 White, Christopher – A20.7 Voisin, Bruno – G1.5, E30.4, Wang, Guiren – KP1.68 Waters, Sarah – A7.6, H1.9, L23.4 White, Christopher – L32.8 M31.2, M31.3 Wang, Haifeng – D34.5, H6.5, Watson, Martha – R38.2 White, Christopher – R7.3 Volk, Andreas – R8.4 H6.9 Watterson, Amy – E23.6 White, Christopher – R20.8 Volk, Romain – G3.6, R19.1 Wang, Hu – G39.7 Wayne, Patrick – E39.2 White, Christopher M. – R32.12 Volkmann, U. – KP1.90, Z18.5 Wang, Jianxun – R5.4, R5.5 Wayne, Patrick – E39.1 White, Edward – G21.3 Vollmer, Doris – D33.2, M8.6 Wang, Jiayu – G31.4, R14.6, R14.7, Wearing, Martin – M29.5 White, Edward – E33.2 Voris, Alex – L33.5 R14.8 Webb, Adrean – KP1.159 White, Jacob – C9.5, H9.9 Vorobieff, Peter – E39.1 Wang, Jin – G21.6 Webb, Nathan – AD.1, E18.1 White, Justin – B27.7, KP1.94, Vorobieff, Peter – E39.2 Wang, Jin – G21.7 Webster, D.R. – R37.2 L10.5 Voth, Greg – L20.11 Wang, Jinjun – M14.10 Webster, D.R. – R37.11 Whitehead, Jared – E13.4, L33.7, Voth, Greg – L20.12 Wang, Kan – D20.10 Webster, D.R. – R37.6 R2.2 Voth, Greg – L20.1 Wang, Karen – A10.3, H8.6, H8.7 Webster, D.R. – L29.12 Whiteley, Jonathan – A33.7 Voth, Greg – L20.2 Wang, Li – KP1.137 Webster, Donald – L12.3, R38.6 Whittaker, Colin – R31.7 Voth, Greg – L20.6 Wang, Li – M3.6 Weheliye, Weheliye – D10.7, H8.1, Whittaker, Peter – R40.2 Voulgaropoulos, Victor – L35.11, Wang, Lian-Ping – R21.3 L35.11, R26.3, R26.4 Whyte, Seabrook – A11.8 R26.4 Wang, Lian-Ping – R21.6 Wei, Hsien-Hung – E13.5 Widstrand, Alex – KP2.8 Vowinckel, Bernhard – H3.5, Wang, Lian-Ping – L2.5 Wei, Mingjun – R13.1 Wieker, Devin – D6.6 R29.3 Wang, Lian-Ping – A4.1 Wei, Ping – M10.2 Wieland, Scott A. – D40.8 Vreugdenhil, Catherine – A30.3 Wang, Lian-Ping – A4.4 Wei, Ping – M10.1 Wiens, Alexander – A24.6, D26.2 Vriend, Nathalie – LM.6, L10.12, Wang, Lian-Ping – E22.3 Wei, Timothy – L26.9 Wiggins, S. – R28.4 R12.1 Wang, Lian-Ping – A21.1 Wei, Timothy – G24.3 Wijnperle, Daniel – G31.10 Vuillermet, Gael – G8.9 Wang, Lian-Ping – G6.8 Weidman, Patrick – A8.8, A19.3, Wijshoff, Herman – L35.8, M8.7 Vukasinovic, B. – AN.8, AQ.2, Wang, Lipo – M19.6 A19.5 Wilcox, Benjamin – E33.2, J34.8 A17.1 Wang, Liqiu – L5.7, L1.2 Weihs, Daniel – BV.10, GR.9, Wilczek, Markus – E29.4 Vukasinovic, Bojan – A17.4, Wang, Luda – D31.4, H9.1, H9.3, PU.5, H27.4 Wilczek, Michael – H25.7, R19.11, G15.10, R20.7 M30.5 Weinfurtner, Silke – H28.6, H31.6 R20.2 Vukovic, Ognjen – L3.2 Wang, Meng – L30.2 Weinhart, Thomas – G24.2, H10.3 Wilkening, Jon – L6.1 Wang, Meng – D20.10 Weinstein, Steven – G16.1, Wilkes, Ellen – L3.11, M1.9 KP1.165 Wilking, James – D24.7

