2005 Ieee International Ultrasonics Symposium and Short Courses

PROGRAM 2005 IEEE INTERNATIONAL ULTRASONICS SYMPOSIUM AND SHORT COURSES

September 19–21, 2005 Conference Centre De Doelen Rotterdam, The Netherlands

A CONFERENCE OF THE IEEE ULTRASONICS, FERROELECTRICS, AND FREQUENCY CONTROL SOCIETY (UFFC-S) 65 TABLE OF CONTENTS

Invitation from the General Chair ...... 1 Travel Information ...... 2 Local Transportation ...... 2 Hotel Registration ...... 2 Miscellaneous Information ...... 2 Accreditation...... 3 Registration and Fees ...... 3 IEEE and UFFC-S Enrollment...... 4 Message Desk ...... 4 Proceedings ...... 4 Audio/Visual Equipment/Speaker Service Center (SSC) ...... 4 UFFC CD Archive...... 5 Opening Social Reception ...... 6 Conference Dinner Party ...... 6 Guest Program ...... 7 Sponsors ...... 9 Exhibits ...... 10 Short Courses ...... 10 Message from the Technical Program Chair ...... 20 Invited Speakers ...... 21 Symposium Organizing Committee ...... 22 Technical Program Committee ...... 22 2005 UFFC-S Administrative Committee ...... 26 Elected Administrative Committee Members ...... 26 Standing Committee Chairs and Vice-Chairs ...... 26 Future UFFC-S Symposia ...... 27 Plenary Session ...... 28 Technical Sessions ...... 30 All Author Index ...... 68 De Doelen Floor plan ...... 84 Condensed Symposium Program ...... Inside Back Cover

66 Rotterdam, The Netherlands September 19–21, 2005

67 WELCOME FROM THE GENERAL CHAIR

Ton van der Steen General Chair

Welcome to Rotterdam

It is indeed a pleasure to welcome you to the 2005 IEEE International Ultrasonics Symposium in Rotterdam, The Netherlands from Septem- ber 18 through September 21, 2005. The conference will be held in “De Doelen”, a conference centre at Rotterdam Central Railway Station, which is a 40-minute train ride from Schiphol, Amsterdam International Airport. It is a modern, very well equipped conference centre that is perfectly suited for conferences around 1000 delegates. Rotterdam is a multicultural city that has an interesting mixture of traditional and modern architecture. It has many museums, covering art, natural history, cultural anthropology, maritime life and many other topics with art collections ranging from Dutch masters through African sculptures to contemporary art. All museums are within easy walking distance from the conference centre. Rotterdam hosts the largest port in the world and both the river and the harbor create a special atmosphere in the city. The Pilgrim fathers started their journey from the Pilgrims’ church in the harbor of Rotterdam and Hotel New York, the cruise terminal of the Holland America Line, the main historic cruise line between the USA and Europe can also be found here. Other than the museums and historic sites Rotterdam has an extensive cultural and sports program. At the Doelen the grand finale of the Gergiev festival of the Rotterdam Philharmonic Orchestra will be given the Sat- urday night before the IEEE conference. The final of the World Champi- onship Baseball will be on the same evening in the Neptunus stadium, the home of the European champion and since Feyenoord, one of the top 3 soccer teams of the Netherlands plays a home match on Sunday, we will try to arrange tickets for delegates. Please check the conference website for details. It will be the third visit to Europe for the IEEE International Ultrasonics Symposium, and we trust that the Rotterdam conference in 2005 will be as successful as the Cannes conference in 1994 and the Munich conference in 2002. Hope to meet you all in Rotterdam,

Best Regards,

Ton van der Steen General chair

1 VENUE

Conference Centre, ‘De Doelen’ Willem Burgerzaal Complex Kruisplein 30 3012 CC Rotterdam The Netherlands http://www.doelen.nl/english_info.html

TRAVEL INFORMATION

From Schiphol Airport (main airport) in Amsterdam, there is a direct train connection to Rotterdam Central Railway Station every half hour. The traveling time is approximately one hour. See www.ns.nl for the timetable and prices.

You can buy your train ticket at the yellow machines just before the platforms. Near the platforms there is also a counter where you can buy a ticket. Tip! You can also buy your train ticket in the yellow machines while waiting for your luggage. You can pay with credit card (only MasterCard).

It is advisable to travel through Schiphol, however it is also possible to travel to Rotterdam Airport. The center of Rotterdam can be reached in about 15 minutes by car (A13) and by public transport (bus 33, direction central station, every 15 minutes).

Information about public transport Information number: 0900 9292 www.ns.nl

LOCAL TRANSPORTATION

For public transport (underground, tram or bus) you need a card called strippenkaart (€ 6,50, 15 strippen.) Available at the post office or railway station. You can also ask at your hotel where these are sold in the neighborhood.

HOTEL REGISTRATION

Blocks of rooms have been reserved at various hotels in Rotterdam. For information on hotel accommodations, bookings and a hotel reservation form see www.ieee-uffc.org.

Registration cut-off date is August 17, 2005. After this date, rooms and rates will be based on an availability basis only.

2 MISCELLANEOUS INFORMATION

Lunch: There is no location to have lunch at the venue. At the registration desk you can obtain a list of restaurants near the venue. Coffee, tea, water: Coffee, tea and water will be served during the breaks in the: Expohal, poster sessions (ground floor) Foyer room 2, Jurriaanse Zaal, exhibits area (first floor) Foyer room 1, Willem Burger Zaal (third floor)

ACCREDITATION

The Dutch Society for Medical Physics (Nederlandse Vereniging voor Klinische Fysica, NVKF) has accredited the symposium with 6 Continuing Professional Development points (CPD) per half workday. Category 1: International conference.

REGISTRATION DESK FOR THE SYMPOSIUM

The registration desk will be located in the Expohal on the ground floor (entrance, Willem Burgerzaal Complex, Kruisplein 30).

Saturday, September 17: 6:00 p.m.-9:00 p.m. Sunday, September 18: 7:00 a.m.-7:00 p.m. Monday, September 19: 7:00 a.m.-6:00 p.m. Tuesday, September 20: 7:00 a.m.-5:30 p.m. Wednesday, September 21: 7:00 a.m.-1:00 p.m.

REGISTRATION AND FEES

All Symposium participants and guests must register and are required to wear name badges. The Symposium fee includes admittance to all technical sessions, and a copy of the CD-ROM of the Symposium Proceedings will be mailed to all participants (except for one-day and guest registrants). Details of evening and social events are provided in the Social Program section.

A printed version of the Proceedings will no longer be available from the Symposium. However, it can be ordered directly from IEEE after the Symposium. Registration fee includes CD proceedings Before Aug. 1 After Aug. 1 IEEE Member $425 $525 Non-IEEE Member $525 $625 Student/Retiree $60 $60 Life Members $0 $0 One-Day Registration (without Proceedings) $300 $300 Additional CD Proceedings $75 $75 UFFC CD Archive (available only to UFFC members) $60 $60

3 IEEE AND UFFC-S ENROLLMENT

If you wish to join the IEEE when registering for the Symposium, you may register at the member rate and receive one year of free membership in the Ultrasonics, Ferroelectrics, and Frequency Control Society (UFFC-S).

If you are a current IEEE member and wish to become a first-time member of the UFFC-S, free membership is offered at the time of registration. You will receive the UFFC-S Transactions and all UFFC-S Newsletters published in 2005.

IEEE/UFFC-S enrollment forms will be available at the IEEE exhibit booth in Foyer Room 2.

MESSAGE DESK

Messages may be left at the Symposium Registration desk. Phone number registration desk (during opening hours): +31 (0)10 217 18 21 Fax number registration desk: +31 (0)10 217 18 22

PROCEEDINGS

The Symposium Proceedings (CD format) will be available around No- vember 15. A copy will be mailed to all paid registrants except guests and one-day registrants.

A printed version of the Proceedings will no longer be available from the Symposium. However, it can be ordered directly from IEEE after the Symposium.

Please note that only those papers presented at the Symposium will be included in the Proceedings.

AUDIOVISUAL EQUIPMENT/SPEAKER SERVICE CENTER (SSC)

All rooms will have a lap-top computer and a projector. Presentations should be in Microsoft PowerPoint or Adobe pdf format and have to be loaded into the Symposium computers at the Speaker Service Center [SSC, Hudigzaal, third floor, close to room 1 (Willem Burger Zaal)]. Presenting from your own laptops will not be permitted.

You may use a USB memory stick, CD, or your own lap-top to transfer your presentation to the Symposium computers. Technicians are available to assist you. Computers are available in the SSC to make alter- ations before transferring.

4 The presentation can be handed in at the SSC up until 1.5 hours before the session starts. Please note that when you have an early morning session you will need to up-load your presentation the day before. The SSC will be open: Sunday, September 18: 12 p.m. – 5 p.m. Monday, September 19 to Wednesday, September 21: 7 a.m. – 6 p.m.

Please bring a back-up of your presentation on CD or USB memory stick.

Speakers can also hand in their presentation from four weeks before the conference until the early morning of the day that the presentation is scheduled. From August 15th until the conference, a special web site will be open to up-load presentations. The web site can receive presentations until the Speakers Service Center opens on the day the presentation is given. For example, if your presentation is on Tuesday, September 20, you can up-load the presentation until Tuesday, September 20, 7:00 a.m.

Presentations made in PowerPoint can be uploaded, as well as audio- or video-material (if you use a special font, please upload that as well). The address of the website is: http://ftp.dedoelen.nl Your name, date, and time of the presentation have to be filled out to be able to up-load the presentation. Further instructions on how to up-load are mentioned on the site itself.

Presentations can only be up-loaded, neither down-loaded nor viewed by others. Only a technician from de Doelen has access to the presentations.

Should you have any questions or difficulties with the web site, please email: [email protected].

POLICY ON PHOTOGRAPHY

Recordings of presented slides by photo or video is not permitted.

WIRELESS LAN

Wireless LAN will be available at selected locations in the conference centre.

UFFC CD ARCHIVE

The UFFC digital archive is available in a CD ROM version for the low price of $60 for UFFC members only. Please see the registration form for ordering information.

5 OPENING SOCIAL RECEPTION

Date: Monday, September 19 Time: 6:00 p.m. to 8:30 p.m. Foyer Room 2, Jurriaanse Zaal (first floor, exhibits area) Expohal (ground floor, poster sessions) Admission and consumption free for delegates and guests.

After a welcome by Ivo Opstelten, the mayor of Rotterdam, drinks and cold and warm snacks will be offered. Furthermore, the winners of the student poster prize will be announced by Gerry Blessing, President of IEEE-UFFC. Live music will provide ambience to complete your first conference day.

CONFERENCE DINNER PARTY

Date: Tuesday, September 20 Time: 7 p.m. – midnight. Departure 8:00 p.m. Price: $50.00. $10.00 for students Dinner, drinks, and entertainment are included. Please register early. Description: Welcome on board the OCEAN DIVA; Europe’s biggest event ship. On board, you will have food, drinks and entertainment! All ingredients for this grand cruising event are in place. As we sail, you will be talking, eating, and dancing while the city passes by. All delegates are cordially invited to join this cruise. This event is highly subsidized for all delegates and for students there is only a token registration fee. Terms and conditions: Only entrance with party voucher. Vouchers can be bought in advance with conference registration or on- site at the registration desk. Please note that limited tickets are available so registration in advance is advised. Location: Wilhelminakade (cross the river -> Erasmus bridge (to the right), between the building with the green lights and Café Rotterdam). Route description is available at the registration desk. Public Transport: Tram From de Doelen -> Central Station: tramline 20, 23 or 25, get off at stop “Wilhelminaplein”. The first stop after the bridge. Cost: 3 strippen.

Tram 8 from Central Station or the city center (direction Spangen) and get off at stop “Leuvenhaven”, then you cross the bridge by foot. Cost: 2 strippen.

6 Underground From de Doelen -> Central Station: blue line direction “Slinge” or “Spijkenisse” and get off at stop “Wilhelminaplein”. Cost: 3 strippen.

Taxi Taxi’s can get you to the boat very easily (from the city center € 15) Phone taxi company: RTC +31 (0)10 462 60 60.

GUEST PROGRAM

A varied program is being planned to entertain those who register for the Symposium as guests. Registration permits you to enjoy our special reception every morning between 8 and 10 a.m. at the venue, as well as the evening social reception on Monday. Three guest tours, individually priced, will also be arranged for the enjoyment of the guests.

PLEASE NOTE: Only registered GUESTS (see special badge) may attend the guest reception. Check the registration desk for the time and location of the morning guest reception.

Terms and conditions for each Partnering Event: z Tours should be booked in advance when registering for the congress (see registration form). z Only entrance with daytrip voucher. z Tickets are not reimbursable after being purchased. z Tours depart from and return to Rotterdam. z English speaking guides accompany tours. z Please note that tours are based on a minimum number of participants per tour. Changes may occur for reasons beyond our control. z Please note that registration will be in order of received registration forms and payment.

Tour 1: Historic Delft Date: Monday, September 19 Time: 9:15 a.m. – 5:00 p.m. Price: $60, Lunch is included

Bus leaves from venue de Doelen. Meet at registration desk. For more information please come to the registration desk.

Delft is one of the oldest cities in The Netherlands; it received its municipal rights in the year 1246. In the year 1389 Delft opened her first sea port “Delftshaven”, which is now a part of Rotterdam. You will begin this visit to Delft with coffee and original Dutch pastry. Then you will have a city walk under the guidance of an English-speaking guide. You will visit “The new Church”. The lunch will take place in “t Boterhuis”, a building where they used to trade butter. In the afternoon you will make a trip by canal boat through the canals of Delft with many interesting sights. Finally you will visit a small factory where you can see how Delftware is made. Here you will find an extensive selection of Dutch ceramics and souvenirs.

7 Tour 2: ‘Typical Dutch’: visit the windmills Date: Tuesday, September 20 Time: 9:15 a.m. – 2:00 p.m. Price: $60, Lunch not included. Drinks and snacks are available on the boat.

City walk leaves from venue de Doelen. Meet at registration desk. For more information please come to the registration desk.

You will start the day with a walk through the city center. The guide will tell historical facts about Rotterdam and show important architectural works in the center. The walk ends at the dock where a boat is ready to set off for Kinderdijk. In Kinderdijk you will find 19 famous Dutch windmills, which were built in 1740 and are very well preserved. In 1997 the mills of Kinderdijk were put on the world heritage list of UNESCO. You will be able to visit one of the many windmills. You will be back in Rotterdam in the afternoon and have time to shop or visit one of the museums.

Tour 3: Architecture tour Date: Wednesday, September 21 Time: 10:00 a.m. – 5:00 p.m Price: $60, Lunch is included

Bus leaves from brasserie, café Dudok, Meent 88, Rotterdam For more information please come to the registration desk.

You will start the day with coffee with famous homemade apple pie in a well-known brasserie designed by architect W.M. Dudok. From there a touring car will pick you up and make a tour past architectural high- lights and the skyline of the city. Lunch is served in the “Euromast” (at 110 meters high) from which you have a great view over the city. After lunch have a stroll through the Museum Park and visit the Museum Boijmans van Beuningen.

CONFERENCE MANAGEMENT

FASS [email protected] and Het Congresbureau, Erasmus MC Rotterdam, The Netherlands [email protected]

8 SPONSORS

Main Sponsor

Philips Medical Systems

Sponsors

Development Corporation City of Rotterdam (OBR)

Port of Rotterdam Authority

Boston Scientific

OLDelft

Special Grants

Interuniversity Cardiology The Dutch Foundation for Institute of Ultrasound in the Netherlands (ICIN) Medicine & Biology (SUGB)

9 EXHIBITS

Time: Daily from 8 a.m. to 6 p.m.

Location: Foyer room 2, Jurriaanse Zaal (first floor) Foyer room 3, Van der Mandele Zaal (first floor)

Acqiris SA-Data Conversion Instruments Advanced Modular Sputtering, Inc. (AMS) Ferroperm Piezoceramics A/S HITACHI Medical Systems HONDA Electronics Co. Ltd. IEEE-UFFC Society Imasonic Lecoeur Electronique Microfine Materials Technologies PTE LTD Precision Acoustics Ltd. Smart Material GmbH Sonora Medical Systems, Inc. Sound Technology, Inc. Valpey Fisher Corporation W. L. Gore & Associates

SHORT COURSES

All courses are Sunday, September 18.

1 - Medical Ultrasound Transducers

8:00 a.m. – 12:00 p.m. Douglas G. Wildes and L. Scott Smith GE Global Research Center - Niskayuna, NY, USA

This course will provide an introduction to the design, fabrication, and testing of medical ultrasound transducers. Starting from an overview of the basic types of phased-array transducers (linear, convex, sector), we will discuss how the design for a probe is derived from its target application and how equivalent-circuit, finite-element, and acoustic field models can be used to optimize the design and accurately predict performance. A discussion of the structure of an ultrasound probe will lead to a survey of the different types of materials used in probes and their critical properties. Typical fabrication processes will be introduced and common problems in probe manufacturing will be summarized. Meth- ods for evaluating completed transducers will be discussed. The course will highlight recent developments in probe technology, including. single crystal piezoelectrics, cMUT transducers, multi-row and 2D arrays, and electronics in probes, and will discuss performance advantages and fabrication difficulties which may be associated with each. Douglas G. Wildes is a physicist with GE Global Research. He earned an A.B. in physics and mathematics from Dartmouth College and a Ph.D. in low-temperature physics from Cornell University, then joined

10 GE in 1985. Since 1991, Dr. Wildes’ research has focused on aperture design, fabrication processes, and high-density interconnect technology for multi-row and 2D transducers for medical ultrasound. Dr. Wildes has 19 issued patents and 18 external publications. He is a member of the American Physical Society and a Senior Member of the IEEE. L. Scott Smith is a physicist with GE Global Research. He earned B.S. and Ph.D. degrees in physics from the University of Rochester and the University of Pennsylvania respectively. Joining GE in 1976, he developed phased array probes for medical ultrasound. More recently, he examined novel probe materials and led projects on pediatric endoscopes and adaptive acoustics. Dr. Smith has 37 issued patents and over 35 refereed publications. He is a member of the American Physical Society and a Senior Member of the IEEE where he serves as Vice Chair for Transducers on the Ultrasonics Symposium’s Technical Program Com- mittee.

2 - Elasticity Imaging: Principles, Systems, Approaches and Applications

8:00 a.m. – 12:00 p.m. Stanislav Emelianov University of Texas - Austin, Texas, USA

Elasticity imaging is rapidly evolving into a new diagnostic and treatment-aid tool. The primary purpose of this course is to provide both a broad overview and comprehensive understanding of elasticity imaging, and, as such, it is well suited for both newcomers and active researchers in the field. Starting with a historical introduction to elasticity imaging, we begin to lay a foundation for static and dynamic approaches in elasticity imaging with a brief discussion of theory of elasticity including both the equation of equilibrium and the wave equation. We will also review the mechanical properties of soft tissues. Then, experimental aspects of elasticity imaging will be discussed with emphasis on data capture, signal and image processing algorithms to measure internal tissue motion induced by either internally or externally applied forces. Motion tracking methods will be introduced, and techniques to increase and optimize signal-to-noise ratio in strain imaging will be overviewed. Finally, techniques to map elasticity and other mechanical properties of tissue will be presented and discussed. Following an overview of elasticity imaging, the ultrasound elasticity imaging techniques and their biomedical and clinical applications will be presented. Advantages and limitations of each approach will be discussed and contrasted with other elasticity imaging techniques such as MRI or optical elastography. The course will conclude with overview of several experimental and commercial systems capable of ultrasound elasticity imaging, and discussion of current and potential clinical applications of elasticity imaging. Stanislav Emelianov received the B.S. and M.S. degrees in physics and acoustics in 1986 and 1989, respectively, from the Moscow State Uni- versity, and the Ph.D. degree in physics in 1993 from Moscow State University, and the Institute of Mathematical Problems of Biology of the Russian Academy of Sciences, Russia. In 1989, he joined the Insti- tute of Mathematical Problems of Biology, where he was engaged in

11 both mathematical modeling of soft tissue biomechanics and experimental studies of noninvasive visualization of tissue mechanical properties. Following his graduate work, he moved to the University of Michigan, Ann Arbor, as a post-Doctoral Fellow in the Bioengineering Program, and Electrical Engineering and Computer Science Department. From 1996 to 2002, Dr. Emelianov was a Research Scientist at the Biomedical Ultrasonics Laboratory at the University of Michigan. During his ten- ure at Michigan, Dr. Emelianov was involved primarily in the theoretical and practical aspects of elasticity imaging. Dr. Emelianov is currently an Assistant Professor of Biomedical Engineering at the University of Texas, Austin. His research interests are in the areas of medical imaging for therapeutics and diagnostic applications, ultrasound microscopy, elasticity imaging, photoacoustical imaging, cellular/molecular imaging, and functional imaging.

3 - Ultrasound Contrast Agents: Theory and Experimental Results

8:00 a.m. – 12:00 p.m. Nico de Jong and Michel Versluis Erasmus MC - Rotterdam, the Neth. & University of Twente - Enschede, the Netherlands.

The course consists of 6 main topics: a) First an overview will be presented of the (clinical and pre-clinical available) contrast agents, including the properties and characteristics of the gas inside the bubble and the shell surrounding it. b) Models of the behavior of small bubbles in a ultrasound field will be discussed. Simple models based on a one dimensional mass-spring system and more complicated models including gas and shell properties. c) Experimental ultrasound methods for UCA will be presented for characterizing the bubbles in a UCA, like harmonic and subharmonic scattering, absorption and attenuation. Also the influence of ambient pressure, temperature and gas concentration will be discussed. d) Experimental optical methods for characterizing individual bubbles. e) Imaging methods for contrast agents, like fundamental, harmonic, subharmonic and superharmonic and multi-pulse methods like pulse inversion, power modulation etc. and new methods like chirp excitation. f) Ultrasound mediated drug delivery: Interaction between mammalian cells and ultrasound in the vicinity of bubbles will be discussed. Nico de Jong graduated from Delft University of Technology, The Netherlands, in 1978. He got his M.Sc. in the field of pattern recognition. Since 1980, he has been a staff member of the Thoraxcenter of the Erasmus University Medical Center, Rotterdam, The Netherlands. At the Dept. of Biomedical Engineering, he developed linear and phased array ultrasonic probes for medical diagnosis, especially compound and transesophageal transducers. In 1986 his interest in ultrasound applications shifted toward the theoretical and practical background of ultrasound contrast agents. In 1993 he received his Ph.D. for “Acoustic properties of ultrasound contrast agents.” Currently he is interested in the development of 3-D transducers and fast framing camera systems. De Jong is the project leader of STW and FOM projects on ultrasound

12 contrast imaging and drug delivery systems. Together with Folkert ten Cate, MD, he is organizer of the annual European Symposium on Ultra- sound Contrast Imaging, held in Rotterdam and attended by approximately 175 scientists from all over the world. Since 2003 Nico de Jong is part-time professor at the University of Twente. Michel Versluis graduated in Physics in 1988 at the University of Nijmegen, the Netherlands, with a special interest in Molecular Physics and Astrophysics. Later, he specialized in the application of intense tunable UV lasers for flame diagnostics resulting in a successful defense of his PhD thesis in 1992. Michel Versluis is now a lecturer at the University of Twente, the Netherlands, in the Physics of Fluids group working on the experimental study of bubbles and jets in multiphase flows and granular flows. He also works on the use of microbubbles as a tool for medical diagnosis and therapy. Dr. Versluis teaches various courses in Fluid Mechanics, one of them focusing on the physics of bubbles.

4 - Recent Trends in Beamformation in Medical Ultrasound

1:00 p.m. – 5:00 p.m. Kai Thomenius General Electric’s Corporate R&D - Niskayuna, NY, USA

The goal of this introductory course is to review the design of ultrasound front ends and beamformers from a linear systems point of view including transduction, beamformation, and image formation functions. We will discuss analytical methods used in developing the design of a typical beamformer in use in diagnostic ultrasound today. The key points to be covered deal with methods of analysis of arrays and beamformers, the interaction of transmit and receive beams with clini- cally relevant targets, and how this interaction is used in image formation. The means by which these analytical methods contribute to a beamformer design and the trade-offs involved are reviewed. The techniques developed for such analysis will be applied to topics of current interest involving beamformation such as system miniaturization, 2D arrays, synthetic aperture techniques, and aberration correction. Kai E. Thomenius is a Chief Technologist in the Imaging Technologies Organization at General Electric’s Global Research facility in Niskayuna, NY. His focus is on Ultrasound and Biomedical Engineering. Previously, he has held senior R&D roles at ATL Ultrasound, Inc., Interspec Inc., Elscint, Inc., Inc as well as several other ultrasound companies, and is currently an Adjunct Professor in the Electrical, Computer, and Sys- tems Engineering Department at Rensselaer Polytechnic Institute where he teaches a course in general imaging. Dr. Thomenius’ academic background is in electrical engineering with a minor in physiology; all of his degrees are from Rutgers University. His long-term interests have been in ultrasound beamformation and miniaturization of ultrasound scanners, propagation of acoustic waves in inhomogeneous media such as tissue, the potential of bioeffects due to those acoustic beams, and determination of additional diagnostic information from the echoes that arise from such beams. Recently he has contributed to work on coherent

13 beamformers in millimeter wave radar applications. He is a Fellow of the American Institute of Ultrasound in Medicine.

5 - Micromachined Ultrasonic Sensors and Actuators

1:00 p.m. – 5:00 p.m. Ville Kaajakari, Amit Lal, and Richard White Cornell University - Ithaca, NY and University of California - Berkeley, CA

Part A: The goal of this part is to introduce the fundamentals of micromachining, and the way they affect the design and performance of ultrasonic sensors and actuators. We will cover established micromachining techniques, such as bulk micromachining and surface micromachining on silicon. Material on thin film deposition and found- ries will be presented. The relevant acoustic and ultrasonic properties of materials used in MEMS will be discussed for predictable device design. Nonlinearities, material property gradients, and internal stresses will be covered to describe their effect on design. Part B: Case studies of sonic MEMS will be presented. These include (1) electrostatic actuation of micromachined membranes, nonlinearities and effective electromechanical coupling, (2) comparison of PZT and thin-film piezoelectric actuation of silicon bulk and surface micromachined structures (silicon horn design, microphones, speakers, flexural plate waves, FBARS), and (4) nonlinear ultrasound in microfluidic devices, and (5) Micro resonators for RF communications. Amit Lal is an associate professor of electrical and computer engineering at Cornell University. He received his Ph. D. in electrical engineering from the University of California, Berkeley in 1996, and the B.S. degree from the California Institute of Technology in 1990. Amit Lal is the leader of the SonicMEMS group at Cornell University, which focuses on ultrasonics, micromachining, modeling of piezoelectric systems, use of radioactive energy sources in microsystems, and design and analysis of integrated circuits. He has published papers on ultrasonic sensors and actuators at conferences in ultrasonics and micromachining. He serves on the Technical Committee on Physical Acoustics in the IEEE Ultrasonics, Ferroelectrics, and Frequency Control Society. He holds patents on micromachined acoustic sources/receivers, and silicon-based high-intensity ultrasonic actuators. He is also the recipient of the NSF CAREER award for research on applications of ultrasonic pulses to MEMS. Richard M. White is a professor of EECS and a founding co-director of the Berkeley Sensor & Actuator Center at the University of California at Berkeley, Dick White has concentrated on ultrasonics and microsensors. He has published on thermoelastic wave generation, SAW transduction, and flexural plate-wave sensors. He has co-authored three books - a text for freshmen, a book on solar cells, and the reference book “Acoustic Wave Sensors”. White is a member of the National Academy of Engineering, and has received awards for his contributions to ultrasonics from the IEEE and the Ultrasonics and Frequency Control soci-

14 eties of the UFFC. His present research interests include ultrasonic airborne particulate monitoring and wireless passive proximity meter- ing of AC power use in dwellings. Ville Kaajakari received his M.S. and Ph.D. degrees in electrical and computer engineering fromUniversity of Wisconsin-Madison in 2001 and 2002, respectively. He is currently Senior Research Scientist at VTT Information Technology, Finland, where his research interest is RF-MEMS.

6 - Clinical Applications of Diagnostic Ultrasound

1:00 p.m. – 5:00 p.m. Folkert ten Cate and Juiry W. Wladimiroff Erasmus MC - Rotterdam, the Netherlands

The goal of this introductory course is to review the clinical applications of ultrasound imaging in cardiology. The presentation will be illustrated with realtime 2D and 3D Echoimages. Folkert J ten Cate, M.D., is director of the clinical echolaboratory of the Thoraxcenter , Erasmus MC in Rotterdam.His main interest is in cardi- omyopathies and ultrasound contrast both for diagnosis and treatment. He is a Fellow of the American College of Cardiology and the European Society of Cardiology. Professor Juiry W. Wladimiroff was born in The Hague. He graduated from the school of medicine in Leiden in 1965 and was Board certified in Obstetrics and Gynecology in 1972. After some initial endeavours, Wladimiroff soon went down to London to study with Professor Stuart Campbell at the Post-graduate Institute at the Queen Charlotte’s Hos- pital. In the late 1970s he field tested Organon Teknika’s original realtime equipments from the Netherlands (in collaboration with Nicolaas Bom, the original inventor) and demonstrated the usefulness of the MiniVisor in the rapid measurement of the biparietal diameter at the bedside. His research at Queen Charlotte’s started with the measurement of fetal urinary production rate, which he continued to expand after returning to the Netherlands, looking at fetal urinary production under a variety of physiological and pathological situations. From then on Professor Wladimiroff became particularly interested in the physiology and patho-physiology of pregnancy and the fetus and his group was very productive in researches pertaining to fetal cardiology, fetal vascular and cerebral function and fetal blood flow as assessed by doppler velocimetry. In 1974, he received his PhD at the University of Nijmegen with a thesis on fetal monitoring. In 1973, he started work as a consult- ant at the department of obstetrics and gynecology of Erasmus Univer- sity Rotterman at Dijkzigt Hospital; in 1977, he was appointed reader at this department, and in 1980 full professor. Since 1984, he was head of the division of prenatal diagnosis and since 1996, when the two divisions were merged, head of the division of obstetrics and prenatal diagnosis at Rotterdam University Hospital. In 1981, his group re- ported fetal left ventricular volume determination from a study of two- dimensional measurement of real-time ultrasonic images of the left ventricle. Their group was the first to describe doppler studies of the middle cerebral arteries and the carotid carteries, and popularizing the

15 carotid artery/ umbilical artery PI ratio for the assessment of fetal com- promise. Professor Wladimiroff was the President of the Dutch Society of Obstetrics and Gynecology from 1993 to 1995 and was the Chairman of the National Liason Committee for Medical Research Committees in the Netherlands. He has organized numerous National and International Scientific meeetings and Symposia and was the Chairman of the Educa- tion Committee of the International Society for Ultrasound in Obstet- rics and Gynecology (ISUOG). He is also a board member of the Soci- ety of the “Fetus as a Patient” and executive board member of the European Board and College of Obstetrics and Gynecology and has carried out visitations in departments from Slovenia to Portugal. Profes- sor Wladimiroff has produced over 300 important scientific papers and contributed to over 20 books and monographs. He is well regarded by his colleagues as a great teacher and investigator. Since 1977, he has supervised 25 PhDs on many different aspects of prenatal diagnosis, of obstetrical, gynecological and Doppler ultrasound, and of fetal monitoring. His PhD students came from Holland, Switzerland, Britain, Indone- sia and Austria. In recognition of his contributions to the advancement of ultrasound in Obstetrics and Gynecology, he was presented the Ian Donald Gold Medal by the ISUOG in 1997. In 1999 he received the Gold Medal from the Drs. Haackert Foundation for “Lifetime Achieve- ments in the field of Prenatal Diagnosis and Therapy”.

7 - Non-linear Acoustics and Harmonic Imaging

6:00 p.m. – 10:00 p.m. Victor Humphrey Southampton University - Southampton, UK

This course will provide an introduction to the origins of non-linear propagation, and its consequences and applications in medical ultrasound. The first section will review the basic physics of non-linear propagation, and discuss the propagation of plane waves as a means of introduc- ing non-linear acoustics terminology. This will be followed by a discussion of the techniques used to numerically model non-linear propagation and the specific problems of performing measurements in high amplitude fields with their associated distortion and harmonic content. The effects of diffraction and attenuation on non-linear propagation will then be introduced by considering the fields of transducers and arrays, and the fields they generate in tissue; this will be illustrated by a combi- nation of experimental results and model predictions. This will lead on to a discussion of the consequences for medical ultrasound of non-linear propagation. Finally the application to harmonic imaging will be de- scribed. Victor Humphrey is a Professor of Acoustics at the Institute of Sound and Vibration Research (ISVR) in Southampton, U.K. He received his BSc and PhD degrees from the University of Bristol in 1975 and 1981 respectively. He then moved to the School of Physics at the University of Bath where was promoted to Senior Lecturer. In 2004 he took up his current position at ISVR. His initial research was in the area of laboratory applications of non-linear parametric arrays in underwater acoustics. For this work he was awarded the Institute of Acoustics A.B.

16 Wood Medal 1988. Subsequently he helped to develop a research programme on the non-linear propagation of ultrasound in medical fields that investigated these fields both numerically and experimentally. He was awarded the University of Bath Mary Tasker Award for excellence in teaching in 1995.

8 - Finite Element Modelling of Ultrasound Applications

6:00 p.m. – 10:00 p.m. Paul Reynolds and John Mould Weidlinger Associates Inc - Los Altos, USA

Finite Element Modelling (FEM) of ultrasound devices has been grow- ing since its early use in the late 1980s and early 1990s. It is now common, and likely soon to be universal, to find industrial and academic groups with a significant ultrasound research component to utilize computer simulations of one form or another in their work. While the researchers are experts in their own field of ultrasound, they rarely have such extensive knowledge of the field of finite element modelling and consequently often have difficulty in making appropriate choices and decisions regarding their modelling needs and approach. It is the aim of this course to educate the ultrasound expert in the important considerations with regards to the finite element modelling of ultrasound applications, with particular emphasis on phenomena occurring in front of the transducer. By the end of the course, it is our intention that the attendees will have the basic information on finite element simulations, and several common but varied applications, with which to make in- formed decisions in regards to simulating their own particular problems, and therefore make best use of the resources available to them. The course will be divided in four parts.

Part 1: Finite Element Basics The first section will involve an introduction to the field of finite element modelling, in order to ensure that all participants are aware of the basic assumptions inherent in the various modelling approaches. Com- mon terminology, types of analysis (harmonic, transient etc), types of solution methods (implicit, explicit), types of numerical solver (direct, iterative), and typical boundary conditions, such as symmetry and infi- nite element (e.g. absorbers and PML), validation and verification methods will be detailed.

Part 2: Wave Propagation The second section will concentrate on the modelling of wave propagation through various media. Initial consideration will be given to the simple, linear, elastic cases and then moving to include the effects of long distance propagation, material discontinuities, frequency depen- dant attenuation, and non-linearity (such as is prominent in higher- harmonic imaging).

Part 3: Ultrasound Applications The third section will consider a variety of ultrasound applications.

17 This includes accidental or intentional tissue heating (such as with HIFU). Appropriate and accurate calculation of thermal generation (sometimes called the Bioheat Equation) and its application as a load to a thermal model will be detailed. Aspects of ultrasound/thermal coupling will be compared to acoustic radation force calculation, which bear significant resemblance in approach.

Part 4: Efficient Application of Modelling Software on Available Hard- ware The ability to economically answer the questions posed often marks the difference between a successful and a failed project. We cover simple and effective approaches for ensuring maximum return on time invested in FEM, and important considerations for ensuring sufficiently accurate answers. This will then extend to discussion of numerical optimization techniques, and the relative costs compared to the potential benefits considered. We will discuss common computer architectures, the 32 to 64 bit transition, and multi-processing, in order to leave the potential user somewhat more comfortable in this rapidly changing and bewilder- ing field. Paul Reynolds received B.Eng in Electrical and Mechanical Engineering from the University of Strathclyde, Scotland, in 1994, and Ph.D in 1998 for his work on finite element modelling of piezoelectric transducers. Since 1999 he has worked at WAI using the PZFlex finite element package to model a wide range of ultrasound and piezoelectric applications, including medical imaging, therapeutics, SONAR, and sensors. John Mould received B.Sc. and M.Sc. in Civil Engineering from Virginia Tech in 1978 and 1979 respectively. He received a Ph.D. in Civil Engi- neering from the University of Colorado in 1983. Since joining WAI in 1983 he has been an analyst and a major contributor to the development of the entire FLEX family of codes for Nonlinear Solids, Acoustics, Thermal, Piezoelectric and Electromagnetic analyses.

9 - Flow Measurements and Doppler

6:00 p.m. – 10:00 p.m. Hans Torp Norwegian University of Science and Technology -Trondheim, Norway

This course provides basic understanding of physical principles and signal processing methods for flow measurements and visualization; with emphasis on Doppler methods and blood flow applications. The course starts with an overview of currently used techniques for velocity estimation in pulsed and continuous wave Doppler and color flow imaging. Statistical models for the received signal, as well as commonly used velocity and flow estimators are developed. Several different simulation methods for ultrasound signals from moving blood and clutter signals will be discussed. This includes fast simulation methods, as well as full 3D point scatter models using spatial impulse response techniques or k- space analysis. Efficient simulation tools to explore estimator properties are derived, and examples on implementation in Matlab will be shown. Methods to suppress clutter signals from slowly moving targets, including regression filter will be discussed. Elements from classi-

18 cal estimation theory will be applied to develop minimum variance velocity estimators in the presence of clutter noise. The performance will be compared with commonly used approaches for clutter rejection and velocity estimation, and practical implementations will be discussed. Velocity components transversal to the ultrasound beam can not be measured by Doppler techniques. However, several approaches to over- come this limitation has been proposed, including speckle tracking, transit time measurements, and lateral beam modulation. Principles and practical limitations will be discussed. Methods for visualisation of 2D vector flow information will be shown. Hans Torp received the MS degree in mathematics in 1978, and the Dr. Techn. degree in electrical engineering in 1992; both from the University of Trondheim, Norway. Since 1980 he has been working with ultrasound technology applied to blood flow measurements and imaging at the university of Trondheim, in cooperation with GE-Vingmed Ultra- sound. He is currently professor of medical technology at the Norwe- gian University of Science and Technology, and has since 1987 given courses on ultrasound imaging and blood flow measurements for students in electrical engineering and biophysics. His research interests includes statistical signal- and image processing with applications in medical ultrasound imaging.

19 MESSAGE FROM THE TECHNICAL CHAIR

John Hossack Technical Program Chair

On behalf of the Technical Program Committee (TPC), I welcome you to the 2005 IEEE International Ultrasonics Symposium. This year we had 876 abstract submissions. This is approximately 100 submissions more than submitted in both of the previous two years. In order to accommodate this growth, we have added an additional parallel oral session that is shared among the different subgroups that make up the overall symposium. Planning for the symposium required extensive effort by the Technical Program Committee leading up to the TPC meeting held on June 18th and 19th, 2005 in Chicago, IL. The acceptance rate was approximately 75% and is in line with historical levels. In particular, we have observed significant growth in Sensors and Physical Acoustics this year. This is likely a function of the physical location of the conference (i.e. Europe) where the balance of medical related, versus non medical related, funding is more even than is found in North America (for example). (A similar trend can also be observed in the distribution of abstracts at the successful 2002 Munich conference.) In line with previous years, we have held the total length of the conference to one day of short courses and a full three days of six oral sessions in parallel and three large poster sessions, without a single gap any where in the program. In view of the increased number of parallel sessions, I ask that all concerned (speakers and session chairs) keep the conference strictly on time. We have 18 eminent invited speakers providing a range of talks spanning a historical review of a famous scientist (Lord Rayleigh) to overviews of exciting and new technical growth areas. We will also continue our tradi- tion of holding a student poster competition. These posters will remain on display for the entire conference. The winners of the competition will each receive a certificate and a $100 cash prize.