145 Wilkins, Stephen – H16.10, M39.2, Wrobel, Jacek – L28.3 Yamamoto, Makoto – E36.4 Yen, Jeannette – R38.6 M35.5 Wu, Alex – E35.2 Yamamoto, Ryoichi – A12.3 Yeo, Khoon Seng – R13.9 Wilkinson, Anne – D25.7, G9.2 Wu, Bin – L21.7 Yamamoto, Yasufumi – L28.9 Yeo, Kyongmin – L39.2 Willard, Emma – KP2.23 Wu, Bin – L21.6 Yamashita, Masatoshi – H18.4 Yeo, Kyongmin – D2.5 Willen, Daniel – G3.4 Wu, Cheng-chin – KP1.152 Yamashita, Tatsuya – H4.8, M36.3 Yeo, Leslie – D7.7, L38.2 Williams, Adam – PR1.36, PR1.90, Wu, Fujia – G39.4 Yan, Jing – E10.5 Yeom, Eunseop – A8.1, A25.5, H28.8, H32.4 Wu, Hao – L9.1 Yan, Wen – A23.2, A49.10, D23.5 L24.4, M9.1, M26.3 Williams, David R. – E16.2 Wu, Hao – D5.4 Yanagisawa, Takatoshi – H11.8 Yesilyurt, Serhat – H6.1, H6.6, Williams, Forman A. – G40.3, Wu, Heng – R29.4 Yang, Di – L31.11 H6.7, R39.11 H35.3 Wu, Jack – R12.8 Yang, Di – L11.9 Yetisir, Metin – R4.5 Williams, Garth – G10.10, R2.11 Wu, Jeff X. – L19.2 Yang, Eunjin – D26.10, H15.9 Yeung, P.K – H27.1, H28.8, R21.8 Williamson, C.H.K. – H19.3 Wu, Jiacheng – G7.1, L23.11 Yang, Fan – G14.5 Yeung, P.K. – R21.5 Williamson, CHK – L16.8, L16.9 Wu, Jiezhi – A21.2, H22.10, Yang, Fan – L35.2 Yeung, P.K. – L4.7 Williamson, Nicholas – A21.5 KP1.87 Yang, Fan – R3.8 Yeung, Pui-Kuen – G20.2 Willits, Steve – R14.9 Wu, Jinlong – R5.4, R5.5 Yang, Fang – G20.8 Yi, Jingang – L40.7, R10.5 Wilroy, Jacob – A19.7, L15.4, L6.5, Wu, Juliana – R25.10 Yang, Fang – KP1.68 Yilixiati, Subinuer – G36.2 R12.4 Wu, Junru – A7.5, M17.8 Yang, Fengchao – D33.10 Yin, Xiaolong – A40.7 Wilson, Brandon – D39.2 Wu, Qianhong – A1.9, G3.9 Yang, Fu-Ling – EE.1, M12.9 Yoda, Minami – H28.7 Wilson, Brandon – D39.3 Wu, Sicong – G26.8, R22.10 Yang, Haihua – G38.6 Yoda, Minami – L39.10 Wilson, Bruce – R40.6 Wu, Ting – R19.8, J31.10 Yang, Jihee – L41.10 Yokoi, Kenta – L28.9 Wilson, Catherine – R40.2 Wu, Wei-Tao – M26.2, M11.4 Yang, Jongmin – G22.5 Yokokawa, Mitsuo – H27.2, R21.1 Wilson, Chris – R28.5 Wu, Wen – A22.3, L34.6 Yang, Jubiao – H16.1, H26.3, R7.10 Yokoyama, Tomoo – R15.9 Wilson, Nathan – G31.5, L6.4 Wu, Xiaohua – H22.9 Yang, Junfeng – D14.7, G10.9, Yong, Xin – M35.4 Wilson, Stephen – L28.10 Wu, Xiaohua – D8.8 H8.6, H34.10, L18.1, M17.1, Yong, Xin – KP2.25 Winckelmans, Gregoire – R15.4 Wu, Xuesong – D7.5, G17.4, H17.10 M17.3, M21.3, R11.3, R35.2 Yong, Xin – KP2.17 Winckelmans, Gregoire – E28.6 Wunsch, Scott – M31.4 Yang, Kyung-Soo – KP1.150 Yoon, Hyun Sik – R14.8 Winckelmans, Gregoire – E22.5 Wyart, Matthieu – M12.1 Yang, Lu – R26.6 Yoon, Juhyeon – L9.7 Winckelmans, Grégoire – D8.6 wyart, matthieu – D6.1 Yang, Mengmeng – E1.5, E1.6, Yoshikawa, Harunori – A11.3, Windom, Bret – H39.7 Wynn, Andrew – G20.10 G2.5 R11.5 Winter, Amos – A6.8 Wynn, Andrew – H29.6 Yang, Patricia – A24.4, R9.9 Yoshimatsu, Katsunori – R20.9 Winter, Amos – A14.4 Wynn, Andrew – L15.8 Yang, Sheng – G39.4, L26.5 Yoshimoto, Yuta – A43.5, C29.13, Winter, Amos G. – A14.1 Wysochanski, Clara – A27.1 Yang, Wenchao – B41.1, D18.10 M9.9 Winter V., Amos – D14.6 Yang, Xiang – D22.2, R22.12, Yoshinaga, Natsuhiko – H23.8, Winters, Kyle – M22.7, R17.7 -- X -- J49.6 F11.9 Wise, Daniel J. – H20.2, KP1.149, Xharde, Regis – H16.2, M39.5, Yang, Xiaolei – L13.8 Yossifon, Gilad – H14.7 R22.9 R 29.12, R17.9 Yang, Xiaolei – D28.1 Yossifon, Gilad – G14.1 Wise, Tyler – A26.1 Xia, Yi – A31.5 Yang, Xiaolei – R1.7 Yossifon, Gilad – H14.3 Witelski, Thomas – L28.1 Xia, Zhenhua – A4.2 Yang, Xiaolei – E28.2 Yossifon, Gilad – G14.2 Witte, Brandon – E26.5, M29.3, Xiang, Xinjiang – D30.2, D30.5, Yang, Xiaoquan – L8.4 Yotti, R. – R24.1 R32.7 D23.7 Yang, Xin – G32.8 You, Changfu – D5.2 Witteveen, Jeroen – R5.11 Xiang, Yang – L19.8, L19.12, Yang, Yang – R27.11 You, Donghyun – R14.6 Wojcik, Ewelina – G36.2, J50.1, M14.3, X25.9 Yang, Yantao – R28.8, R16.11 You, Donghyun – M7.7 P1.141 XIao, Cheng-Nian – R6.7 Yang, Yue – D19.8 You, Donghyun – H37.5 Woldeamlak, Solomon – G30.6 Xiao, Heng – D3.7, R5.4, R5.5 Yang, Yue – D19.6 You, Soyoung – R21.7 Wolf, Jason – G3.8 Xiao, Hongyi – H10.4 Yang, Yue – R15.10 Youn, Eric – D16.10 Wolf, William – L8.1 Xiao, Zuoli – R3.10 Yang, Zhibing – KP1.134 Young, Ethan – A7.7, L26.5, M26.5 Wollman, Andrew – D13.5, L28.4 Xie, Chun-Mei – L7.7 Yang, Zixuan – L31.10 Young, Roland M.B. – A30.5 Won, June – L38.9 Xie, Fangfang – E20.1, G11.1, Yao, Shuhuai – D13.8, G35.10 Young, William – D11.2 Won, Sang Hee – H39.7 M15.3 Yao, Xin – D15.2 Young, William – D11.1 Wong, Harris – H8.8 Xie, Quan – G9.6, G9.7, G14.4 Yao, Yi-Chen – G22.9 Young, William – G30.4 Wong, Harris – D10.9 Xie, Shengbai – L12.10, R1.4 Yap, Yoke Khin – L39.3 Young, Yin Lu – M13.10 Wong, Jaime – G5.10, R38.7 Xie, Yanbo – H11.6, R19.5 Yarbrough, Cody – G4.4 Young, Yuan-Nan – D37.8 Wong, Jeffrey – KP1.137 Xie, Zhihua – A3.9, A35.8, D9.1, Yarin, Alexander – H9.4 Young, Yuan-Nan – E24.5 Wong, Jeffrey – M3.6 G7.1, L33.11, R4.1, R33.1 Yarin, Alexander – G36.4 Yrac, Rommel – KP1.107 Wong, Sun – A39.7 Xie, Zhizhua – H7.1, L33.7 Yarin, Alexander – KP1.122 Yu, Huan – A16.4 Wong, Tak-Sing – D33.7 Xin, Wang – L40.10 Yariv, Ehud – D37.2 Yu, Hui – G23.3 Wong, Teck Neng – D15.2 Xing, Zikun – L6.3 Yariv, Ehud – G14.9 Yu, Huidan (Whitney) – E20.3, Wonnell, Louis – G20.3 Xu, Chenjie – A32.7, L37.3 Yarom, Ehud – L31.8, M17.6 F1.27, H24.4, H36.10, R24.6 Wood, David – R32.10 Xu, Chun-Xiao – G22.9, L7.7 Yarusevych, Serhiy – L33.3 Yu, Jie – A16.11, M31.7, S34.9 Wood, David H. – G18.10, G33.7, Xu, Duo – L7.1, R17.10 Yarusevych, Serhiy – H19.6 Yu, Kuai – A12.5 M14.9 Xu, Feng – M3.7 Yarusevych, Serhiy – E17.6 Yu, Miao – E37.1, R13.2 Wood, Jeffery A. – L26.11 Xu, Haitao – R19.4 Yasuda, Shugo – A12.3 Yu, Taejong – A33.5, H37.5 Wood, Stephen L. – E28.1, L35.1 Xu, Haitao – G20.4 Yates, Matthew – M4.7 Yu, Xiangming – D8.3 Woods, Andrew W. – L1.2 Xu, Hui – D38.7, KP1.155, W41.14 Yatsyshin, Petr – H28.6, M8.9, Yu, Zhaosheng – A4.4, H31.7 Wooldridge, Margaret – EB.8, Xu, Min – R13.1 M9.5, L36.3, R33.9 Yuan, Bing – L29.8, H1.85 ED.7, ED.8, G40.5 Xu, Mu – M5.7 Yau, Peter M. K. – H30.5 Yuan, Chun – HL.3, H24.9 Worster, Grae – E1.5, M29.5, Xu, Mu – D11.9 Yavuz, Mehmet Altug – M4.6 Yuan, Huijing – A9.3, A11.6, R16.5 Xu, Muchen – E26.2, H8.1 Yawar, Ali – E32.1, E32.2 A21.2, H22.10, KP1.87, L33.12, Worster, M. Grae – L22.3, M29.6 Xu, Qian – L17.11, W33.7 Yazdani, Alireza – R4.11, R23.3, M19.7, M19.8, M20.9 Worth, Nicholas – A7.3 Xu, Sheng – R6.6 R13.10 Yuan, Jinzhou – H9.6, M23.4, R8.9 Wosnik, Martin – L13.2 Xu, Xinliang – G23.10 Yazdani, Miad – KP1.41, L4.1, Yuan, Junlin – R22.5 Wosnik, Martin – L12.8 Xu, Yang – M14.10 R32.11 Yuan, Wuhan – A35.2, D7.8 Wosnik, Martin – KP2.3 Xu, Yong – M35.7 Yazdi, Shahrzad – H23.1, H9.9 Yucel, Saliha Banu – L16.6 Wosnik, Martin – R1.11 Xuan, Xiangchun – A10.6, A10.7, Ybert, Christophe – H14.4, H33.8 Yudistira, Hadi Teguh – AR.9, Wosnik, Martin – H4.9 G10.9, R3.7 Yeaton, Isaac J. – H27.2 A33.4 Wosnik, Martin – E28.3 Xuan, Yuan – G40.6 Yecko, Philip – KP1.30 Yue, Dick – A13.2, A13.8, H33.7, Wosnik, Martin – D14.3 Xue, Qian – H26.1, H26.2, L18.11 Yee, Andrew – L39.10 R31.12 Wouchuk, Juan Gustavo – CO5.13, Xue, Xinzhi – R27.2 Yeh, Chi-An – G15.9, R20.9 Yue, Dick K. P. – KP1.158 L17.1, L17.7 Xue, Yahui – G11.5, H1.7, M2.2 Yeh, Peter – R38.10 Yue, Dick K.P. – D8.3, H29.8, Wray, Alex – D33.1 Yeh, Peter – KP1.118 H13.4, H31.2 Wray, Alex – G18.3 -- Y -- Yeh, Peter – A26.2 Yue, Pengtao – D33.10 Wray, Alex – M9.8 Yaghoobian, Neda – M39.7 Yeh, Wei-Ting – L38.8 Yue, Pengtao – G32.1 Wray, Alex – L18.3 Yakhot, Victor – G8.2 Yellapantula, Shashank – H39.5 Yui, Kimiya – L28.4 Wray, Alex – L18.1 Yakhot, Victor – G20.9 Yen, J. – R37.11 Wright, Stuart – G5.3 Yakhot, Victor – H17.3 Yen, J. – R37.6 Wrist, Andrew – M13.3 Yamaguchi, Takayuki – G23.2 Yen, J. – R37.2