Regards,

John A. Hossack 2005 IEEE Ultrasonics Symposium Technical Chair

20 INVITED SPEAKERS

GROUP 1: Patrick W. Serruys: ‘Biomedical Engineering in the Catheterization Laboratory’ Timothy Leighton: ‘Bubble Acoustics: from Seas to Surgeries’ Peter Wells: ‘Lord Rayleigh’ Jaques Souquet: ‘Telemedicine: What is in Place Today? What are the Challenges for the Future?’ Kathy Ferrara: ‘Targeted Ultrasound Imaging and Drug Delivery’ Ralph Sinkus: ‘Dynamic MR-Elastography as a Non-Invasive Imag- ing Modality: In Vivo Application to Breast, Liver, and Brain’

GROUP 2: Chris Lowe: ‘Novel Acoustic Biosensors’ K. Yamanaka: ‘Diffraction-Free Propagation of Collimate Surface Acoustic Wave on a Sphere Applied for Innovative Gas Sensors’ Ute Rabe: ‘Surface Characterization Using Ultrasonic Vibration Modes of Atomic Force Microscope Cantilevers’

GROUP 3: Paul Muralt: ‘Is There a Better Material for Thin Film BAW Applica- tions than AIN?’ S. V. Krishnaswamy: ‘Piezoelectric/Ferroelectric Films for Microwave/ MEMS Application - Historical Perspective’ E. V. Charnaya: ‘Ionic Conductivity in Acoustic Crystals’

GROUP 4: Meirion F. Lewis: ‘SAW and Optical Signal Processing’ Peter Wright: ‘Trends in Integrated Front-End Modules for Cellular Handsets’

GROUP 5: Christopher Daft: ‘cMUTs and Electronics for 2-D and 3-D Imaging: Monolithic Integration, In-Handle Chip Sets and System Implications’ Stephen M. Fry: ‘A Glimpse into the Future of Intravascular Ultra- sound Technology’ Tim Proulx: ‘Advances in Catheter-Based Ultrasound Imaging’ Jie Chen: ‘Commercialization of Piezoelectric Single Crystals for Medical Imaging Applications’

21 SYMPOSIUM ORGANIZING COMMITTEE

General Chair Ton van der Steen Erasmus University Medical Centre, Rotterdam, The Netherlands [email protected]

Technical Program Chair John Hossack University of Virginia, Charlottesville, VA, USA [email protected]

Short Course/Tutorial Chair Nico de Jong Erasmus University Medical Centre, Rotterdam, The Netherlands [email protected]

Finance Chair Herman van de Vaart [email protected]

Publicity Chair Sorah Rhee MEGGITT Endevco, San Juan, Capistrano, CA, USA [email protected]

Editorial Chair Marj Yuhas Industrial Measurement Systems Inc., Aurora, IL USA [email protected]

Exhibit/Sponsor Chair Chris de Korte Nijmegen University Medical Centre, Nijmegen, The Netherlands [email protected]

Awards Chair Reinhard Lerch Friedrich-Alexander-Universitat, Erlangen, Germany [email protected]

TECHNICAL PROGRAM COMMITTEE

GROUP 1: Medical Ultrasonics Vice Chair: Stanislav Emelianov: University of Texas of Austin, USA Olivier Basset: INSA, France Geneviève Berger: Laboratorie Imagerie Parametrique, France Richard Chiao: Ultrasound Group, Siemens Medical Solutions, USA Lawrence A. Crum: University of Washington, USA Emad Ebbini: University of Minnesota, USA 22 Helmut Emert: Electrical Engineering Department, Ruhr University, Germany David Evans: Department of Medical Physics, Leicester Royal Infir- mary, UK Kathy Ferrara: Biomedical Engineering, University of California, USA Stuart Foster: Department of Medical Physics, Sunnybrook Health Sciences Centre, Canada James Greenleaf: Ultrasound Research, Mayo Clinic, USA John Hossack, Department of Biomedical Engineering, School of Engi- neering & Applied Sciences, University of Virginia, USA Kullervo Hynynen: Brigham and Women’s Hospital, USA Peter Hoskins: Senior Research Fellow, Medical Physics, The Univer- sity of Edinburgh, Scotland Michael F. Insana: Biomedical Engineering, University of California, USA Jorgen Jensen: Department of Information Technology, Technical University of Denmark Nico de Jong: Biomedical Engineering, Erasmus University Rotterdam, The Netherlands Hiroshi Kanai: Tohoku University, Japan Jian-yu Lu: The University of Toledo, USA Leonardo Masotti: Dipartimento di Ingegneria Elettronica, University di Firenze, Italy James G. Miller: Physics Department, Washington University, USA Kathy Nightingale: Biomedical Engineering Department, Duke Uni- versity, USA William O’Brien: Director of Bioacoustics Research Lab, Depart- ment of Electrical & Computer Engineering, University of Illinois, USA Helen Routh: Philips Research, USA Ton van der Steen: Head of Biomedical Engineering, Erasmus Univer- sity Rotterdam, The Netherlands Tom Thomas: Siemens Kai Thomenius: GE CRD, USA Peirro Tortoli: Electronic Engineering Department, University of Flo- rence, Italy Keith Wear: FDA Center for Devices and Radiological Health, USA

GROUP 2: Sensors, NDE, and Industrial Applications Vice Chair: Jafar Saniie: Department of Electrical & Computer Engi- neering, Illinois Institute of Technology, USA Robert C. Addison: Rockwell Science Center, USA Walter Arnold: Fraunhofer Institute for Nondestructive Testing, Ger- many Narendra K. Batra Eric S. Furgason: School of Electrical & Computer Engineering, Purdue University, USA Donna C. Hurley: National Institute of Standards & Technology, USA David A. Hutchins: School of Engineering, University of Warwick, England Bernhard Jakoby: Institute of Industrial Electronics and Material Sci- ence, Vienna University of Technology, Austria Lawrence W. Kessler: Sonoscan Inc., USA

23 Pierre T. Khuri-Yakub: Stanford University, USA Jun-ishi Kushibike: Department of Electrical Engineering, Graduate School of Engineering, Tohoku University, Japan Lawrence C. Lynnworth: Chief Technologist, GE Panametrics, USA Roman Gr. Maev: Professor & Director, Center for Imaging Research & Advanced Material Characterization, Department of Physics, Uni- versity of Windsor, Canada Massimo Pappalardo: Lab of Acustoelectronics, Dipartimento di Ingegneria Elettronica, University di Roma TRE, Italy Tony Sinclair: Professor of Mechanical & Industrial Engineering, De- partment of Mechanical Engineering, University of Toronto, Canada Bernhard R. Tittman: Department of Engineering & Mechanics, Penn- sylvania State University, USA Jiromaru Tsujino: Faculty of Engineering, Kanagawa University, Ja- pan Donald E. Yuhas: Industrial Measurement Systems, Inc., USA John F. Vetelino: Lab for Surface Science & Technology, University of Maine, USA

GROUP 3: Physical Acoustics Vice Chair: Kenneth Lakin: TFR Technologies, Inc., USA Art Ballato: Chief Scientist, US Army CECOM RDEC AMSEL-RD- CS, USA Mack Brezaeale: Department of Physics, University of Mississippi, USA Jan Brown: JB Consulting, USA David Hecht Fred Hickernell Amit Lal: Assistant Professor, School of Electrical & Computer Engi- neering, Cornell University, USA John Larson Moises Levy: Department of Physics, Naples, Florida, USA George Mansfield: Institute of Radio Engineering and Electronics, Russian Academy of Sciences, Russia Kiyoshi Nakamura: Department of Electrical & Communication Engi- neering, Graduate School of Engineering, Tohuku University, Japan Valeri Proklov: Institute of Radio Engineering & Electricity, Russia Edgar Schmidhammer Susan Schnieder: Department of Electrical & Computer Engineering, Marquette University, USA Bikash Sinha, Schlumberger-Doll Research, USA Yook-Kong Yong: Department of Civil & Environmental Engineering, Rutgers University, USA John Vig: US Army CECOM, AMSEL-RD-C2-PT, USA Smaine Zeroug: Program Manager, Schlumberger-Doll Research, USA

GROUP 4: Surface Acoustic Waves Vice Chair: Don Malocha, School of Electrical Engineering & Computer Science, University of Central Florida, USA Benjamin Abbott: Sawtek Inc., USA Ali Bagi-Wadji: Vienna University of Technology, Austria Kushal Bhattacharjee: Clarisay, USA Serguey Biryukov: Surfaces and Interfaces Department, Leibniz Insti-

24 tute for Solid State and Materials Research Dresden (IFW), Germany Yasuo Cho: Research Institute of Electrical Communications, Tohoku University, Japan Yasuo Ebata: Director of SAW Core Technology, Fujitsu Media Device Ltd., Japan Ken-ya Hashimoto: Department of Electronic & Mechanical Engi- neering, Chiba University, Japan Daniel Hauden: CNRS_LPMO, France Mitsutaka Hikita: Communications Systems Research Department, Central Research Laboratory, Hitachi, Ltd., Japan William D. Hunt: School of Electrical & Computer Engineering, Geor- gia Institure of Technology, USA Shen Jen: RF Monolithics Inc., USA John A. Kosinski: US Army RDE Command, USA David Morgan: Impulse Consulting, UK Mauricio Pereira da Cunha: Assistant Professor, Department of Elec- trical & Computer Engineering, University of Maine, USA Viktor Plesski: SAW Design Bureau, Thomson Microsonics, Switzer- land Bob R. Potter: Vectron International, USA Arne Ronnekleiv: Division of Physical Electronics, Norwegian Insti- tute of Technology, Norway Clemens C. W. Ruppel: EPCOS AG - SAW RD SAM, Germany Peter Smith: McMaster University, Canada Robert Weigel: University of Erlangen-Nuremberg, Germany

GROUP 5: Transducers and Transducer Materials Vice Chair: Scott Smith, GE Corporate Research & Development, USA Levent Degertekin: Woodruff School of Mechanical Engineering, Georgia Institute of Technology, USA Jean-Francois Gelly: Thomson Microsonics, France Hal Kunkel: Philips Ultrasound, USA Reinhard Lerch: Friedrich-Alexander-Universitat Erlangen-Nurnberg Lehrstuhl fur Sensorik, Germany Geoff Lockwood: Stirling Hall, Department of Physics, Queen’s Uni- versity, Canada Clyde Oakley: Vice-president of Probe Development, Tetrad Corpo- ration, USA Mark E. Schafer: Sonic Tech Inc., USA K. Kirk Shung: Bioengineering Department, Pennsylvania State Uni- versity, USA Stephen W. Smith: Department of Biomedical Engineering, Duke Uni- versity, USA Wallace A. Smith: Materials Division, Office of Naval Research, USA Yasuhito Takeuchi: Professor, Department of Information & Com- puter Science, Faculty of Engineering, Kagoshima University, Japan Roger H. Tancrell: Aimar Technology Corporation, USA Vasandara Varadan: Pennsylvania State University, USA Qiming Zhang: Materials Research Lab, Pennsylvania State Univer- sity, USA Yongrae Roh: Kyungpook National University, Korea

25 Thomas Shrout: Materials Research Lab, Pennsylvania State Univer- sity, USA Christopher Daft: Sensant Corporation, USA

2005 UFFC-S ADMINISTRATIVE COMMITTEE

SOCIETY OFFICERS

PRESIDENT Gerald V. Blessing Natl. Institute of Standards & Tech (retired) PRESIDENT-ELECT Art Ballato U. S. Army RDECOM CERDEC HQ VP, FERROELECTRICS Susan Trolier-McKinstry The Pennsylvania State University VP, FREQUENCY CONTROL Lute Maleki Jet Propulsion Laboratory VP, ULTRASONICS Clemens C. Ruppel EPCOS AG VP, PUBLICATIONS Donald Yuhas Industrial Measurement Systems Inc. SECRETARY-TREASURER Jacqueline H. Hines J. H. Hines Consulting

ELECTED ADMINISTRATIVE COMMITTEE MEMBERS

2003 - 2005 Thomas R. Shrout Pennsylvania State University 2003 - 2005 Mathias Fink Universite Denis Diderot 2003 - 2005 Kullervo Hynynen Brigham and Women’s Hospital Harvard Medical School 2003 - 2005 Mike Garvey Symmetricom Inc. 2004 - 2006 Victor P. Plessky GVR Trade SA 2004 - 2006 Nava Setter EPFL Swiss Federal Institute of Technology in Lausanne 2004 - 2006 Peter M. Smith McMaster University 2004 - 2006 Daniel S. Stevens Vectron International 2005 - 2007 Ruyan Guo Pennsylvania State University 2005 - 2007 Massimo Pappalardo University of Roma Tre 2005 - 2007 Leonhard M. Reindl Albert-Ludwigs-University of Freiburg 2005 - 2007 Mark E. Schafer Sonic Tech, Inc.

STANDING COMMITTEE CHAIRS AND VICE-CHAIRS

AWARDS Reinhard Lerch University of Erlangen Awards Vice-Chair* Bernhard R.Tittmann The Pennsylvania State University FELLOWS* Fred S. Hickernell Motorola (retired) FINANCE Herman van de Vaart Retired Finance Vice-Chair* Jacqueline H. Hines J. H. Hines Consulting

26 ULTRASONICS Clemens Ruppel EPCOS AG Ultrasonics Vice-Chair* John Kosinski U. S. Army CERDEC FERROELECTRICS Susan Trolier-McKinstry The Pennsylvania State University Ferroelectrics Vice-Chair* Steve Pilgrim Alfred University FREQUENCY CONTROL Lute Maleki Jet Propulsion Laboratory Frequency Control Vice-Chair* Samuel Stein Timing Solutions, Inc. MEMBERSHIP SERVICES Rajesh K. Panda Philips Medical Systems Chapters Vice-Chair* Elizabeth H. Schenk Diebold Incorporated NOMINATIONS Bob Potter Vectron International - Hudson Vice-Chair Nominations* Daniel S. Stevens Vectron International PUBLICATIONS Donald Yuhas Industrial Measurement Systems Inc. Vice-Chair Publications* TBD TRANSACTIONS EIC* Jian-Yu Lu University of Toledo Trans. Associate EIC* Marjorie P. Yuhas Industrial Measurement Systems Inc. NEWSLETTER EDITOR* Jan Brown JB Consulting Associate Editor for Freq. Control Mike Garvey Symmetricom Inc. WEB EDITOR-in-CHIEF* Sorah Rhee MEGGITT Endevco STANDARDS William Hunt Georgia Institute of Technology Standards Vice-Chair* TBD Sr. Past President Fred S. Hickernell Motorola (retired) Jr. Past President Ahmad Safari Rutgers University Sr. Student Member*(2004-2005) Oliver Keitmann-Curdes Ruhr-University Bochum Jr. Student Member*(2005- 2006) Emanuel Gottlieb University of Southern California *Non-voting position

FUTURE SYMPOSIA

2006 IEEE International Ultrasonics Symposium, Vancouver, Canada General Chair: Stuart Foster Date: 3-6 October 2006

2007 IEEE International Ultrasonics Symposium- New York City, New York, USA General Chair: John Kosinski

2008 IEEE International Ultrasonics Symposium - Beijing, China General Chair: Jian-yu Lu

27 PLENARY SESSION

Monday, September 19 Willem Burger Zaal 8:30 a.m.-10:00 a.m.

Welcome Ton van der Steen, General Chair John Hossack, Technical Program Chair

Awards and Recognitions Achievement Award Distinguished Service Award Rayleigh Award Outstanding Paper Award Fellow Awards Distinguished Lecturer Award David Sarnoff Award

Nanoscience, From Single-Molecule Science to Applications Cees Dekker Delft University of Technology, Kavli Institute of NanoScience, Lorentzweg 1, 2628 CJ Delft, The Netherlands http://www.mb.tn.tudelft.nl/

Prof.dr. Cees Dekker (1959) is a professor in Molecular Biophysics at the Technical University Delft. His research takes place at the boundaries of nanotechnology, biology and physics. His work in carbon nanotubes is most famous, but his current interests have diverted to nanotechnology of living cells. He published more than 130 peer reviewed papers, of which more than 20 in Nature en Science. In 2003 he was appointed as a member of the Royal Dutch Academy of Arts and Sciences. Dekker received several honours and awards, including the 2001 Agilent Europhysics Prize, the 2003 Spinoza Award of the Neth- erlands Organization for Scientific Reasearch and an honorate doctorate in Diepenbeek, Belgium. Further information can be found on: www.mb.tn.tudelft.nl/user/dekker/index.htm This talk will give a broad introduction and overview of nanoscience and nanotechnology. I will illustrate the excitement and potential of this emerging field by focusing on a number of examples, in particular carbon nanotubes for nanoelectronics and single-molecule techniques for biophysics of DNA-enzyme interactions.

28 NOTES

29 30

00 . 13 ..Monda 10:00 a.m – 11:30 a.m.

in St. Louis University Hospital CNRS nology sound and S. Rabben S. Urheim Gruel 3 2 tive Appearance Motion Models. Triplane Ultrasound Images Using Multi View Ac- Left Ventricle from Simultaneously Acquired PS-3 and J. Miller, K. Marutyan, Wallace, M. Holland, in Myocardium. Anisotropy of Protein Cross Linking PS-2 Variations. Process: Intra- and Inter-Individual Characterization of the Blood Clotting PS-1 Chairs: Helen Roth, Philips Medical

The Norwegian University of Science and Tech- Rikshospitalet University Hospital Siemens Medical Solutions STUDENT PAPER , Systems and T Detection of the Myocardial Boundary in

2 Horten, Norway

, and F. Patat Trondheim, Norway , 2

High Frequency Ultrasound

Ultrasonic Detection of the , E. Steen

Tours, France

FINALISTS Session PS 4 , , R. Libgot*

St. Louis, MO University of Oslo 4 Washington University , H. Torp S. Baldwin*, M. Yang, . 1,2 , ,

om Thomas, Tours, France 1

1 3 LUSSI FRE 2448 , B. Olstad , F. Ossant

4 GE Vingmed Ultra- ,

2 Bretonneau ,

J. Hansegård*

Oslo, Norway Oslo, Norway . 3 , S. Malm 1,2 , Y. . 1 3

, , , ,

Windsor, Ontario, Canada Clinical Research Ltd. Physics Cornell University Cornell Grenoble, France FranceCrolles, Lulea, Sweden University of Te Severin Maev Acoustic Microscope. Cement Interface Strength Using a Scanning PS-8 Defay nators. grated with Bulk Acoustic Wave Reso- nators using Lamb Waves Co-Inte- PS-10 Martinsson* and J. E. Carlson, tem Identification Approach. Propagation in Gas Mixtures - A Sys- PS-9 tial Measurement. nels using Microparticle Zeta Poten- tion Pressure Field inside Microchan- PS-11 and B. Dubus 1 , F. Rusanov Morpho-Mechanical Analysis of the Dentin- 2 , 1

, D. Pellissier Tanon

, and G. Grayson Moscow, Russian Federation Parametric Modeling of Wave A. Volatier* Calibration of Acoustic Radia- Intermediate Frequency Reso- , 2 3 . , A. Denisov , ,

Windsor, Ontario, Canada CEA-LETI/DIHS/LCRF

1 chnology / EISLAB

E. Bakulin* , STMicroelectronics 3

M. Araz* and A. Lal,

Ithaca, NY 1,3 IEMN , 2

3 , G. Caruyer Institute for Biochemical ,

1 Windsor University , 2

, D. Gavrilov 1 Lille, France , L. Denisova 1 , P. Ancey . ,

Ultradent 1,3 Lulea , E. 2 . 2 , F. , R. J. 1

. , , , , ,

Technology CA Institute of Minolta Physical Research S. Ueha Yakub Wygant cations. Intravascular and Intracardiac Appli- Forward-Viewing CMUT Ring Arrays for PS-17 Film. Using Ultrasonic Transducer PS-16 Ultrasonic Transducers. electrode Capacitive Micromachined PS-18 and F.L. Degertekin, ,

M. Nakazawa* University of Michigan 1 , ,

1 Tokyo, Japan A High Frequency Variable Focus 1 , A. Maezawa

3-D Ultrasound Imaging Using , M. O’Donnell

1 Technology Analysis and Design of Dual- Stanford University y, September 19, 2005 D. Yeh*

, Atlanta

, Tokyo, Japan 1

, T., Kosugi , Yokohama, Japan , 1 2

, O., Oralkan , and Y. Hirao

3 .

Kobayashi Institute of Georgia Institite of 2 , and B. Khuri- R. O. Guldiken* 1 , K., Nakamura Polyurea Thin

Ann Arbor , Stanford, 3 , ,

Konica 1 Tokyo 1 , I. POSTER PRESENTA 1

. ,

Imaging, Technical University of Den-

mark Jensen, proach. Based on a Frequency Division Ap- Using Spatio-Temporal Encoding P1A-5

Ultrasound Imaging, Technical Uni- Denmark. K Medical mark. Fast Ultrasound Imaging, Technical versity of Denmark University of Denmark ing, National Taiwan University Taiwan, ROC istry, National Chung Cheng University ROC R. Wang and J. A. Jensen Imaging. Aliasing Artifacts in Color Flow Mode P1A-7 P.-C. Li* Flow Measurements with Gold Nanorods. P1A-6 Kortbek* Cross-Correlation Method. Vector Angles for the Directional P1A-4 ,

2 Department of Chemistry and Biochem-

, Destruction-Mode Opto-acoustic Copenhagen, Denmark 1 2 , S.-W., Huang ,

F. Gran*, S. Nikolov, and J. A. 1,2 A Simple Method to Reduce

B-K Medical A/S, 1 Blood Velocity Estimation Blood Velocity Center for Fast Ultrasound

Determination of Velocity Department of Electrical Engineer- J. Udesen* and J. Jensen ,

. Herlev, Denmark TIONS 1 , 1 , C.-W. Wei 1 1,2

, Center for Fast

, S. I. Nikolov ,

Lyngby, Den- Denmark , 1

, Taipei, Taiwan,

1 Center for , .

1 Herlev,

. ,

, and C. Chia-Yi, ,

2 B- J. 1

Japan College of Medicine of Cancer Research United Hospital MHS trust Shipley X. Zhang* and J. Greenleaf, Pulse Wave Propagation in Arteries. tin on Ultrasound Generated Short P1B-6 Melodelima* sive Radiation Force: an In Vitro Study. for Breast Cancer Diagnosis Using Impul- P1B-5 Imamura, H. Kanai*, Hasegawa, and K. Remote Perturbation of Inner Pressure. tion of Heart Wall Motion Generated by P1B-4 2 . , Transient Ultrasound Elastography

The Effect of Surrounding Gela- 1

Royal Marsden NHS trust and Institute Measurement Spatial Distribu- Tohoku University 1 , J. Bamber

, Sutton, Surrey, UK ,

, Rochester, MN

1 Bath, UK

, F. Duck Mayo Clinic ,

. 2 Sendai, , and J. ,

2 Royal

Seoul, South Korea sound Scanners. Beamformer for Small Size Ultra- P1D-2 and T.K.Song,

Charlottesville, VACharlottesville, gium way A. Heimdal A. Austeng P1D-1 3 P1C-4 and J. Hossack, Imaging. Full Resolution C-Scan Ultrasonic Cardiac Strain Rate Imaging. Autocorrelation Method when Applied to

University Hospital Gasthuisberg IMPLEMENTATION , Chair: J.-Y. Lu, University of

, 2 GE Vingmed

BEAMFORMER University of Oslo

“Synthetic Axial Acquisition” Session P1D 2 4 Y. Li*, T. Evaluation of a Modified , S. I. Rabben ,

A Hardware Efficient 1 University of Oslo Expohal, Rotterdam

Toledo

Ultrasound

University of Virginia Sogang University J. Y. Lee*, H. S. Kim, Blalock, W. Walker, . . ,

2 Oslo, Norway , J. D’Hooge ,

A. Blomberg* Oslo, Norway ,

, Leuven, Bel- Oslo, Nor- 3 . , and 1 , , , ,

Orono, ME sity of Virginia Clinic College of Medicine ter, MN Alagoas Arbor ter 3D US/Digital X-ray System. Lesion Characterization Using a Combined LeCarpentier Caron Fatemi M. O’Donnell Urban* Vibro-acoustography.tifrequency PS-6 ing Results to Optimize PS-5 A. French, and J. Hossack, Echocardiography. Infarction using Myocardial Contrast Intact Mouse Heart after Myocardial PS-4 J. Vetelino, Pinkham*, L. French, D. Frankel, and Sensor.Pesticidetic Wave PS-7

, Schenectady, NY , 1 2

, R. Erkamp General Electric Global Research Cen- Stress Field Formation for Mul- Applying A Lateral Field Excited Acous- 3D Perfusion Mapping in the 1 1

, and J. Greenleaf , G. Silva

, , Maceio, AL, Brazil 2

1 Universidade Federal de . , M. Roubidoux 1 ,

University of Michigan University

, In Vitro

1 Charlottesville, VACharlottesville, , H. Xie . 2 , R. Kinnick Y. Li*, Z. Yang, B. Elasticity Imag-

1 , J. Fowlkes In Vivo 1

, A. Kapur of Maine R. Booi* ,

1 Roches- , .

Breast Univer-

1 Mayo 1 , 1 , M.

2 , and Ann 1 , G. , P. W. M. .

Bevaix, Switzerland versity of South Florida Mechanics Co., Ltd. nology Maine querque, NM Villeneuve d’Ascq, France DOAE – UMR CNRS 8520, Ecole Centrale de Lille, Cité cow, Russia Scientifique - Av Poincaré, Villeneuve d’Ascq, France Preobrazhensky 2 Bhethanabotla and M. Pereira da Cunha, Electrodes. Finite Thickness HVPSAW Orientations Considering PS-14 S. S. Hong ters. PS-13 2 Ducloux* Magnetostriction for Active Flow Control. PS-12 Enhanced Sensing. PS-15

LEMAC / Wave Research Center - GPI-RAS Sandia National Laboratories J. Meltaus* , , Cantilever Resonance Induced In Situ by 1

, N. Tiercelin

Orono Espoo, Finland Hexagonal SAW Devices for Double-Resonance SAW Fil- Identification of New LTO , 3

, 3 LEMAC / LML UMR CNRS 8107 1,2 1

. Helsinki University of Tech- , and A. Merlen . 1 , and D. Branch 1 1 , Y. Deblock , V., P. Plessky . , ,

Samsung Electro- Suwon, Korea , 2

S. Cular* GVR TradeSA 3 , ,

University of

LEMAC / IEMN- Tampa, FL , P. Pernod T. Kenny* , 2 2,1

, Albu- , and

1 1 ,

Uni- , V. Mos- 1 . , V. O.

, , , ,

cal Systems Toronto, ON, Canada Trondheim, Norway University of Imaging, Technical University of Den- trasound L. Loevstakken* aging Using Power Method Iterations. Rejection Filtering in Color Flow Im- P1A-2 mark A. Jensen, Carotid Artery. Estimation on In-Vivo Data from the P1A-1 and R. Cobbold Approach. Estimator using the Matrix Pencil P1A-3 Kristoffersen ,

University of Minnesota

Denmark BLOOD FLOW Synthetic Aperture Flow Angle

, Real-time Adaptive Clutter Session P1A

A New Eigen-Based Flow Horten, Norway Horten, Chair: E. Ebbini,

A. Yu* Center for Fast Ultrasound 2

, and H. Torp ,

Science and Technology Mountain View, CA 1 , N. Oddershede* and J. . 1 1

, L. Mo University 1 , S. Bjaerum ,

, 2 GE Vingmed Ul- GE Vingmed

2 ZONARE Medi- 2 , R. Warriner 1 . ,

of Toronto Norwegian 2 , K. . 1

, , ,

versity of Leuven Japan Ciencias Japan Japan Elastography In-Vivo. Wave Generation for Real-Time Shear P1B-1 Bijnens, and J. D’hooge, Wouters, H. A. A. Negreira*, and I. Nuñez, Analysis.Surface Wave P1B-3 In-Vivo Study. sional Cardiac Strain Estimation: An cessing Parameters for Two-Dimen- P1B-2 Sato Sanuga Chair: P.-C. Li, National Taiwain

3 ELASTOGRAPHY , , , .

1 Meisei University 1 2

, Y., Kondo 3 Aloka Co

Elastographic Parameters by

, A Parametric Study on Pro- Microsonic Co Analysis of Transient Shear

Session P1B Montevideo. Uruguay University Leather, P. Claus, B.

S. Langeland*, P. F. ., Ltd. , 2

, K. Tamura Leuven, Belgium

., Ltd. ,

N. Benech, C. Tokyo,Oume,

Oume, Tokyo,Oume,

S. Yagi* Catholic Uni- Facultad de 2 , and M. ,

. Tokyo, 1 , A.

Taiwan, ROC General Hospital

versity Chou 3 during Compression. Based on Image Sequence Analysis P1C-1

wan University Hospital, Taiwan wan

MC P. de Feyter, and C. Slager G. Rodriguez-Granillo, A. van der Steen, F.Dharampal, Gijsen*, J. Schuurbiers, rotic Plaque Build Up. Lumen Preservation during Atheroscle- of Geometrical Parameters Involved in P1C-2 W.-S. Chen Lesions. Contour Extraction of Ultrasonic Breast P1C-3

INational TaiwanUniversity CHARACTERIZATION , , Chair: E. Biagi, University of .

2 Rotterdam, the Netherlands Chung-Li, Taiwan , C.-M. Chen

, Taipei, Taiwan,ROC Ultrasound Based Assessment A Novel Method for Automatic

Breast TumorClassification Session P1C C.-K. Yeh* 2

, . TISSUE 1

Florence Yuan Ze University, Tai-

, Taipei, Taiwan,ROC 3 , and P.-C. Li* 1 , Y.-S., Chen , K.-H. Lee

2 National Taiwan J. Wentzel, A. ,

, 1 Taipei, Tai- , 2

Veterans Erasmus Taipei, 1 1 , , Y.-H., . 1 , and

1 Uni-

University of Virginia

VA P1D-5 Blalock, W. Walker, and J. Hossack, Cost C-Scan Applications. Kingston, Ontario, Canada South Korea University of Timosoara, Romania. Lie* and M.E. Tanase. Receive Beamformer in a FPGA. ment a Nonuniform Oversampling P1D-4 Lockwood, Converter System. Realtime 3D Beamformer and Scan P1D-3 T. K Song, Modulation. on a High Order Modified Sigma Delta mitter Using Bipolar Pulsers Based P1D-6 . About the Possibility to Imple- An Arbitrary An Arbitrary Waveform Trans-

Modern Implementation of a

Phased Subarrays for Low Sogang university H. H Kim*, S Han, and

. Queen’s University

K. Wall* and G.

Charlottesville, Politehnica . Y. Li*, T.

, Seoul, L. , 32

00 . 13 ..Mond 10:00 a.m – 11:30 a.m.

CRESTIC Unity 619 Technological Research, Polish Acad- emy of Sciences S. Cormier Secomski, A. Nowicki*, J. Wójcik, and W. P1E-3 A. Kissi* Compensation of Harmonic Images. P1E-1

Mitaka,Tokyo,Japan Sakai,Osaka,Japan Ura Matsunaka Due to Light Illumination. Detection of Ultrasonic Velocity Change Imaging of Light Scattering Medium by P1E-2

Chair: J d.’Hooge, University of MEDICAL IMAGING 1 , Y., Nakatani Spectroscopic Three-Dimensional 1

Multitone Nonlinear Coding.

Phase Based Liver Motion , A. Bouakaz Session P1E , 2 2 , and F. Tranquart ,

, Reims, France Institute of Fundamental

Osaka Prefecture University Tours, France Leuven . , 1

, K. Wada Warsaw, Poland ,

2 Aloka Co. Ltd. 1 , L. Pourcelot H. Horinaka* . 1 , 1

, INSERM , and T.

2 LERI 1 , T. . 1

, ,

versity of Bergen, Dept. Physics and search AS (CMR) Technology Charlottesville, VACharlottesville, Dept. of Bioengineering, The University Vestrheim of Toledo Meters. as Reference for Ultrasonic Gas Flow Sound Velocity Measurement Methods P1F-1 Wang* and J.-Y. Lu, Fourier-Based Image Construction. P1E-9 Hossack, lies. Prostate Anatomy and Elastic Anoma- P1E-8 ACOUSTIC SENSORS Chair: P. Khuri-Yakub, Stanford Y Li*, C. D. Garson, and J.A. A Study of Motion Artifacts

Versatile Assessment of 3D

P. Norli* , Investigation of Precision Session P1F

2 Toledo, OH

, ,

University of Virginia

Bergen, Norway 1 Christian Michelsen Re- Christian University ,

1 Bergen, Norway , P., Lunde .

. Ultrasound Lab,Ultrasound . 1 , and M. ,

2 Uni- J.

versity Science and Technology University of South Florida Tehran-Iran sity of Technology Japan shi, Shizuoka, Japan ment. sonic Surface Roughness Measure- P1F-6 Upadhyayula, vices. sitivity Discrimination using Enhanced Sen- P1F-8 Oyama Rezanejad Gatabi Waves with Particles. P1F-7 1

Faculty of Engineering, Shizuoka Uni-

NDE MODELING AND MEASUREMENTS Chair: N. Bilgutay, Drexel , 1 , J. Rezanejad Gatabi* 2 Interaction of Surface Acoustic , Y., Matsui

A Novel Doppler Based Ultra- R. Williams, S. Cular*, A. SAW&SPR-Tech

Thickness Shear Mode De-

Organic Vapor Sensing and Hamamatsu-shi, Shizuoka , Session P1G ay, September 19, 2005 ,

2 Khajeh Nasir Toosi-Univer- University and V.Bhethanabotla, , 2 1

, , and S. Shiokawa Tehran-Tehran-Iran

1 Iran University of . J. Kondoh*

, Hamamatsu- Tampa, FL ,

1 Tehran- and I. 1 , T. POSTER PRESENTA 2

. ,

Tianjing, China ences, Univ. of Helsinki Clara, CA Information Measurement technology China nese Academy of Sciences Uusimaa, Finland and Instrument, Shanghai Jiaotong University Peiwen, J. Tao, and Z. Zhigang, ing Ultrasonic A-Scan. ing of Intelligent Inspection Pig Apply- P1G-5 and T.Lu Kolosov, ments. Sensor for Liquid Property Measure- P1G-7 E. Haeggstrom, Formation. Coating Bulk Modulus During Layer P1G-6 Zhang* Production Boreholes of Oilfields. P1G-8 , 1 2

, W., Lin China Oilfield Services Limited L. Matsiev*, J. Bennett, and O. Designing and Signal Process- Ultrasonic Monitoring of Paper An Ultrasonic Flowmeter in High Precision Tuning Fork

2 Symyx Technologies , .

T. I. Karppinen*, Lassila, and Shanghai, P. R. China

1 Institute of Acoustics, Chi- 1 .

, C. Zhang . Dept. Physical Sci- TIONS C. Tianlu*, Q. 1 , , D. Wang

Helsinki,

Beijing, , Dept. of Santa . H. 1

, ,

Singapore Nanyang TechnologicalUniversity mark sity of Science and Technology kyo Denki University

2 Hosoda* Quadrapole Piezo-Actuator System. copy of Molecular Orientation with P1H-3 Hu*, J. Yang, J. Xu, C. Tay, and Y. Cai, Particles by Vibrating Sharp Edges. P1H-2 Iran Ultrasonic Motor. tal-Based Modeling of a Traveling Wave P1H-1 Jalali Amini* Takagi

University of Tokyo Chair: S. Bhave, Cornell University MOTORS/LAB ON A ,

2 1 Aalborg University , and J. Poshtan 2 , H. Nomura 2 Trapping and Extraction of Small , R. Izadi-Zamanabadi

A New Scheme for Experimen- ULTRASONIC Flow-Birefringence Spectros-

1 , K. Horii Session P1H

. CHIP 1 , and K. Sakai , 2 , , H. Ogawa

H. Mojallali

Tokyo, Japan Saitama, Japan 1 ,

, Aalborg, Den-

1 Iran Univer- ,

2 Tehran, , A. 2 , 1 1 , R. , K.

. 1 o- To M. J.

, ,

Polytechnique Fédérale de Salerno, Italy Roma, Italy Singapore Lausanne Vibrating in Flexural Mode. Based on a Displacement Amplifier P1I-3 Fernandez* and Y. Perriard, electric Transformers. Comparison of Two Different Piezo- P1I-2 logical University, Shcool of EEE L. Parenti Thickness Shear Mode. tric Transformer Operating at the Vibration Distribution of a Piezoelec- P1I-1 Pappalardo and K. J. Tseng,

PIEZOELECTRICAL TRANSFORMERS/ Chair: M. Kurosawa, Tokyo Institute of Technology Modeling and Characteristics

A Power Ultrasonic Actuator

Effects of Electric Load on

Session P1I , MOTORS .

1 1 , N. Lamberti Lausanne, Switzerland , , Expohal, Rotterdam . 2

1 University of Salerno

University Roma Tre Nanyang Techno- J. Du*, Hu, 2 , and M. A. Iula*

J. M. Ecole . 1 , , , ,

Tours, France Nuclear Medecine, CHU Bretonneau U619

Bretonneau P. Palanchon* Trapping System for Haemodialysis. P1E-7 Pourcelot

University of Virginia Southern California VA Santy*, T.W.and Blalock, Walker, cal Characterization System. tic Radiation Force Based Mechani- Low Cost PC Card used for an Acous- P1E-5 City, Japan T. Abe, Derrouich*, J. Oyama, T. Higuchi, and Based on 2D Concave Probe. P1E-4 Yen, and K. Shung, rays. Small Animal Imaging with Linear Ar- Rate Ultrasound Imaging System for P1E-6 . ,

X.-C. Xu*, C.-H. Hu, L. Sun, J. Tours, France

Ultrasound-Based Air Bubble Nagasaki University High-Frequency High Frame Ultrasound Bladder Scanner Design and Evaluation of a 3 , and F. Tranquart ,

. Tours, France . 1 , A., Bouakaz ,

, Los Angeles,CA ,

Ultrasound and

Charlottesville, University of 2 , , , 1

2 CIT, CHU

INSERM Nagasaki 2 , L. M. S.

Upper Heyford, Bicester, Oxon., UK

Kalinin*, Wireless Resonant SAW Sensors. Properties on Resolution of Passive P1F-4 Laboratory Zeqiri, ducer. Produced by a 40 kHz Cleaning Vessel Trans- Activity Generated in a Standing Wave Field Spatial Distribution of Acoustic Cavitation P1F-2

rials Research Diepenbeek, Belgium Haenen Japan sor. cantilever: A New Gas Pressure Sen- P1F-5 2 1 Yamada, Tactile Sensor. Change of a Qua ity of Silicone Rubber Using Impedance P1F-3

Universiteit Hasselt, Institute for Mate- IMEC vzw, Division IMOMEC Quality of Life Division, National Physical V. Mortet* M. Hodnett*, M. Choi, P. Gelat, and B. . A Controlled Investigation of the Piezoelectric Bimorph Micro- 1,2 Investigation on Viscoelastic-

Influence of Receiver Noise

Transense Technologiesplc Teddington, Middlesex, UK Shinshu University , and M. D’Olieslaeger ,

rtz-Crystal Tuning-Forkrtz-Crystal Diepenbeek, Belgium 1 , R. Petersen H. Itoh* and Yuuki .

, Nagano, . 2 , K. . 1,2 V.

, , ,

Akita, Japan Catalonia (UPC) Acoustics Australia Japan Salazar, Turo, J.A. Chavez, M. J. Garcia, and J. Alvarez*, J. M. Rodriguez, Y. Yañez, A. for Flour Strength Evaluation. of the Mechanical Properties Doughs P1G-4 China trasonic Wave Modeling.trasonic Wave Absorbing Boundary Conditions in Ul- P1G-1 Wang in Solids. Phenomena of the Elastic Wave Fields Method to Analysis of the Scattering P1G-3 Kushibiki, M. Arakawa, K. Morioka, and J. Couplant in UHF Range. Specimens using Thin Layer Water tudinal Acoustic Properties for Solid P1G-2 , 1,2 . 2

, and H. Zhang*

Studies on Effective and Stable Measurement Method of Longi- Study of the Time-Dependence CSIRO Petroleum Application of the FDTD TF/SF .

Tohoku University

Technical University of

M. Sato*, Haidian District, Beijing,

, Barcelona, Spain

. Akita University 1 , H. Odagawa*, , H. Zhao

Bently, WA, Institute of ,

J. Garcia- Sendai, 1 , X. .

EPSG-UPV Ishikawa, Japan Sapporo, Japan Zurich, Switzerland cal College sity, Graduate School of Engineering 2 1 Kung University and Y.Tokunaga H. Kuo* and Y.-C. Lee, ductive and Viscous Fluid Loadings. Piezoelectric Plate Subjected to Con- P1G-9 Profunser* using Laser Acoustics. of Ta and TaN Diffusion Barrier Layers P1G-10 Ardid, J. Ramis, and V. Espinosa, Camarena*, J. A. Martínez-Mora, M. Evolution Oranges. Propertiesof P1G-12 Microscope. sorption Material by Photoacoustic P1G-11

Kanazawa ETH Zurich, Center of Mechanics Lamb Wave Propagation in a Ultrasonic Testing of the Time Evaluation of Low-Light Ab- Mechanical Characterization 2,1 ,

, J., Vollmann

Institute of Gandía, Valencia,Spain A. Minamide* , , .

Kanazawa, Japan Tainan,Taiwan ,

1 Kanazawa Techni-

2 Hokkaido Univer-

Nation Cheng

, and J. Dual Technology 1 , N. Naoe D. M. . S.- F. 1 1 .

, , , , , ,

Machida, Tokyo,Japan Japan mark sity of Science and Technology Group, Korea Research Institute of Stan- Iran Korea TamagawaEngineering, University Aoyagi, Motor. P1H-7 Piezoelectric Motor. ing of a Novel Low Voltage Multilayer P1H-6 dards and Science and J. Kwon, Ultrasonic Standing Wave. Particle Concentration in Water using P1H-5 M. Takeuchi* and K. Nakano, of Liquid Droplets for a Lab-on-a-Chip. P1H-4 Jalali Amini* ,

2 1 Aalborg University , and J. Poshtan . . 2 Y. Tomikawa*, T. Takano, and M.

, R. Izadi-Zamanabadi

Ultrasonic Mmicromanipulation Yamagata University

Development of Gyro-Moment

Smart Separation Devices for Free Stator Analytical Model- Smart Measurement

, Daejeon, South H. Mojallali 1 , .