146 -- Z -- Zhang, Duan Z. – G1.5 Zhao, Hui – A10.1 Zhou, Zhuoyu – L12.3, R38.6 Zadrazil, Ivan – M17.9 Zhang, J. M. – E10.2, L40.8 Zhao, Jiajun – L29.2, H1.356 Zhu, Chi – L24.1, L24.11, R24.4 Zainali, Amir – L7.9 Zhang, Jie – D6.10 Zhao, Kun – L18.1 Zhu, Delin – D23.5, G33.9 Zakerzadeh, Rana – 1A.29, L24.10 Zhang, Jie – H30.2 Zhao, Lihao – G32.8, H32.3, Zhu, Delin L. – H5.9 Zaki, Tamer – D12.5 Zhang, Jie – L4.11 L20.10 Zhu, Jianzhong – E26.1, H5.6, Zaki, Tamer – D12.9 Zhang, Ju – A3.5, J4.2, R2.1 Zhao, Longhua – D15.1 R26.11, R37.10 Zaki, Tamer – D12.4 Zhang, Jun – A27.3 Zhao, Longhua – H23.5 Zhu, Lailai – A32.3 Zaki, Tamer – G25.9 Zhang, Jun – L39.8 Zhao, Mingfei – KP2.17 Zhu, Lailai – H23.6 Zaki, Tamer – R16.4 Zhang, Junjian – G38.10 Zhao, Song-Chuan – M32.5, Zhu, Lailai – G32.9 Zaki, Tamer – G10.6 Zhang, Kungang – H32.4 T44.12 Zhu, Likun – F1.27, H36.10 Zaki, Tamer – H17.6 Zhang, Li – G14.5 Zhao, Wei – G20.8 Zhu, Qiang – E15.3 Zaki, Tamer – H22.7 Zhang, Likun – L29.2 Zhao, Wei – KP1.68 Zhu, Ruijie – M17.7, R37.10 Zaleski, Stephane – D33.9 Zhang, Longhui – D5.2 Zhao, Wenyi – L15.7 Zhu, Shuang – AJ.2, A11.6 Zaleski, Stephane – M22.2 Zhang, Lucy – H16.1, H26.3, R7.10 Zhao, Xin – R19.8 Zhu, Xiaojue – H20.4, R6.6 Zaleski, Stephane – M22.1 Zhang, Madeline – KP2.21 Zhao, Xinyu – A39.1, F37.9 Zhu, Xiaowei – A21.3 Zamansky, Remi – A8.4, D33.9 Zhang, Mengqi – A29.5, G38.7 Zhao, Yaomin – D19.6, G27.8 Zhu, Yiding – A9.3, A11.6, A21.2, Zambrano, Harvey – G9.4 Zhang, Pamela – R38.2 Zhao, Ye – A16.3, H24.4 D38.3, H22.10, KP1.87, L33.12, Zambrano, Harvey – G9.5 Zhang, Pei – H6.9, H6.5 Zhao, Yongzhi – L10.7 M20.9 Zambrano, Harvey – M9.3 Zhang, Peng – M35.7 Zhao, Yuchen – L10.6 Zhuang, Shiqiang – KP1.116, M1.4 Zandi, Sahab – D17.2 Zhang, Qi – R21.10 Zheng, Angen – M7.6 Zia, Roseanna – G2.4 Zarama, Francisco – A21.7, R32.3, Zhang, Shun – D25.1 Zheng, Hongyu – M36.9 Zia, Roseanna – G2.2 R32.4 Zhang, Songpeng – L1.5 Zheng, Hu – M12.6 Zia, Roseanna – H2.3 Zare, Armin – A20.7, D27.8, H22.4 Zhang, Wei – R3.3 Zheng, Hu – D6.2 Zia, Roseanna – A2.3 Zareei, Ahmad – L16.3, R31.2 Zhang, Wei – R4.4 Zheng, Matthew – L10.6 Zia, Roseanna – E2.2 Zaretzky, Paula – KP1.165 Zhang, Wei – L15.5 Zheng, Min – H27.6 Zia, Roseanna – E2.4 Zarif Khalili Yazdani, Alireza – Zhang, Wei – L4.12 Zheng, Shaokai – L23.5, M20.5 Ziazi, Reza – L1.7 M25.7 Zhang, Wei – L12.6 Zheng, Wenjie – D19.8 Zietsman, Lizette – D17.6 Zavadsky, Andrey – H1.9, R31.8 Zhang, Wei – E17.4 Zheng, Xiaoning – A14.2, D5.4, Zikanov, Oleg – A8.1 Zelenak, Dominic – E27.5 Zhang, Wei – G3.8 M15.3 Zikanov, Oleg – A8.2 Zeller, Robert – A21.7, L29.8, Zhang, Wenhao – M22.7 Zheng, Xu – E11.4 Zimmerman, Daniel – E23.6 R32.3, R32.4 Zhang, Wentao – G21.4 Zheng, Xudong – H26.1, H26.2, Zimmerman, Spencer – L32.2 Zemach, Charles – R19.3 Zhang, Wenyu – A28.5 L18.11 Zimmerman, Walter – H25.6 Zemach, Tamar – D3.10 Zhang, Xingchen – G38.6 Zheng, Zhong – G13.8 Zimmerman, William – H36.9 Zemskova, Varvara – M10.5 Zhang, Xuan – A8.2, A36.6 Zheng, Zhongquan – G38.10 Zivkov, Eugene – H19.6, H18.1 Zenit, Roberto – A2.7, A26.4, H1.2, Zhang, Xuehua – A31.1, A31.2, Zhong, Jin-Qiang – M10.9 Zonta, Francesco – H31.8, H33.9, H24.4, L19.6, L25.9, R5.2, R8.4 A31.4, H4.5, H36.5 Zhong, Lan – A24.8, G24.4 L11.3 Zeoli, Stéphanie – R5.8 Zhang, Yali – E10.4 Zhong, Li – D18.6 Zou, Hong-Yue – E22.6, G20.1, Zeyghami, Samane – L6.7, L27.7 Zhang, Yibin – M28.6 Zhong, Qiang – M30.3, M30.5 L11.4 Zgheib, Nadim – A11.6, D32.5, Zhang, Yiran – G36.3 Zhong, Xiao – L39.8 Zou, Liyong – F1.200, D21.7 R28.12 Zhang, Yiran – G10.4 Zhou, Ang – A26.2, R20.4 Zoueshtiagh, Farzam – L18.4, Zhai, Shengjie – A10.1, L6.8 Zhang, Yiran – G36.2 Zhou, Bowen – A30.6, L25.2 M6.4 Zhai, X.M. – H27.1, L4.7, R21.5 Zhang, Yongming – M6.5 Zhou, Chengzhe – G29.3, Z43.12 Zribi, Mohamed – G29.10, H17.6 Zhang, Alvin – L8.3 Zhang, Yu – R3.8 Zhou, Hua – G39.7 Zuniga Zamalloa, Carlo C. – R29.4 Zhang, Cao – D26.10, G21.6, Zhang, Yue – M12.4 Zhou, Jian – M30.9 Zunino, Heather – M4.3, M20.2 G21.7 Zhang, Yunchi – D38.4 Zhou, Ping – KP1.144 Zunino, Paolo – D16.1, D16.4, Zhang, Chao – L21.9 Zhang, Yuxin – G19.5 Zhou, Qi – D30.1 1A.29, H32.2, L24.10 Zhang, Chuanhong – A21.2, Zhang, Zhexuan – D29.1 Zhou, Qi – L4.6 Zuo, Luo – 1B.88, L10.1 H22.10, KP1.87, M25.2 Zhao, Benzhong – D3.5, H1.8 Zhou, Ran – Q12.1, L40.4 Zusi, Chris – D21.6, M19.1 Zhang, Dongrong – R20.11, L35.3 Zhao, Dongxiao – M18.10 Zhou, Yilong – A10.7 Zwicker, David – G26.1 Zhang, Dongyan – L39.3 Zhao, Hangbo – H1.6 Zhou, Yixian – L10.11 Zwicker, David – G26.2 Zhang, Duan – G7.5