, Aalborg, Den-

1 Iran Univer- ,

Y.-S. Lee*

Faculty of Yamagata ,

2 Tehran, , A. 1 , R.

Aeronautics and Astronautics Nanjing, China and Intelligence Laboratory, Tokyo Japan shi, Tokyo,Japan & Agriculture Technology Tokyo, Japan Metropolitan University as a Stator. Ultrasonic Motor using a Helical Coil P1I-6 and Z. Chunsheng, Motor Based on CPLD. P1I-5 Institute of K. Nakamura, and S. Ueha, Beams. Traveling Vibrations on Fine-Ceramic Non-Contact Sliding Table with the P1I-4 Y. Akano . Development of a Miniature An Ultrasonically Levitated Mini-Driver for Ultrasonic D. Koyama*, T. Ide, J. Frend, 1

, and A. Nakajima Technology T. Moriya* , .

2 Tokyo University of

. Nanjing Univ.of 1 , Y., Furukawa ,

, Hachioji-shi,

L. Huafeng* Yokohama,

Koganei- 2 Precision ,

1 Tokyo 2 , , 34

00 . 13 ..Monda 10:00 a.m – 11:30 a.m.

Switzerland tute of Microtechnology State University Apodization. Arbitrary Polarity Sequence and Reflective SAW Transducers with P1J-3 of Freiburg A. Eisele, and L. M. Reindl, Devices.tic Wave tion Based Analysis of Surface Acous- P1J-2 and V.Cherednick, rameter Evaluation. P1J-1 SIMULATION OF SAW Chair: L. Reindl, University of Closed-form COM Modeling of

The K-Model - Green’s Func-

Refinement of the COM Pa- Session P1J

DEVICES . Freiburg, Germany A. S. Rukhlenko*, Freiburg

, Russia

J. H. Kuypers*, D. Nizhny Novgorod B. Sveshnikov* 513CD

, .

Neuchatel, University

Insti-

TEMEX ment of Communication and Informa- Germany sity sity of Technology tion Engineering X. Zhang tion for Leaky Surface Wave Devices. mensional Surface Wave and Simula- P1J-10 Fischer, and H. Stab, Loaded SAW Sensor. P1J-9 H. Wu Lardat*, T.W.and Pastureaud, Steichen, tures and Application Examples. P-Matrix Simulation Tool: Built-In Fea- P1J-8

, Nanjing, Jiangsu, China

Chair: R. Potter, Vectron SAW DEVICES I , and Y. Shui Fast and Precise Multi-Purpose COM Model of the Impedance- . 1

. A Quasi-COM Model for 2-Di-

, J. Lin Session P1K International , 2

, W., Wang* Guili, Guangxi, China

, Dresden, Sachsen, 1 ,

1 Dresden Univer- Nanjing Univer- Q. Fu*, W.-J. 1 , H. Wang ,

2 Depart- R. 1

. ,

& Telephone& Co. Arbor, Michigan Kanagawa , Japan University of Michigan University Nishimura Hashimoto, and M. Yamaguchi, Devices. Edge Method for Diagnosis of RF SAW Laser Probe System Based on Knife- P1K-8 taxially Grown GaN Films on Al P1K-7 Hohkawa* 1 Lin*, S.-S. Li, Z. Ren, and C. T.-C. Nguyen, Micromechanical Resonators. in Capacitively-Driven Distortion VHF P1K-5 Nguyen, Y.-W. Lin, Y. Xie, Z. Ren, and C. T.-C. Micromechanical Resonators. P1K-6 Kanagawa Institute

Layer Mode Devices on Epi- Development of High-Speed Third-Order Intermodulation University of Michigan , 1 H. Kamizuma*, T.K. Omori, y, September 19, 2005 Charge-Biased Vibrating Charge-Biased , C. Kaneshiro 2

, and N. Shigekawa Chiba-shi, Japan .

, Kanagawa, Japan ,

2 Nippon Telegraph

of Technology Ann Arbor, MI 1 , K. Koh . S.-S. Li*, 2

O Chiba , Y.-W.

1 Ann , K. . POSTER PRESENTA . K. 2

, , .

Université F. Rabelais Ignatius France Alexander University Erlangen- Nuremberg University of Yo mingham, UK Scotland, UK Kanagawa, Japan Japan Meggs and D. Zhang Lethiecq, M. Lematre*, G. Feuillard, and tric Structures under Residual Stress. Propagation in Integrated Piezoelec- P1L-3 Method. electric Film Deposited by Hydrothermal P1L-6 2 Streicher* Transducer for Bat Research. P1L-5 ton* High Resolution Medical Imaging. Ultrasonic an Aid to Realize P1L-4 Peremans Takauchi Antwerp-University Faculty St. 1 , S. Cochran , 1 2

, D. Rodriguez-Sanmartin Tokyo Institutu Net-shape Ceramic Manufacturing as Basic Study on Lead Free BNT Piezo- . 1 , M. Ishikawa , Modelling of Ultrasonic Wave T. Hasegawa*

Broadband EMFi Ultrasonic Antwerp, Belgium 2 1 . , and R. Lerch , M. Kaltenbacher 1 , ,

kohama LUSSI GIP Ultrasons

2 1

University of Paisley University of Birmingham .

Erlangen, Germany Erlangen, , K. Kirk of Technology TIONS 2 , and M. and , Kurosawa ,

511CF Yokohama, Kanagawa, 1 , N., Kawashima 2 , K. McDonald , Transducers for

1 1 EIVL Blois , . , R. Webster

, 1

Friedrich Yokohama,

, Paisley, T. But- 1 2 , H. , ,

1 2 Toin

, S. , C. Bir- A. 1

, ,

tion Poincaré, Vandoeuvre, France U619 & CIT, CHU Bretonneau, 2 Bis Boulevard Tonnelle,37044, Tours, France sity Kingston, Canada Aviv, Israel, Y. Eshel Schweitzer, Coutard*, E. Tisserand, and P. Measurements and Modeling. the Piezoelectric Transducer Noise, P1M-5 P1M-4 Chiasson, eling. Sound Field Computation and FE Mod- P1M-3 metric Arrays. Modelling Aperture for Circular Sym- Fourier-Bessel Series and Optimal P1M-2 ity. rous Piezoceramics with 3-3 (3-0) Connectiv- ment Modeling of Effective Moduli Po- ,

A. Nasedkin

Rostov on Don, Russia , Milford, NH 2 , , and R. Tasker

Different Approaches to Finite Ele-

J. Lan*, S. Frazier, and M. Tours, France. Centre, Connection Between X-Waves, The Temperature Influence on

Focused Air Transducers:

Airmar TechnologyAirmar Corpora-

3 TASI TechnicalInc., Software 1

, A. Rybjanets* LIEN . . P. D. Fox*, 511DE , 3

Université Henri 1 , Rostov State Univer-

2 UltraShape Ltd. 2

, L. Kushkuley INSERM .

, el Te F. 2 , Expohal, Rotterdam

Temex University conductor Physics of Russian Acad- Brandenburg, Germany Novosibirsk, Russia ternational lel Computing. using FEM/BEM Method and Paral- P1J-6 emy of Sciences Pastureaud, P.-A. Girard, and R. Lardat, SPUDT. Coefficients of SAW in Basic Cells P1J-5 vices. quency Derived for Leaky SAW De- Temperature Coefficient of Fre- P1J-4 P. Chen Tam, Massloading. SAW Filters Including Electrode Simulation of Dispersive Layered P1J-7 The Hong Kong Polytechnic , S. Sabah* Finite-Difference Time-Domain

Transmission and Reflection Sophia Antipolis, Fance Empirical Equation for the R. Taziev*, Analysis of SAW Devices 2 , ,

Hong Kong Hudson, NH

1 VI Telefilter K. Y.W.and Wong* Y. 1

, E. Chilla Institute of Semi- X. Perois*, T. , . .

, Novosibirsk, .

2 Vectron In- , 1

, and D.- Teltow,

Uppsala, Sweden Japan University Information Technology University, The Angstrom Laboratory ters. Coupled Microelectromechanical Fil- P1K-4 Yantchev* and I. Katardjiev, a Longitudinal Wave Transducer. Film Lamb Wave Resonators Utilizing P1K-2 Petersburg, Russia Dvoesherstov Filters. P1K-1 Chiba*, ducers and Numerical Simulations. a SAW Filter Having Fan-Shaped Trans- ment of Surface Acoustic Waves Within P1K-3 Sveshnikov* A. Alastalo* and V. Kaajakari, . Tunable Edge

Amplitude and Phase Measure-

Design and Meisei University ,

Designing Capacitively Russia 1 V. Cherednick , 1 1

, V.Reut Nizhny Novgorod State . , . Fabrication of Thin

2 AEC Design Reflectors in SAW

, Espoo, Finland

, Hino, Tokyo, 2

, and B. Uppsala 1 , M.

VTT St.- V. T.

. ,

of Fundamental Technological Re- Warsaw, Poland University Institute of Te University search, Polish Academy of Sciences University Laurell polymer Transducers. P1L-2 Lilliehorn Simu Tasinkevych* and E. Danicki, ducer in External Electric Field. Problem for SAW Interdigital Trans- P1K-9 Blom form. sonic Trapping in a Microfluidic Plat- and Hard PZT Transducers for Ultra- P1L-1

Chair: T.PennsylvaniaShrout, The

1 1 MATERIALS FOR , and S. Johansson , M. Nilsson TRANSDUCERS L. Johansson* 2 , and S. Johansson Temperature Evaluation of Soft Multilayer Piezoelectric Co-

Nonstandard Electrostatic , M. Almqvist Session P1L , , ,

State University

Lund, Sweden

Uppsala, Sweden Uppsala, Sweden chnology . 2 , M. Almqvist 1 , M. Nilsson , 2 T. Lilliehorn*

, J. Nilsson Lund, Sweden . 1 1 , , 1

Uppsala

Uppsala Institute , ,

2 2

Lund Lund 2 2 , T . , U. 2 1 , T. , T. Y.

. ,

Tohoku University bara, CA, California, Santa Barbara Modarres uiversity and M. Hasan Ghasemian, Mahmoud Sakhaei*, Ali MahloojiFar, tion in Phased Array Imaging. P1M-1 S. Ito, K. Nakamura*, and Ishikawa, BaTiO P1L-7 Lughi, and N. MacDonald, plications. Titanium for Piezoelectric MEMS Ap- P1L-8 Chair: R. Lerch, University of 3

Thin Films Grown by ECR-PLD. TRANSDUCER Aluminum Nitride Thin Films on Analysis of Point Spread Func-

Piezoelectric Properties of

Session P1M

. MODELING S. Boeshore*, E. Parker, V. Erlangen

Sendai, Japan Tehran, Iran

University of

Santa Bar- . Tarbiat

Sonderborg, Denmark versity of Southern Denmark, Rabelais University, LUSSI, FRE 2448 Grundtvigs Alle 150 CNRS Lethiecq, and F. Levassort, Batifol, S. Callé*, P. Maréchal, M. of Lens-Focused Transducers. Method to Calculate Radiation Pattern P1M-7 Y. Feng, Systems. Phenomena in Reciprocal Ultrasound P1M-6

, Tours Cedex, France

Nonlinearities and Hysteresis Pseudospectral Time-Domain Mads Clausen Institute, Uni- M. Willatzen*, L. Wang, and . ,

DK-6400 François C. 36 13 ..10 ..Monday, September 19, 2005 11:30 a.m.–1:00 p.m.

a.m. 11:30

a.m. 11:45

Université F. Rabelais, Tours, France Rotterdam, The Netherlands U619 sity of Virginia France Research France S. Roger 4 2 Nanobeads. Microbubbles with Attached Camera Observations of Mediated Drug Delivery: High-Speed 1A-1 Contrast Microbubbles. Permeabilization with Ultrasound and 1A-2 Wamel Tranquart S. Hall

Inserm, E0211 Inserm, CIT Ultrasons Chair:

Mechanisms of Cell Membrane Mechanisms of Ultrasonically- , DELIVERY UCA/

THERAPEUTIC

2 LOCAL DRUG Inserm, U619, Inserm, Tours, France 1 . , , M. Emmer , and A L. Klibanov 1,4

, 2,3 Session 1A 3

P. University Burns, of

, and A. Bouakaz Université F. Rabelais New YorkNew , J. Y. LeGuennec , Toronto , , C.T. Chin*

om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1

CIT Ultrasons, Tours, Inserm, E0211, Inserm, Tours, Charlottesville, VI 2 , N. de Jong ,

2 Erasmus MC Erasmus T. A. Tran* A. T. 1 1,3 , A. van 3 , , , 1 3

Inserm, Univer- Philips 2,3 2 , C. , F. . 2,3

, , , , ,

Tokyo, Japan

and H. Yanagimura, tivity, Diffusivity, Capacity. Distributions - erty Thermal Conduc- 2A-2 New York,NY Konofagou*, Imaging. ducer Method for Harmonic Motion 2A-1 Chair: STATIC ELASTICITY A Single-Element Focused Trans- Reconstruction of Thermal Prop-

H. Ermert, Ruhr University

C. Maleke, M. Pernot, and E. Session 2A .

Columbia University Sophia University C. Sumi*

, ,

Tennis CB2 Road, Cambridge, Court technology, University of Cambridge 1QT, UK Biosensors. 3A-1 Sethi, and E. Kioupritzi, Stevenson, B. Araya-Kleinsteuber, R. Chair: J. Vetelino,University of

(Invited) Novel Acoustic BIOSENSORS

. Session 3A C. R. Lowe*, A.

Maine Institute of Bio-

Sapporo, Hokkaido, Japan Engineering, Hokkaido UniversityEngineering, and O. Matsuda, tals. Acoustic Waves on Phononic Crys- 4A-2 11:45 AM of Ukraine Nelin*, 4A-1 Chair: J. Brown, JB Consulting Imaging of Propagating Surface Apodized Phononic Apodized

D. M. Profunser*, O. B. Wright,

National TechnicalUniversity

PHONONIC

CRYSTALS Session 4A

Kyiv, Ukraine Graduate School of . Crystals. . Y.

Crolles, France Switzerland zerland C. Muller A. Dubois* WCDMA and WLAN Applications. 5A-2 and K. Takasuka Carpentier 3 5A-1 Muller* Hybrid Differential BAW Filter. ST Microelectronics, Central R&D Chair: R. Weigel, University of

Above-IC FBAR Technology for A High Performance W BAWFILM THIN , 1 Erlangen-Nuremberg , M. A. Dubois

2 CEA-LETI

3 3 Session 5A

, P. Vincent FILTERS

1 , CSEM 1 2

, C. Billard AKM . 2 , , 1

, ,

CSEM

Grenoble, France

Neuchâtel, Swit- Tokyo, Japan 2 , G. Parat 1 , Y., Ueshima

, Neuchatel, 2 , J.-F. CDMA 2 , and . M.- C. 2

, , ,

Sunnybrook & Women’s College sity of Southern California les, Ca Health Science Centre, University of Williams, and K. Shung, sonic Array Design. 6A-2 Toronto S. Foster, E. R. Cherin, Williams, J. Mehi, and F. M. Lukacs*, J. Yin, G. Pang, R. Garcia, tion of High Frequency Linear Arrays. 6A-1 HIGH FREQUENCY Chair: S. Smith, GE Global A Kerfless 30 MHz Linear Ultra- Performance and Characteriza-

, .

Toronto, Ontario, Canada

Session 6A ARRAYS

Research Imaging Research, J. Cannata*, Rotterdam

Los Ange- Univer- . 37 p.m. 12:00

p.m. 12:30 p.m. 12:15 p.m. 12:45

University of California Toronto, ON, Canada Gunma University sity of Toronto 2 pan ject by Seed Bubbles. 1A-3 Burns 1A-5 Imaging and Drug Delivery. Cells. Different Size Markers in Mammalian 1A-4 Banerjee Imaging Research, SWCHSC . Trapping of Low Sensitivity Ob- Ultrasound-Induced Uptake of (Invited) Ta 1,2 R. Karshafian* ,

2 Medical Biophysics, Univer- , P. D. Bevan

, Toronto, ON, Canada

, rgeted Ultrasound rgeted Kiryu, Gunma, Ja- Kiryu, 1,2 . , S. Samac , Y. Yamakoshi*,

1,2 Davis, CA , and P. N. K. Ferrara*, 2 , M. .

, ,

Niskayuna, NY ment of Physics, Institute Cancer ter, MN and Biomedical Engineering, Mayo Research and Royal Marsden NHS Clinic College of Medicine Trust erlands University Medical Center, Nijmegen, The Neth- ics Laboratory, UMC St Radboud Nijmegen, The Netherlands Biology Katsaros Greenleaf, Formation. tion for 2A-3 structed Cleft Lips. 2A-6 Thomenius, Data. L. Xu* and J. Bamber, Strain Estimation for Elastography. 2A-5 Measurements on Pulse Based Arterial Wave Velocity cessing Methods to Ultrasound- 2A-4 Hees Ultrasound Elastography of Recon- 2 , Evaluation of Array Signal Pro- Dynamic Signal Arrival Correc- , W., F. Huyskens Wavelet Transform-Based

A. Dentinger*, R. Hoctor, and K.

, , Sutton, Surrey, UK.

2 Radboud University Medical Center,

. 2 Department of Orthodontics and Oral , and J. M. Thijssen

Vibro-Acoustography

Department of Physiology GE Global Research M. Urban* and J. .

C. L. de Korte* In Vitro 2 , G. Weijers .

1 Joint Depart- ,

and Clinical Phys- ,

Roches- Radboud

1 In Vivo , N. van Image 1 , C.

Institute for Solid State and Materials University of Maine E. coli University of Maine University Germany Research Dresden tin, H. Schmidt, and M. Weihnacht, Sensors. tion Process with QCM and SH-SAW 3A-5 12:45 PM 3A-4 Bjurström, and I. Katardjiev, Applications. troacoustic Resonator for Biosensor 3A-3 12:15 PM Millard, L. French, and J. Vetelino, Biosensor.tic Wave 3A-2 Millard, and M. Pereira da Cunha, Shear Mode AlN Thin Film Elec- Monitoring the Blood Coagula- A Lateral Field Excited Acous- A Langasite SH SAW O157:H7 Sensor. . G. Guhr*, R. Kunze, Mar-

, Uppsala, Sweden G. Wingqvist*, J. E. Berkenpas*, P. ,

, ,

Dresden. Saxony,

Orono, ME, Orono, ME

C. York*,P. Uppsala . .

Taipei , Taiwan Applied Mechanics, National Taiwan University chanics, France France FEMTO-ST, LPMO Département lanta, GA J.-H. Sun* and T.-T. Wu, tal Waveguides using FDTD Method. Wave Propagation in Phononic Crys- 4A-5 Lille1 2 1 Slabs. sional Piezoelectric Phononic Crystal 4A-3 Larabi Choujaa Pennec* in a Two Dimensional Phononic Crystal. 4A-4 and T.-T.Wu, Supercell Techniques. using the Plane-Wave Expansion and in Phononic Crystal with Channel 4A-6 Mohammadi

Université de Franche-Comté Institut FEMTO-ST, Channel Drop Process of Elastic Wave Hypersonic Band Gaps in Two-Dimen- , 1 Analysis of Wave Propagation Analyses of Surface Acoustic

, and V. Laude , . Villeneuve d’ascq, France

2 1 Georgia Institute of , J. Vasseur

, B. Djafari-rouhani

A. Khelif* . National Taiw , 3

, A. Adibi

Taipei, Taiwan Institute of Applied Me-

. Besançon cedex, France 2 , 1 2 1

3 , B. Aoubiza

, S. Benchabane

LDSMM, Université de

, and Vincent Laude an University

Z.-G. Huang* 1 Technology , A. Khelif

. Institute of ,

Besançon, Besançon, ,

2 Institut 2 , S. 2 2 ,

, H. , A. At- Y. 1

, , ,

LTD. San Jose, CA Munich, Germany Netherlands Kingdom search Laboratories Bruijn Y. Satoh, Sakashita, T. Nishihara, M. Ueda, and M. Iwaki, Y. Iwamoto, T. Yokoyama, T. W-CDMA Application. with Reduced Acoustic Loss for the 5A-4 and C. Wade, WCDMA Band. tion Handset Duplexer for UMTS-1 5A-6 2 Vanhelmont* - 2D Modelling and Industrialization Aspects. 5A-5 Braun, and T. Metzger, Woelky, M. Schmiedgen, G. Henn, R. Schmidhammer*, H. Heinze, M. CDMA Applications. 5A-3 E. van der Sar Philips Research Laboratories Bulk Acoustic Wave Resonators and Filters 3 , , J.-W. Lobeek Low Insertion Loss, High Rejec- A Miniaturized FBAR Duplexer

BAW Components for PCS- Akashi, Hyogo,J apan ,

3 Philips Semiconductors . 1

, A. Jansman FUJITSU LABORATORIES 3 , P. Huiskamp .

3 Agilent Technologies

, and A. Tuinhout Eindhoven, The Netherlands D. Feld*, T. Jamneala, . 1 , J. Ruigrok 3 , G. de Bruin J. Tsutsumi*,

, EPCOS AG

, Redhill, United Nijmegen, The 3 1 , , R. Milsom .

1 Philips Re- 3 , F. de E. F. 2

, , , ,

NY, University of Southern California Kingston, ON, Canada Angeles, CA University of Medicine erside Research Institute Medicine Lockwood, lar Arrays. Width of Elements in Kerfless Annu- 6A-3 J. Cannata, C. Hu, and K. Shung, Transducers. 6A-4 Brown* and G. Lockwood, rays for High Frequency Imaging. 6A-6 Fabrication Te Annular Array Ultrasound Transducer 6A-5 Aristizábal

2 Skirball Institute of Biomolecular An Investigation of the Effective Polyimide Backed 40 MHz PVDF Design of Sparse Annular Ar- High Frequency Copolymer ,

NewSchool YorkUniversity 2 Kingston, Ontario, Canada , and D. H. Turnbull C. E. M Démoré* and G. R.

. NY York,New Queen’s University chnology. J. Ketterling* . E. Gottlieb*, ,

New York,New Queen’s 2 , 1 , , O.

Riv- Los J. . , 38 :0pm–:0pm Monday, September 19, 2005 2:30 p.m.–4:00 p.m.

p.m. 2:30

p.m. 2:45

Rotterdam, The Netherlands ogy Thorax center ErasmusMC P. W. Serruys*, ing in the Catheterization Laboratory. 1B-1 (Invited) Biomedical Engineer-

Chair: T. van der Steen, Session 1B

Erasmus MC IVUS I

om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 Interventional Cardiol- Interventional .

mark pitals Gasthuisberg sity Bijnens P. Verdonck 3 1 M. Mc Laughlin* Doppler Wire to Estimate Volumetric Flow. Insonation Direction of an Intra-Vascular Doppler Spectrum on the Position and 2B-2 Jensen*, Sparse Pulse Sequences. using the AutocorrelationFunction and 2B-1

K.U.Leuven, Hogeschool

, Chair: P. Tortoli,University of Ghent, Belgium Exploiting the Dependency of ,

Spectral Velocity Estimation Spectral Velocity

BLOOD FLOW Lyngby, Denmark 1

, P. Segers

Technical University of Den- Session 2B

Leuven, Belgium 4 Ghent, Belgium , P., Devos 1 , J. Wauters Firenze . , 4

, and P. Claus Leuven, Belgium 3 , A. Wilmer 2 , . , , W. Hillewaert

University Hos- Ghent Univer- J. A. 2 , B. 1 3

, , ,

Sendai, Japan Toyohashi, Japan University Japan Hozumi* quency Range up to 100 MHz. Focused Acoustic Pulse with a Fre- aging for Biological Tissue Using a 3B-2 Kobayashi tria Austrian Research partment of Physics, Karl-Franzens- Universität Graz partment of Computer Science, Universität Innsbruck using Integrating Line Detectors. 3B-1 SIGNAL PROCESSING Burgholzer* Haltmeier

Chair: J. Saniie, Illinois Institute of NDE IMAGING AND . Acoustic Impedance Micro-im- Thermoacoustic T , 2

1 Honda Electronics Co. Ltd. , M., Nagao

3 2 Session 3B , and O. Scherzer

, and Y. Saijo of Technology 1 , C. Hofer Technology . ,

, Graz, Austria ,

Tohoku University Linz, Austria 1 , , S. Yoshida 1

, G. Paltauf Innsbruck, Aus- 3 ,

, omography

Toyohashi, 1 Toyohashi 3 ,

1 , Upper , 1 2 3 2

, M. , K.

De- De- N. P.

, ,

Palo Alto, CA Radio Chemistry of TechnicalRadio Chemistry University and Electronics, Russian Academy of Sciences Novomoskovsk Moscow, Russia and Y.Rezvov tors. multaneous XY Acoustooptic Deflec- 4B-2 Optical Channel. ing of Several Optical Beams into One Problem Based on the Coherent Combin- 4B-1 Chair: B. Sinha, Schlumberger-

Approach to Inverse Acoustooptic Analysis of Serial versus Si- INTERACTIONS

D. Hecht*,

Session 4B Doll Research OPTICAL 2 ,

of TulaRegion Institute of Radio Engineering ,

2 Novomoscovskii Institute of

V. Proklov* DLH Laboratories . 1 , S. Antonov 1

, , , ,

21090 sor Sector, Northrop Grumman Sys- tems Corporation V. Krishnaswamy*, Applications: Historic Perspective. electric Films For Microwave / MEMS 5B-1

(Invited) Piezoelectric / Ferro- THIN FILM BAW Chair: K. Lakin, TriQuint

MATERIALS I Session 5B

Electronics Sen- Baltimore, MD

vanced Electron Devices Laboratory, Korea Kyunggi-do Saiwai-ku, Kawasaki 212-8582, Ja- Corporate R&D Center,Corporate Toshiba Cor- pan

poration 6B-2 1 Jung PT Single Crystal. Array Ultrasonic Probe Using PMN- 6B-1 Y. Hosono* and Y. Yamashita, forCrystal Medical Array Transducer. 3 Chair: T.PennsylvaniaShrout, The ) HUMANSCAN Co., Ltd.

0.42 . SINGLE CRYSTAL

1 PIEZOELECTRIC A 7.0 MHz 0.15mm pitch Phased TRANSDUCERS , J.-S. Jun . 0.34 Pb[(In ,

State University Session 6B 1 Komukai, Toshiba-cho, , 3 2

Piezoelectric Single Medison Co., Ltd. 1/2 Nb 2 , and J.-S. Hwang 1/2 S. M. Rhim* ) Rotterdam 0.24 (Mg ,

, Ansan,

1/3 Seoul, Nb 1

, H. Ad- 2 2/ , 39 p.m. 3:00

p.m. 3:30 p.m. 3:15

p.m. 3:45

Michigan, Biomedical Engineering Department Technology sity Austin Health Science Center MC Netherlands Twente Amirian Sethuraman erosclerotic Plaques. Imaging to Detect and Differentiate Ath- 1B-3 Emelianov* R. O. Guldiken Vasorum Imaging. trasound: A Feasibility Study for Vasa 1B-5 Witte, and M. O’Donnell, by High Resolution TSI. 1B-4 F. L. Degertekin Using an Annular-Ring CMUT Array. 1B-2 de Jong Frijlink ,

, Rotterdam

Harmonic Intravascular Contrast Ul- Istanbul, Turkey Forward Looking IVUS Imaging Arterial Lipid Characterization 1 Intravascular Photoacoustic ,

, L. C. A van Damme 1,3

Enschede Austin, TX , and A. F. W van der Steen 2 , R. Smalling

, Utrecht , , 1

, Atlanta, GA

, Ann Arbor, MI 1 , S. Aglyamov

2 1

Interuniversity Cardiac Inst. University of Texas at . 1 , 1 , M. Karaman* , , 1

D. E. Goertz*

3 Georgia Institute of

Physics of Fluids, Univ.

2 University of Texas . , 1

, R. Krams Houston, TX University of 2 2

K. Kim*, R. , and S. Isik Univer- . 1,2 ,

1,2 1 Erasmus , M. E. 2 1 , and , J. 1,2 , N. S.

Department of Electronics and Tele-Department communications, University of Flo- Mileparken 34 Imaging, ørsted DTU, Bldg. 348, Tech- National Engineering, Electrical Tai- Denmark rence nical University of Denmark wan University Academy of Sciences Military Military Adamus Wang* and P.-C. Li, ing Aperture Domain Data. 2B-5 3 W. Secomski* Hematocrit of Blood in the Human Artery. Ultrasonic Scattering, Attenuation and 2B-4 guity. for Removing Doppler Angle Ambi- 2B-3 proach. mation using an Autocorrelation Ap- 2B-6 Jensen University of Florence Doppler, Multigate Measurements of In-Vivo 2-D Blood Velocity Esti- Vector Velocity Estimation us- A Novel Dual Beam Approach ,

P. Tortoli*, G. Bambi, and S. Ricci,

Medical Academy 2 1 Firenze, Italy , P. Fidanzati ,

, Center for Fast Ultrasound J. Udesen* 1 , A. Nowicki

2 B-K Medical A/S,

Herlev, Denmark Taipei, Taiwan,ROC ,

3 Warsaw, Poland

, and P. Tortoli , Florence, Italy Florence, .

, 1 Department of Department

, R. Olszewski

1,2 Warsaw, Poland and J. A.

, Lyngby, 3 , . 1 ,

H.-L. Polish

. Main 2 , J.

. ,

Sensor Systems (IMOS) Engineering, National Cheng Kung Sachsen-Anhalt, Germany of Paisley University

Scotland, UK Y.-C. Lee, Defect Inspection. destructive Acoustic Imaging and rayed Ultrasound Transducer for Non- 3B-3 Wang trasonic Arrays for NDT. 3B-5 P. Hauptmann, Ultrasonic Signals. ment using PLSR Based Analysis of 3B-4 2 S. Cochran France Doll Research Yusta 3 2 Vermesan* System with Integrated Front End Electronics. 3B-6 K. Liang O. Martinez

CSIC Schlumberger-Riboud Product Center University of Glasgow High Temperature Phased Array Ultrasonic , 3 Low Voltage Operation of 2D Ul-

Acoustic Impedance Measure- Spain , and J. Mc Hugh A Novel Back Scattering Ar-

5 2 8 BAM , D. Mercier , and J. Wallace 1 3 , B. Froelich , J.-L. Guey , , ,

, 4

Germany

1 of Mechanical Department

, IMASONIC

, K. Kirk Tainan, Taiwan Paisley, Scotland, UK , .

6 6

TRONICO , R. Bahr Institute of Micro- and . 4 2 , L.-C. Blystad , L. Gomez-Ullate Alvear , 1

C.-H. Chung* and France , D. Cumming 8 R. Schaefer* and 1 , , P. Schoeb

SINTEF France 2 , ,

K. Streibel* , Magdeburg, 5

Schlumberger- 1

University Glasgow, 1 , , G. Fleury

, 7 STATICE , C. Fritsch

Norway France 2 , L. O. 1 3 4

, ,

, , , , ,

Gamagori, Aichi, Japan CA Uzbekistan Science, Industrial University of To- Technology University Miyazaki kyo 2 Chang*, Acousto-Optic Techniques. 4B-3 Minami, and K. Takagi, Gas Materials. Brillouin Spectroscopy of Solid and 4B-4 Akhmedzhanov*, tivity in Gyrotropic Crystals. Light Intensity using Acoustical Ac- 4B-6 tonic Router. linear Acoustooptic Devices for Pho- Spectral and Time Domains with Col- 4B-5 Aichi University of Technology

, Tokyo Japan , High Speed Laser Tuning using High Resolution Optical Beating New Technology for Control of Control forNew Technology Optical Label Recognition in

2 Accord Optics , , ,

. Samarkand, Samarkand,

Toyohashi University of Toyohashi, Aichi, Japan K. Sakai*, T. Yogi, Y.

N. Goto* Samarkand State .

, .

Institute of Sunnyvale, 1 and Y. I. C. .R. R F.

, ,

Kawasaki, Kanagawa, Japan R&D Center,Corporate Toshiba Cor- d’Electronique et de Microtechnique Modular Sputtering, Inc. Liechtenstein poration, Kawasaki, Japan. SA BALZERS AG sique des Milieux Ionisés et Applications AG / Cor B. Sylvia, and D. Marx, Devices.Acoustic Wave AlN Deposition Used in Making Bulk 5B-5 ter System. of BAW Filters on a Production Clus- 5B-4 France M. B. Assouar Muller Schreiter Yasumoto, T.Kawakubo R. Ohara*, K. Sano, N. Yanase, T. <111>-Oriented Aluminum Electrode. Wave Resonator Using Highly 5B-3 2 Blind for Shear BAW Devices. by Reactive Sputtering using an Additional 5B-2 Université Henri Poincaré / Laboratoire de Phy- ,

C-Axis Inclined ZnO Films Deposited Neuchatel, Switzerland High-Q Thin Film Bulk Acoustic Volume Manufacturing Aspects Improving Manufacturability of . 2

, and M.-A. Dubois porate Technology 1 , J. Weber 2 R. Lanz* , and O. Elmazria , 1 , D. Pitzer

2 Centre Suisse 1 , , C. Lambert

, Munich, Germany , and K. Itaya,

, Goleta, CA 2

M. Link*

1 S. Mishin*, Advanced , , R. Primig 2

1 Balzers, UNAXIS

1 . Siemens

, Nancy, 1,2 1 , C. , M. 1

. , , ,

Medical Solutions Paisley CA Systems and P. Marin-Franch, ter Ultrasound. Underwa- for Composite Transducers 6B-4 tions. ics for Medical Ultrasound Applica- 6B-3 6B-5 Chen* and R. Panda, Medical Imaging Applications. Piezoelectric Single Crystals for . Single Crystal vs. PZT Ceram- Ultrabroadband Single Crystal (Invited) Commercialization of M. Lu* and T. Proulx, ,

Paisley, Scotland, UK Andover, MA S. Cochran*, M. Parker,

Mountain View,

Philips Medical

University of

. Siemens . J. 40 :0pm–:0pm Monday, September 19, 2005 4:30 p.m.–6:00 p.m. p.m. 4:30

p.m. 4:45

Lyon, France Montreal, Quebec, Canada sity the Netherlands lands Institue of the Netherlands the Netherlands erlands Droog Brusseau 1 R. L. Maurice* Study.In vivo Human Coronary Artery tor for Endovascular Elastography: Lagrangian Speckle Model Estima- 1C-2 W. van der Steen M. E. Frijlink* Imaging with a Dual-Frequency Catheter. 1C-1 University of Montreal Hospital Chair: C. De Korte, Nymegen , .

Harmonic Intravascular Ultrasound Lyon, France 1,4 On the Potential of , , G. Blaquière

3 Delft University 2

, G. Finet Session 1C University MC 1 , D. E. Goertz ,

, om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 IVUS II ,

1,2 3

TNO-TPD Claude Bernard Univer- 2

, 1 Interuniversity Cardiology

, J. Fromageau 1 ErasmusMC . 3,4 3

, and G. Cloutier , A. Gisolf of Technology

, , Utrecht, the Neth-

1,2 Delft, the Nether- , H. J. Vos , ,

3 Rotterdam, INSERM , and A. F. ,

1 Delft, 1,3 , É. , E. 1 , , , Wells*, 2C-1

Chair: J. Greenleaf, Mayo Clinic

ULTRASOUND 19th CENTURY TO 21st CENTURY TO

(Invited) Lord Rayleigh.

Cardiff University

Session 2C CENTURY

, Cardiff, UK P. N . T. . N P.

Ohtsu, Japan and Informatics, Ryukoku University Kanagawa, Japan Miyashita*, sional Sonic/Phononic Crystals. in Two-Dimen-Acoustic Wave-Guide 3C-2 University of Y Kawashima, and S. Takeuchi, ticles. for Dispersion of Nano Diamond Par- Range Ultrasound Exposure System 3C-1 Development of Wide Frequency

Chair: D. Yuhas, Industrial

Defect Modes for a Promising Measurement Systems PROPAGATION

T. A. Uchida*, Hamano, N.

NDE-WAVE

Session 3C Department of Electronics

. okohama .

Yokohama, Toin T.

kyo Institute Yokohama, Japan Shigematsu* and M. Kurosawa, Surface Acoustic Wave Motor. 4C-2 A. Kobayashi, Oomori, A. Makino, K. Suzumori, and Ultrasonic Motor. a Cylindrical Micro-machined Micro 4C-1 Chair: R White, University of Design and Testing of Rotors for

Friction Drive Dyanamics of ULTRASONIC

California-Berkeley

Session 4C

MOTORS

Okayama University of Technology .

T. Kanda*, Y. To- T. .

Lausanne, Switzerland Polytechnique Federale de Lausanne Than AlN? rial for Thin 5C-1

(Invited) Is There a Better Mate-

THIN FILM BAW

Chair: J. Larson, Agilent

MATERIALS II Session 5C Film BAW Applications P. Muralt*,

. Ecole

Besançon, France nical University, Institute Acoustic and Saxonya, Germany Speach Communication zation of Arrays. 6C-2 M. Wilm, Ballandras*, V. Laude, S. Clatot, and ing Finite Element Analysis. Analysis of Periodic Structures us- 6C-1 TRANSDUCERS AND Chair: M. Schafer, Sonictech

A Fast Algorithm for the Optimi- A Time Domain Approach for the

MATERIALS

MODELING

Session 6C FEMTO-ST, CNRS E. K . . Rotterdam uehnick

, Dresden,

e*, Tech- S. , 41 p.m. 5:00

p.m. 5:30 p.m. 5:15

p.m. 5:45

University of Te

Netherlands A. Gisolf R. A. Baldewsing 2 1 Vulnerable Plaque Detection. cular Ultrasound Ppalpography for 1C-4

Rotterdam, The Netherlands Québec, Canada of Montreal Hospital lands (ICIN) teruniversity Cardiology Institue of the Nether- ErasmusMC

Serruys, and C. Slager, Schaar, F. . Wentzel,A. Thury,J.J. Schuurbiers, medical Engineering, Thoraxcenter, Raymond, and G. Cloutier, S. Lerouge, G. Soulez, I. Salazkin, J. dominal Aneurysms. cular Ultrasound Elastography on Ab- 1C-6 man Coronary man Coronary cular Ultrasound Palpography in Hu- 1C-5 ponents. of Vulnerable Atherosclerotic Plaque Com- Modulus Reconstruction and Delineation 1C-3 Schaar

ICIN, Interuniversity Cardiology Institute of the Erasmus MC Motion Compensation for Intravas- Deformable Bezier Curves for Deformable Bezier Curves Young’s A Feasibility Study of Intravas- Shear Stress and 3D Intravas- 1 , and A. F. W. van der Steen 3 R. A. Baldewsing* , and A. F. W. van der Steen , ,

Mastik, A. van der Steen, P.

Utrecht, the Netherlands Utrecht, The Netherlands Rotterdam, The Netherlands

chnology Rotterdam, the Netherlands 1 , F. Mastik Arteries. .

, the Netherlands J. Fromageau*, 1 1

, F. Mastik , J. A. Schaar Erasmus MC , K. Y.Leung* E.

F. Gijsen*, J

Montréal, University .

1,2 In Vivo , . 1 , , J. A. 3

. Delft 1

, Bio- 2

1,2 1,2 In- 1

, , , ,

Mayo Clinic of Virginia of versity of Michigan tics, Inc. Davis Schumann Hossack, M.Brush, Eames, T. Blalock, J. cal Ultrasound Device. Fully-Integrated, Pocket-Sized Medi- Generation Prototype of Low-Cost, 2C-5 Kim, Y. Hou, and M. O’Donnell, trasound. cal Generation and Detection of Ul- 2C-4 Mitri*, J. Greenleaf, and M. Fatemi, Acoustography for 2C-3 Shortencarier* ery with Ultrasound. 2C-2 Ferrara Tissue Microscopy using Opti- Targeted Chemotherapy Deliv- ,

Improving the Use of Vibro- The Sonic Window: Second Davis, CA 1 , ,

and W.Walker, Tuscon, AZ , S. Ashkenazi*, R. Witte, K. University of California at 2

, R. LaBell , Charlottesville, VACharlottesville, Rochester, MN 1 , T.Matsunaga ,

2 ImaRx Therapeu- . Bone Imaging. . M. Fuller*, E. 2

, and K. University . .

2 Uni- , P. M.

Carnegie Mellon UniversityCarnegie Nanjing,Jiangsu, P.R.China Group, Uppsala University Univ. Poincaré Henri Sweden burgh, PA Nancy, France 2 Schweitzer* Y. Mao, Nonlinearity. Interface by Contact Acoustic ing Strength at a Bonded Solid-Solid 3C-3 Greve*,I. Oppenheim, and N. Tyson, Waves in Complex Geometries. 3C-6 terface. sound with an Unbounded Rough In- 3C-4 Liquid Density. Form Function Versus Surrounding 3C-5

, Montpellier Cedex, France An Evaluation Method of Bond- Interaction of Defects with Lamb Nonlinear Interaction of Ultra- Numerical Study of the Wire . P. Wu*, . 2 ,

D. Zhang*, J. Chen, and

Nanjing University

LAIN, Univ. Montpellier

. Signals and Systems J. Mathieu

, Vandoeuvre-Les- ,

. Uppsala, 1 , and P. ,

Pitts- LIEN, D.