147 148 Sheraton Boston ■ APS/DFD Session Rooms Beacon Complex A–H t ■ Other APS/DFD Rooms

H C THIRD FLOOR

B G

A F Board- room

COMMON- E Kent WEALTH

D Jefferson

Fairfax X • Fluids Education Lunch Hampton GARDNER

Exeter Dalton Clarendon Berkeley

• Workshop: All the Faces of Fluid Dynamics

WALKWAY TO CONVENTION CENTER t

REPUBLIC SECOND FLOOR FOYER REPUBLIC BALLROOM

D A B

. • Young Investigator Workshop C • Student Lunch

BACK BAY East BALLROOMS Grand Ballroom Independence Ballroom

West B

Liberty Ballroom A B C

CONSTITUTION BALLROOM

A B Hynes Convention Center

W THIRD LEVEL ■ APS/DFD Session Rooms

■ Other M APS/DFD Rooms

Ballroom C

• Invited Balcony Lectures Seating for Awards Ceremony Ballroom B

Ballroom A MW 310 311

M W 302304 306309 312

Suite 300 Down 301303 305 307 308 W M 313

Drop-Off (Lower Level)

W SECOND LEVEL Speaker Ready • Meet the APS Journal Rooms South Editors Reception Lobby Hall C RESTROOMS Hall D M • Gallery of Fluid • Exhibits Motion Video & Veterans Memorial Poster Sessions Auditorium • Refreshment Breaks • Student Poster • Awards Competition Ceremony & Invited • Technical Poster Session Lectures Résumé Help Desk

• APS/DFD Registration

Up M 207 208209 210

200

201 202203 204205 W M 206 W

EXIT TO SHERATON AND OTHER HOTELS

Drop-Off (Lower Level) W PLAZA LEVEL

South Lobby

M RESTROOMS

Business Center

First Aid Exhibit Exhibit Hall A Hall B

Main Lobby

COAT CHECK STREET DALTON

Public Safety Office

Up M Down 107 108109 110 111 M Towne The Stove Capital & Grille Spirits 101 102103 104105 W W

Drop-Off (Lower Level)

Bus Line-up for Reception Go down to Boylston St. for buses to Reception