Harbin City, Heilongjiang Province, Department of Mechanical Engineer- Fédérale de Lausanne China ing, Harbin institute Motors Motors, Nanjing University of Aeronau- 210016,Jiangsu Province, China Lausanne, Switzerland tics and Astronautics Perriard, Actuator. a Standing Wave Ultrasonic Linear 4C-3 Zhao, Ultrasonic Motors. 4C-6 J. Zeng, Mechanism. Based on Three-Dimension Contact Wave Type Ultrasonic Motor Rotary 4C-5 Stator Surface. on a Model with Frictional Layer eling Wave Ultrasonic Motor Based 4C-4 Design Optimization Analysis of Frequency Conversion Stepping Performance Evaluation of Trav- A New Modeling of Traveling

. Research Center of Ultrasonic

Nanjing, Jiangsu, China Research Center of Ultrasonic

J. M. Fernandez* and Y. Ecole Polytechnique C. Zhao*, Chen, and

J. Qu* and F. Sun, J. Jin* and C. of Technology . ,

Nanjing 1015 . .

Uppsala, Sweden Lausanne land sity of Arizona Lausanne, Switzerland Rey-Mermet nologies Fattinger, and R. Aigner, tors. for Solidly Mounted BAW Resona- 5C-4 Glass Blocks. ducers through Contact Bonding of 5C-3 Resonators. Grain Growth of AlN Thin Films in BAW 5C-5 P. Muralt Katardjiev, Bjurström*, G. Wingqvist, and I. Shear Mode Resonators. C-Axis Mean Tilt for the Fabrication of ezoelectric AlN Films with a Nonzero 5C-2 , Optimization of Acoustic Mirrors Evaluating ZnO Thin Film Trans- Shear Mode Coupling and Tilted Synthesis of Textured Thin Pi- of Textured Thin Synthesis S. Marksteiner*, J. Kaitila, G.

2 CIME EPFL Lausanne 1 , ,

, Munich, Germany

Ceramics Laboratory EPFL Ceramics Laboratory EPFL Lausanne, Switzer- 1 , M. Cantoni

F. Martin* Uppsala University ,

F. Hickernell*, Tucson, AZ . 1 , M.-E. Jan

. 2 Infineon Tech- , D. Su . .

, Univer- EPFL 1 , and 1 , S. J.

Cedex, France Ultrasons versity of Salerno kirchen, Germany Results. Materials: FEM and Experimental Sciences Gelsenkirchen mances. rial Characterization to Array Perfor- Piezocomposite Arrays: From Mate- 6C-3 Hladky Patat 2 Iula 2 1 ments (20 MHz). ATILA and Ultra Fast Laser Measure- 1-3 Ultrasonic Composites using 6C-5 M. Overhoff, T. Gehrke*, F. Cheikhrouhou, and H. Experimental System Identification. sponse of Ultrasonic Transducers by 6C-4 1 of the 6C-6

DIE University of Roma III Fraunhofer - IKTS VERMON ISEN – IEMN Department 2 , and M. Pappalardo A Method for the Measurement Design and Characterisation of Derivation of the Impulse Re-

Numerical Prototyping of k , R. Dufait 2 Factor in Lossy Piezoelectric , and A. Schoenecker N. Lamberti* ,

G. Ferin*

Tours, France Tours, France University of Applied . ,

. Fisciano,

1 Dresden, Germany T. Roedig* , and N. Felix 1,2 1 , D. Certon , G. Caliano , 2 . , 2

LUSSI \ GIP Roma, Italy

(SA), Italy

DIIIE Uni- Gelsen- 1

, A.-C. , Lille 2 2 , A. , F. 1 1 . , , , , 42 :0am–00 ..Tuesday, September 20, 2005 8:30 a.m.–10:00 a.m. a.m. 8:30

a.m. 8:45

Biomolecular Medicine cine sity of Virginia.edu search Institute VA 2 Aristizábal* Array.40 MHz Annular 1D-1 A. French, and J. Hossack, Echocardiography. Infarction Using Myocardial Contrast Intact Mouse Heart after Myocardial 1D-2 Turnbull New York University School of Medi-

Chair: S. Foster, University of

. , MOUSE IMAGING Mouse Embryo Imaging with a

3D Perfusion Mapping in the New York,NY

1,2 Session 1D , 1,2 , J. Ketterling

1 Skirball Institute of om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 Toronto

, New York, NY York,New Y. Li*, Z. Yang, B. ,

, Charlottesville, ,

Riverside Re- New York,NY 3

, and D. H. Univer- . O.

Michigan, Internal Medicine Toronto, ON, Canada ology ON, Canada bor, MI lege Health Sciences Centre gan, Biomedical Engineering Depart- ment Weitzel E. Cherin and M, O’Donnell the Mouse. Pulse-Wave Velocity Measurement in 2D-2 ter Imaging and PWV. Reconstruction from In-vivo Strain 2D-1 Chair: L. Masotti, University of 1,2 , , Duplex Arterial Elastic Modulus ,

A Retrospective Method for 1

Sunnybrook and Women’s Col-

Ann Arbor, MI Ann Arbor, MI 2 , , H. Xie

1 VASCULAR University of Michigan, Radi- , Y.-Q.Zhou Session 2D R. Williams* ,

2 Mouse Imaging Centre Firenze 1 , J. M. Rubin 1 ,

1 University of Michi- . . 2 K. Kim* , , and F. S. Fos-

2 1 , A. Needles University of , , 3

, C. Jia

Ann Ar- Toronto, 1 , W.F. 1 1

, , ,

China University Spazio, Laben/Proel Telecommunications, Haiyan, H. cunfu*, and W. Bin, Wave Transducer. sel using Interdigital PVDF Lamb 3D-2 Florence Occhiolini* Transducers. Waves Piezopolymer Interdigital bon-Epoxy Composites by Lamb 3D-1 and E. Rosi Pennsylvania State University

Fouling Detection in Food Ves-

Strain Measurements on Car- . NDE-GENERAL Chair: B. Tittman, The

Session 3D METHODS 1

, L. Capineri

of Technology Firenze, Italy 2 ,

1 Dept. Electronics and A. Bulletti

J. Jingpin, G. Firenze, Italy University of 1 , L. Masotti

, , Beijing, 2

Alenia Beijing , O. . 1

Petersburg, Russia stitute of Physics, St. Petersburg Physics, National Cheng Kung Uni- State University versity Ch. Tien Acoustic Crystals. 4D-1 Chair: T. Shiosaki, NARA Institute of Science and Technology (Invited) Ionic Conductivity in

ACOUSTICS 1 Tainan, Taiwan,ROC 2

, and A. L. Pirozerskii Session 4D PHYSICAL

, Petrodvorets, St. , E. V.Charnaya*

2 Department of . 1 ,

1 In- 1

Moscow, Russia Northampton, Northants., UK Germany tute for Solid State and Materials Re- cow Power Engineering Institute search Dresden ture Stable Oscillators. 5D-2 Shvetsov B. Wall 2 5D-1 Morgan* ing Natural SPUDT Substrates.

NOVEL SAW DEVICES Vectron International Telefilter Chair: D. Malocha, University of

One-port SAW Resonators Us- SAWfor Resonators Tempera- AND ANALYSIS 2 , and M. Weihnacht

. 1 , S. Zhgoon Session 5D 2 , Central Florida

1 Impulse Consulting ,

. Dresden, Germany 2 G. Martin* , and A. 1 ,

, Teltow,

1 2

Insti- Mos- D. P.D. 1

, , , ,

Corp. Patel, and I. Ladabaum, Wagner, B. Bymaster, S. Panda, K. System Implications. Integration, In-Handle Chip Sets and for 2D and 3D Imaging: Monolithic 6D-1 ULTRASOUND MEMS Chair: F. Georgia Degertekin,

(Invited) cMUTs and Electronics ,

TECHNOLOGY

San Leandro, CA Institute of Technology Session 6D Rotterdam .

C. Daft*, P. Sensant 43 a.m. 9:00

a.m. 9:30 a.m. 9:15 a.m. 9:45

Charlottesville, VA,Charlottesville, Washington University delphia, PA delphia, PA of Virginia of Forsberg Murine Glioma Model. US to Markers of Angiogenesis in a 1D-3 Carradine, G. Lanza, and S. Wickline, Marsh, A. Woodson, E. Lacey, C. Athymic Nude Mice. forms Using 1D-5 Potoczek 1 Y. Li, Hearts. Ultrasound Scanning of Mouse Free-Hand to VolumeQuantificationfor 1D-6 in MDA 435 T Detection of Contrast Targeted Tissue French, and J. A. Hossack, Speckle Tracking. of Myocardial Strain in Mice using 1D-4 Thomas Jefferson University Characterization of Digital Wave- Comparison of Two Approaches High Resolution Quantification Comparing Contrast-Enhanced C. Garson*, J. Hossack, and 1 , P., Lewin

1 University , K. Lipcan , ,

. Thermodynamic VACharlottesville,

2 Drexel University umors umors Y. Li*, Z. Yang, B. A. 2 , and B. Goldberg . , M. Hughes*, J.

1 St. Louis, MO Implanted in

, J. Liu of Virginia

R. Ro* University Analogs: , ,

Phila- Phila- 1 1,2 , M. , F. 1

, . ,

Princeton, NJ ogy University Michigan Medical School Texas at Austin of Montreal Hospital search Center ration Maurice Lindström Goldman Vein Thrombosis. 2D-6 2 Carotid Stenoses. 2D-5 Assessments. lar Elastography for Carotid Artery Plaque 2D-4 T. Chilipka Soulez Ahlgren M. Cinthio* Media Compression Measurements. Intima-Media Thickness and Intima- 2D-3 Rubin Aglyamov Princeton Surgical Associates , Photoacoustic Imaging to Age Deep Development of Non-Invasive Vascu- , 3 An Instrument for Screening

New Non-Invasive Method for

, and S. Y. Emelianov*

2 Lund, Sweden North Palm Beach, FL , 1

, S. Lanthier 1 University of Montreal Hospital Re- 2 1 , S. Mallidi , H. W. Persson 2 1

, , ,

Malmö, Sweden 1 1

1 , 1

, Lund Institute of

, T., Jansson

DVX, llc , R. Outcault Montreal, Quebec Austin, TX G. Cloutier* .

, A. B.Karpiouk Montreal, Quebec 2 , M.-F. Giroux 1 , W. G. Scott D. Vilkomerson* ,

, Ann Arbor, MI ,

Kingston, NJ 2

Winprobe Corpo- 1 , C. Schmitt UMAS, 1 , , 1

, Å. Ryden

3 1

University of University of 1 2 , , and K. , and K.

University Technol- 2 , and G. 1 2

, S.R.

, J. M. Lund . . 1 , R. 1

, , ,

versity Bochum Netherlands Bochum University of Madrid., Spain Cáceres, Spain Universidad de Extremadura (UEX) Spain y Desarrollo Tecnológico. Junta de Extremadura perior de Investigaciones Científicas (CSIC) Keitmann-Curdes*, P. Knoll, H. Meier Specularly Reflecting Surfaces. 3D-4 3 1 medical Applications. 3D-6 F. López Granites by Freezing and Thawing. 3D-5 2 Applications. NDE for Omnidirectional Transducers 3D-3 González Mienkina Santos Filho and H. Ermert, M. Parusel K. Kobayashi

Honda Electronics Co. Ltd. Tohoku University Krohne Altometer Ultrasonic Study of Alteration Processes in , Speed of Sound Microscopy for Bio-

2 INTROMAC. Consejería de Infraestructura Development of Broadband, 3D Contour Tracking of 1 , F. J. Esteban 2 , A. Ramos , 1

, and H. Ermert Bochum, Germany .

1 Technology , , T., Yambe 3 3

, N. Okada Instituto de Acústica. Consejo Su- 1 , W., Wilkening O. Keitmann-Curdes* ,

, Sendai, Japan 3

, and J. L. San Emeterio 1 Bochum, Germany , M. Mota

Y. Saijo* ,

, Ruhr-University

1 Dordrecht, The

, and M. Toyohashi, Japan ,

3 Toyohashi, japan , H. Sasaki 1 2 , J. Tejado , 1 L. M. Del Río* , N., Hozumi 1

, Ruhr-Uni- 2 .

Toyohashi Tanaka Cáceres, 2 , M. 1 , E. 2 O. 3 , I. , 1 2 1 2 1

, , , . , , , 1 , , ,

Gdansk, Poland Palo Alto, CA Menlo Park, CA Hamilton, Ontario, Canada University for Ultrasonic Engineering 2 and S. Leble Design A. Gachagan, and McNab, sity Ultrasonic Systems. Analysis in the Design of High Inten- 4D-2 J. L. Aroyan cients. and Simulated Reflection Coeffi- Waves at a Vertical Edge-Measured 4D-4 tion in a Rarefied Gas. Description of Ultrasound Propaga- tion Function Method and the Kinetic 4D-5 Smith*, electric Crystals. Perfectly Matched Layers in Piezo- 4D-3 Gdansk University of Technology The Application of Finite Element Piecewise Continuous Distribu- Obliquely Incident Rayleigh Stability Considerations for ,

J. Kent* Soquel, CA

, 3 McMaster University

Kaliningrad, Russia 1 2,1 Elo TouchSystemsInc 1 , , , J. D. Larson III , . 2

3 Agilent Laboratories

JRJ Simulation & Kaliningrad State F. Chagla and P. . M. Solovchuk* G. Harvey*, .

. Centre 2 , and

1 , , , , ,

EPCOS AG many University trical Communication, trical Tohoku Univer- querque, NM versity of South Florida Jiangsu, China generation Method.generation Scattering Calculation by Source Re- 5D-6 sity Enhanced Sensing. 5D-4 Shui* Tsubouchi, Kameda, H. Nakase, and K. Devices. location Density for 5-GHz Band SAW cally-Flat Surface AlN with Low Dis- 5D-5 Bhethanabotla Han 2 Zidek, T. Bauer, and K. Wagner, Employing FEM/BEM. and Acoustic Loss in DMS Filters 5D-3 Sandia National Laboratories ,

2,1 Sendai, Japan Low Propagation Loss of Atomi- 1,2 Rayleigh Wave Reflection and Analysis of Acoustomigration . Hexagonal SAW Devices for , X. Zhang ,

1 Nanjing University ,

K. Uehara*, Y. Aota, S.

Research Institute of Elec- Shanghai, China ,

. 1 Munich, Bavaria, Ger- , and D. Branch ,

2 Shanghai Jiaotong 1 , H. Wu . S. Cular* W. Wang M. Mayer*, H.

, Tampa, FL , 1

, and Y.

. Nanjing, , 2

, Albu- 1

1 1 Uni- , V. , T.

Lausanne, Switzerland Ecole Polytechnique Fédérale de Stanford University versity Lausanne - Ceramics Laboratory versity Roma Tre - Dept. of Electron- sity of Brescia ics Wygant, D. Yeh, and B. Khuri-Yakub, Oralkan, Y. Huang, G. Yaralioglu, I. Arrays. Electrical Interconnects for CMUT 6D-2 Hauptmann Doerner* Transducers.PZT with Thick-Film 6D-5 cess. a Novel “Reverse”Fabrication Pro- trasonic Transducer (cMUT) Made by 6D-3 Lucklum Savoia Belgacem*, F. Calame, and P. Muralt, Ultrasonic Transducers. tion of Piezoelectric Micromachined 6D-4 Foglietti

, Roma, Italy MEMS Ultrasonic Sensor Array Design, Modeling and Fabrica- Through-Wafer Trench-Isolated Capacitive Micromachined Ul- , G. Caliano*

1 Magdeburg, Germany , C. Longo 2 1 , and M. Pappalardo 1 X. Zhuang*, A. Ergun, O. , B. Schmidt , S. Hirsch 1 ,

1 Otto-von-Guericke-Uni- , ,

Brescia, Italy IFN-CNR , 1

1 , A. Caronti , E. Cianci Stanford, CA, 1 , V., Ferrari . 1 , and P. R.

, Roma Italy , .

1 Univer- ,

1 2 2 Uni- , R. , A. , V. . B. S. , . 44

00 ..1:0am Tuesday, 10:00 a.m.–11:30 a.m.

Toronto, ON, Canada of Physics, Ry Medical Biophysics, University of Toronto tion cho, Hyogo, Japan Italy Japan

Institute) R. PalmizioErrico Artificial P2A-2 Kitatuji Baddour* Cells at High Frequencies. on the Backscatter from Nucleated P2A-3 1 1 Ultrasound Phantoms. P2A-1 Palma

ISBEM (Euro Mediterranean Scientific Biomedical CHARACTERIZATION Tokushima Unversity Bunri Chair: P. Laugier, University of ,

, Kashiwa, Chiba, Japan 3

, Pisa University 1,3 2

Ultrasound Harmonic Behaviour of New Tissue Mimicking Materials for Medical Dev., Takiron Co.,Ltd. , Y.Shikinami The Effect of Volume Fraction , , E. Casciaro

, Brindisi, Italy Brindisi, Tissues.

1 Session P2A Toronto, ON, Canada

and M. C. Kolios TISSUE S. Casciaro* , Paris 3 1,2

2 Hitachi Medical Corpora-

, , K. Tuta

erson University , F. Conversano

Pisa, Italy 2 Lecce University 2,1 , and A. Distante .

. Sanuki, Kagawa, T. Kondo* 2 , and H. Kanda 2,1 . 1,2 , C. Demitri ,

Yasutomi- , Dept. of , 2

R. E.

Dept. Lecce, 1,3 1 , M. , G. 1,2 1,2 3

, , , ,

Davis neapolis, MN Ebbini, sonic Imaging. P2B-2 U.K. Contrast Agents. Microbubble by sound Transmission P2B-1 M. X. Tang K. Ferrara, Order Statistics. Very Wideband Systems using Higher P2B-3 CONTRAST AGENTS I , Chair: H. Torp, Norwegian 2

University of Science and

. Quadratic Pulse Inversion Ultra- Oxford University

Non-linear Corruption of Ultra-

Contrast Echo Processing for

University of Minnesota Session P2B 2

, University of California, 1

Technology Imperial College Imperial . M. Al-Mistarihi* and E.S. D. Kruse*, Y. Sun, and R. J. Eckersley*

, Oxford, U.K.

, London, ,

1 Min- and

National TaiwanUniversity wan, ROC School of Medicine search Laboratory, Hitachi, Ltd. Minato-ku, Tokyo, Japan ration kyo, Japan Azuma Ishibashi Lai*, C.-H. Wu, C.-C. Chen, and P.-C. Li, Transfection Rate/Cell Viability. Acoustic Inertial Cavitation and Gene P2C-3 Scanner. hertz Ultrasound Thrombolysis with Phased Array P2C-2 Wickline, J. Marsh, M. Hughes, G. Lanza, and S. cations for Drug Delivery. Perfluorocarbon Nanoparticles: Impli- Interactions of Ultrasound with Targeted P2C-1 THERAPEUTICS AND , Chair: C. Cain, University of

Real-time Monitoring Transcranial Sub-Mega-

Kashiwa-shi, Chiba-ken, Japan 2 HYPERTHERMIA , S. Umemura 3 Noncavitational Mechanisms of Quantitative Relations between , and H. Furuhata J. Kubota*

, Session P2C 3

. Jikei University School of Medicine

September 20, 2005 POSTER PRESENTATIONS Washington University Michigan 1 , M. Ogihara 2 , K. Ando . , 3

, St. Louis, MO

1 Hitachi Medical Corpo-

, Kokubunnji-shi, To- 3 , J. Shimizu , 1 , A. Sasaki

N. Soman*, Taipei, Tai- ,

2 Central Re- C.-Y. . 3 1 , T. , T.

Seattle University of Michigan tems Inc. wan wan 1 Ex Vivo Investigations.Ex Vivo tation in Constrained Media, In Vitro and P2C-9 gery. Tissue Liquefaction in Ultrasound Sur- P2C-8 Gessert S. Chen phone System. sity Focused Ultrasound (HIFU) Hydro- P2C-11 S. Vaezy, Phased Array. sion with an Ultrasound-Guided HIFU P2C-10 National TaiwanUniversity , , .

, Ambler, PA 2

T. Hall*, B. Fowlkes, and C. Cain, Yuan Ze University Longmont, CO The Generation of Inertial Cavi- Ultrasound Imaging Feedback of . 2 Development of a High Inten- Selective Liver Vessel Occlu- 1

, and W. Moore

, C. K. Yeh University V. L. Zderic*, and Crum, ,

2 Sonora Medical Sys- 2 M. Schafer* , and M. S. Chen .

of Washington Ann Arbor, MI 2 ,

P. M. Ma*

, Taoyuan, Tai-

1 ,

Sonic Tech, Taipei, Tai- 1 1 , J. , W. 1

, , .

Kashiwa, Chiba, Japan Columbia University Chiba, Japan Tsukuba neering, Tohokuneering, University Japan of Tsukuba Mitake Konofagou*, J. Spalazzi, and H. Lu, ACL-Bone Interfaces In Vitro. P2D-1 and H. Kanai, tima-Media Complex. gional Elasticity of Carotid Artery In- P2D-4 2 Matsumura T. Shiina M. Yamakawa* on Modified 3-D Finite-Element Model. tative Tissue Elasticity Image Based P2D-3 Matsumura* tion Effects upon Elasticity Imaging. P2D-2 Hitachi Medical Corporation 1 . Estimation of Pressure-Distribu- Automatic Measurement of Re- Fast Reconstruction of Quanti- , H. Kanda Elastographic Imaging of the 2 ,

, Tsukuba, Ibaraki, Japan

2 Hitachi Medical Corporation , and T. Mitake ,

1 Tsukuba, Ibaraki, Japan

, R., Shinomura

. Graduate School of Engi- 1 1 , T.Shiina , M. Yamakawa

, New York,NY , H. Hasegawa*

2 University of 2 , , 1

University

Kashiwa, Sendai, 1 2 1 , T. , and , T. . . E. T.

, ,

Shanghai, China Institute of Automatic Detection Institute of Automatic Detection, Chicago, IL hai, China Shanghai Jiaotong University versity of Hyogo Incorporated tion Hata Tianlu*, Q. Peiwen, and L. Huaming, ping Ultrasonic NDT Echoes. Identification of Noisy and Overlap- P2E-4 Q. Peiwen, L. Qingkun, and C. Tianlu, sonic Echo-Signal Processing. Mode Decomposition to the Ultra- P2E-3 Y. Kamozaki* its Application to Extraction of Sleep State. P2E-5 Saniie, E. Oruklu*, F. Vallina, Martinez and J. Detection using Zero-Phase IIR Filters. of Frequency-Diverse Ultrasonic Flaw P2E-2 ,

1 Kyoto, Japan , T., Sawayama A New Ultrasonic Ascillosensor and A Technique for Accurate Time Accurate for A Technique

Application of the Empirical Efficient Hardware Realization Illinois Institute of ,

. Hyogo, Japan 1 . , S. Kobashi

, Expohal, Rotterdam Hyogo, Japan . 2 , and K. Taniguchi . ,

1 Kinden Corpora- , K., Kondo ,

New Sensor Technology

, Shang- Z. Qi*, 3 ,

1 Uni- 1 , Y. C. , ,

nology LUSSI Institute of Sc partment of Biomedical Engineering, of Biomedical Engineering, partment Yuan Pei RJ, Brazil Paramatrique CNRS Annaba, Algarie Chung YuanChr B. Machado* Analysis to Backscattered Ultrasound. Periodicity Applying Singular Spectrum and Pathological Human Liver Tissue Signals. Parameter Calculated from Backscattered tion of Blood Hematocrit with Nakagami P2A-6 R. Lerch, nique. bined Measurement-Simulation Tech- Dispersion Parameters with a Com- P2A-7 P2A-5 and M. Defontaine, tal and Theoretical Results. ing Loading : Preliminary Experimen- Human Achilles Tendon Stress dur- P2A-4 and P. Laugier H. Wang A Feasible Study on the Determina- Characterization of , Determination of Damping and Ultrasonic Measurement of the , L. Bahr*, M. Kaltenbacher, and 1

P.-H. Tsui*

, Tours, Erlangen, Bavaria, Germany ,

Dept. of Biomedical Engineering, Department of Sensor Tech-Department Universita Badji Mokhtar

3 ience a , W. C. A. Pereira ,

COPPE/UFRJ istian University

, 37032, Fr

3 Laboratoire da Imagerie

1,2 nd Technology ,

, C.-C. Huang Paris, France

GIP Ultrasons - in vitro

, ance Rio de Janeiro, ,

1 Taiwan , M. Meziri C. Roux* , .

. Taiwan , and S.-

Health BP 12, ,

2 De- C. . 2

. ,

Twente Bochum, Germany sity of Virginia Department Biomedi- Internal Medicine Internal cal Engineering lands son, J. Ross, K. Fox, and N. McDicken, ler*, C. Moran, Cunningham, T . Ander- Agents under Flow Conditions. aging and Attachment of Contrast P2B-4 M. Postema* Blake Threshold. mentation Threshold, P2B-6 tention to P-selectin In Vivo. hances Ultrasound Contrast Agent Re- P2B-5 3 2 1 A. Klibanov Schmitz

Erasmus MC University of Edinburgh, Edinburgh University of Virginia Department . High Frequency Ultrasonic Im- Shell Rupture Threshold, Frag- Acoustic Radiation Force En- ,

1 Enschede, The Netherlands Enschede, The ,

1 Ruhr-Universität Bochum 2 , and J. Hossack, , 1

, N. de Jong Rotterdam, The Nether- ,

Charlottesville, VACharlottesville, Charlottesville, VACharlottesville, ,

2 University of 2,3 J. Rychak , and G.

1 Univer- M. But- . 1

, , , ,

Washington sity wan Taiwan Fichtinger, tions. Real-Time Quality Control for Interven- P2C-7 An Update. peutic Ultrasound at UW, Seattle WA: P2C-6 P2C-5 wan University Effect. Enhanced Ultrasound Agent Thermal Y.-Y. Chen, and W,-L. Lin, Thermal Therapy. trasound Transducer P2C-4 1 K. . C Ju National TaiwanUniversity ,

, Baltimore, MD

2 E. M. Boctor*, G. D. Hager, and Chang-Gung University Acoustic Hemostasis and Thera- Ultrasound Self-Calibration and A Cylindrical Phased-Array Ul- The Investigation of Contrast- . Y. S. Tung* 1

, W., S.Chen The Johns hopkins Univer- ,

S. Vaezy*, Seattle, WA

, Taipei,Taiwan 1 , C., C. Wu C.-S. Ho*, K.-C. Ju, . for Breast 1

, and W. L. Lin University of

. , National Tai-

1 Taipei, Tai- , H. L. Liu ,

. Taoyuan, Tumor 1 2

, ,

medical Engineering, Chung medical Engineering, Yuan Chris- Dept. Medical Physics and Bioengineer- Limited tian University, Taiwan ing S.H. Chen, and W.-T. Li, PC12 Cells. the Amyloid- P2C-12 Beard Fields. Characterisation of Medical Ultrasound cal Fibre Hydrophone for the P2C-13 versity Conolly, and D. Liang, Fibrillation. ray for Imaging and Ablation of Atrial P2C-14

Chair: H. Kanai, Tohoku University ELASTICITY IMAGING

, London, UK 1 . , , Effect of Ultrasonic Intensity on Development of a 50MHz Opti-

Intravascular Ultrasound Ar-

P. Morris*

Dorcherster, Dorset, UK 1

University College London, Session P2D S. Wong*, G. Scott, β β β β β C.Y. Chiu, S.-H. Wang*, Induced Apoptosis of , 1

, A. Hurrell Precision Acoustics

Stanford Uni-

Taiwan Dept. of Bio- 2 , and P. .

delphia, PA sity Texas Medical School and J. Ophir Elastography. Techniques for Spectral-Based P2D-6

versity Reconstruction. Measurement-Based Shear Modulus P2D-5

2 Technologie Boumediene Houari W. Djerir ducer of Linear Aperture: A Simulation Study. Pulsed Ultrasonic Fields Received by a Trans- P2E-1 H. Djelouah Université de Boumerdes Chair: J. Saniie, Illinois Institute of

PROCESSING AND Philadelphia, PA Spatio-Temporal Deconvolution of Evaluation of Shift Estimation , Our Recent Ultrasonic Strain- 1

, T., Boutkedjirt*

Tokyo, Japan

NDE SIGNAL

Session P2E 1 MODELING , ,

Université des Sciences et de la 2

, Thomas Jefferson Univer- Technology 1

K. Hoyt* Drexel University C. Sumi*, 1 , M. O. Si-Chaib , .

, Boumerdes, Algeria

1,2 Houston, TX

, F. Forsberg University

Algiers, Algeria Sophia Uni-

, Phila- 2 , and

. of 2 ,

Universidad Nacional de Santiago del Comunicaciones, Universidad tomatic Detection, Shanghai Jiaotong Spain Estero tina Politécnica de Valencia University door Positioning System. Communications: P2E-8 H. Guo, and S. Song, Computer Simulation. Ultrasonic NDE using RPS and ICA: P2E-9 2 1 R. Miralles, spective. Optimum Distributed Detection Per- of Split-Spectrum Algorithms from an P2E-7 Peralta*, M. Casas, and A. Ruggeri, for Ultrasound-Based PIDS. P2E-6

Sonitor Technologies University of Oslo . . , New Insights and Extensions Pattern Recognition Method Blind Noise Cancellation in

Airborne Ultrasound Data Santiago del Estero, Argen- ,

I. Bosch*, L. Vergara, and

Shanghai,China Departamento de The Core of an In- ,

Oslo, Norway

Institute of Au- Q. Liu*, P. Que, Oslo, Norway ,

S. Holm* Valencia, . 1,2 J. . , , 46

00 ..1:0am Tuesday, 10:00 a.m.–11:30 a.m.

Switzerland et de Microtechnique SA Tecnología Electrónica, Universidad Centre of Finland Politécnica de Madrid PA UK ences

land, UK N. Donnelly Nurmela 2 Dommann cations. P2F-3 1 cation with New Thin Film Materials. P2F-2 J. Olivares, and Sangrador, M.Sanz-Hervás, Clement, L. Vergara, by X-Ray Diffraction. tric Response of Sputtered AlN Films P2F-1 McRobbie

BAW PIEZOELECTRIC

Queens University, Belfast CSEM Centre Suisse d’Electronique , , 4

3 Pakistan Institute of Engineering and Applied Sci-

Chair: A. Ballato, U.S. Army Pennsylvania State University ,

Resonant Electromechanical Device Fabri- Islamabad, Pakistan ZnO for Thin Film BAW Appli- Assessment of the Piezoelec- ,

2 University of Paisley , K. Kirk

3 1 Session P2F J. Molarius* , M. Gregg , M. Ylilammi 2 ,

VTT TechnicalResearch FILMS 2 , D. Cornez 1 , R. Bowman , .

, Espoo, Finland 1

, T., Pensala

, Belfast, Northern Ire- , Madrid, Spain 2

, and S. Cochran E. Iborra*, A. Paisley, Scotland, , 1 ,

, and A.

Neuchâtel, State College, 1

J. McPhillips*

, A. Abrar Depto. 1 , A. 4 , G. 2 1

, . , ,

Uppsala University, Ångström Labora- tory Katholieke Universiteit Leuven

Leuven, Belgium Electrostatic Tuning Aacoustic Resonator with an Eextended 3 1 Micromachined Frequ P2G-3 Enlund*, I. Katardjiev, and D. Martin, Film Electroacoustic Resonator. “Electrodeless” Solidl P2G-2 Soussan

ductor Products Group Laboratories

ductor Products Group R. S. Fazzio Wave Modes. FBAR Filters and Resonators Due to Lamb P2G-1

Nanotechnologie, dept. ISEN

d’Electronique de Microélectronique et Carpentier Lefevre 3 1 Bragg Reflector. Resonators and Filters Based on Advanced P2G-4 ESAT-TELEMIC, Katholieke Universiteit Leuven IMEC-MCP

CEA-LETI ST Microelectronics

, Uppsala, Sweden Design and Fabrication of a Surface Performance Degradation Effects in 3 Fabrication and Evaluation of an Design of Bulk Acoustic Wave RF , F. Dumont 1 , B. Nauwelaers , 1 ,

3 Grenoble, France , , R. Vélard

, and C. Feng

Leuven, Belgium Palo Alto, CA R. C. Ruby* . G. Caruyer* 1 , G. Parat

, Crolles, France Tunableency , ,

Range.

San Jose, CA Ft. Collins, CO 1 , N. Casanova 3 3 y Mounted Thin , and H. Tilmans . 1 , , ,

, J. D. Larson, III Lille Cedex, France

3 1

Agilent Semicon- Agilent Semicon- Leuven, Belgium . 1 3 , , A. Devos , and P. Ancey

2 W. Pan* ESAT-INSYS, Film Bulk , ,

2 Agilent Institut 1,2 2 , J. F. 1 , P. , A. J. 1 2 , , , 1 ,

, ,

Engineering, Shanghai Jiaotong Univer-

sity W. Shi, Material Constants. Langasite Using Lagrangian Effective on Wave’sBehaviors Thermal P2H-3

Ukraine Y versity ate School of Engineering, ate School of Engineering, Tohoku Uni-

versity Yamazaki, and K. Nakamura*, SH-Type Acoustic Waves in a Rotated P2H-4 Basic Scattering Theorem. P2H-2 Pashkevich and B. Sveshnikov*

sia delle Ricerche - Istituto di Acustica Radioengineering and Electronics 2 Benetti Films on Isotropic Diamond Substrates. gation of PSAW and SAW Properties AlN P2H-5 Fedosov Russian Academy of Sciences - Institute -Cut LiTaO .

, Shanghai, P.R.China 1 Theoretical and Experimental Investi- Experimental Verification of the , , D. Cannata’ , Temperature Characteristics of Analysis of Surface Acoustic 2

, and E. Verona* of Instrumentation Department

Sendai, Miyagi, Japan Russia

2 Nizhny Novgorod State Uni- 1 , M. Sychev 3 September 20, 2005 POSTER PRESENTATIONS Thin Plate. Thin . 1 , F. 2 , T. Han*, X. Ji, and 1 1

, Di Pietr Rodos, Ltd.

1 Consiglio Nazionale 1 , I. Mitelman H. Fujiwara, D. .

, Moscow, Rus- antonio

, Roma, Italy

. Gradu- ,

1 Kiev, , V.I. G. M. 2 ,

tion and K. Iizawa, gation on Quartz. Quasi-Longitudinal Leaky SAW Propa- P2I-1

ment Co., Ltd. for Solid State and Materials Research Dresden Dresden, Saxony, Germany

Brandenb Menzel Morita, SAW Resonators. and High-Q Small SH-Type Quartz P2I-3 Stability. Performance in Terms of Acoustomigration P2I-2

Dresden, Germany sia Radiotechnical Institute State and Materials Research Dresden Weihnacht Shape. Angles: The Dependence on the Strip P2I-4

. , Suwa-shi, Nagano-Pref., Japan Effect of Substrate Thickness on Investigation of Al/Ti Metallization 1 Excellent Frequency Stability

, M. Hofmann SAW Analogs of Brewster’s

urg, Germany Toyo Toyo H. Schmidt* S. V.Biryukov* 1 ,

Leibniz Institute for Solid

, Communication SEIKO EPSON Corpora- Kanagawa, Japan 1 , and R. Kunze M. Oshio*, S. Kanna, . 1,2 , M. Pekarcikova T. Owaki* and T. ,

2 VI TeleFilter

, Moscow, Rus- , 1,2 and M. 1 ,

Equip- Institute

Teltow, Mints . 1 , S. .

\ GIP Felix ment. Piezocomposite Material Assess- P2J-2

Paisley, Scotland, UK Technology (EPFL) Polytechnique Federale de Lausanne - deen, Scotland, UK land EPFL ducer Manufacture. for Composite Piezocrystals Trans- Factor in Commercial Adoption of Damjanovic, and N. Setter, ternal Bias Fields. tric Response in Perovskites by Ex- P2J-4 and M. Walsh P2J-3 Marin-Franch and N. Setter, Engineering. Piezoelectric Coefficient by Domain P2J-5 1 . ,

, Ultrasons 1 Material Property Material Property

Enhancement of the Piezoelec- Optimization of the Transverse

G. Ferin* Accurate Methods for VERMON 1015 Lausanne, Switzerland 1 M. Davis*, D. Damjanovic,

2 , S. Cochran Swiss Federal Institute of , ,

1,2 ,

1 Tours, France

Univ Tours, France , D. Certon ,

. Lausanne, Switzer-

, ersity of Paisley M. Budimir*, D.

M. Parker* PCT Ltd Variation as a 1 , D. Choi 2 , and N. . ,

LUSSI

Ecole Aber- 1 , P. . 2

, ,

Chemnitz, Germany Coventry, UK UK tute for Reliability and sity

Microintegration Transducer. tion of a Micromachined Ultrasonic P2K-7 D. Banfield Olcum* and A. Atalar, mize the Gain-Bandwidth Product. P2K-6 Mehner Davis* cMUTs at Low Gas Pressures. P2K-5 1

2 Felix Teston* forCurves CMUT arrays Design. P2K-4

Center for Microtechnologies VERMON , ,

Ankara, TurkeyAnkara, Cornell University Cornell 2 , 1 CMUT Design Charts to Maxi- Fabrication and Characteriza- , D. Hutchins 1 The Characterisation of Implementation of Master 2 , D. Certon , T.Otto

1 LUSSI , 3

, Tours, France Expohal, Rotterdam ,

C. Jia*

1 University of Warwick

2 , QinetiQ Ltd

, Chemnitz, Germany 2 , and T. Gessner 1 , , F. Patat

. 1 Tours, France 1

, R. Noble 2 , M., Wiemer

Fraunhofer Insti-

Bilkent Univer- , Ithaca, NY . ,

1 Malvern, , and N. 2 , and 2 , J. L. . S. F. 1 , , . , ,

Kyotanabe, Kyoto, Japan Coefficient P2F-5 Otani, Matsukawa, Y.T.and Watanabe, Films.

Kyotanabe, Kyoto, Japan Otani, Matsukawa, Y.T.and Watanabe, Y. Miyamoto*, T. Yanagitani, M. Layers of (11-20) Textured ZnO Films. FBAR Using Polarization-inverted P2F-6 Co., Ltd. ers Using ZnO, SiO tic Wave Resonator Featuring Multi-Lay- Factor ina 1.8 GHz Range Film Bulk Acous- cal Coupling Coefficient and Quality P2F-4 Yoshino, T.Makino M. Takeuchi*,H. Yamada,H.Kawamura, Y. AND PROPAGATION

Chair: J. Brown, JB Consulting BAW MATERIALS Control of Effective Electromechani- Electromechanical Coupling

T. Yanagitani*, N. Mishima, M.

, Higher-order Shear Mode

Session P2G

Yasu City, Shiga Pref., Japan

Doshisha University

k Doshisha University 15 of (11-20) Textured ZnO , and S. Arai,

2 II and Al 2 O 3 . .

Thin Films. Thin Murata Mfg. .

stitute of Applied Mechanics, National Materials Physics Materials Laboratory County, Taiwan Corporation Microelectronics Taiwan University

Finland T. Pensala* nators: FEM Modeling and Experiment. sion in ZnO Based Thin-Film BAW Reso- P2G-5 2 Chiu Method. tor Design by an Efficient Numerical P2G-6 Ylilammi

tute for Solid State and Materials Re- raphy

search M. Weihnacht* General Anisotropy. Waves in Piezoelectric Structures of P2H-1

Helsinki University of Technology, SAW MATERIALS AND 2 , C. S. Lam ,

Chair: R. Potter, Vectron PROPAGATION Beveling AT-Cut Resona- Quartz

Spurious Resonance Suppres- Electro-Acoustic Slip and Gap Moscow, Russia .

1 Dresden, Germany

, S. Y.Pao* Session P2H

1 VTT Information Technology, , 1

International Ping Cheng City, Taoyuan T., Makkonen 2 , . 2 , and P. Z. Chang 1

, Institute of Crystallog- ,

1 Taipei, Taiwan

, M. K. Chao Espoo, Finland A. Darinskii ,

2 Leibniz Insti- . 2 , and M. ,

2 Espoo, , , C. H. 1 1 2

, and TXC

1 In-

cow Steel and Alloys Institute

Russia Naumenko* late with a Periodic Grating. Loss in Rotated Y-Cuts of Lithium Tanta- P2H-7

Nizhny Novgorod, Russia Novgorod State University, Russia Inc. Japan machi, Saitama, Kanagawa, Japan Kanagawa, Akao Mihara and M. Yu. Dvoesherstov, Temperature Sensors. P2H-6 Ball SAW Device. P2H-8 ,

Chair: M. Mayer, EPCOS AG Allen, TX. 2 . , N. Nakaso 4 Pressure Characteristics of Spherical

, and K. SAW DEVICES II , Temperature Sensitive Cuts for Approximation of Propagation

Sawtek Inc. Session P2I 1 Yamanaka and B. P. Abbott

, Japan

, Toppan Co. Printing

4 Tohoku Univ. 2 D. Y.Sim* , Y., Ebi ,

3 Yamatake Co. , 4

Apopka, FL

1 Ball Semiconductor V. I. Cherednick* 3 , H. Kazato 1 , N. Takeda ,

. Sendai, Miyagi,

, Moscow, 2

Fujisawa, ,

Nizhny

Sugito- 1 Mos- N. F. . 1 3 , S. , T.

Kanagawa, Japan Tetelegraph & Telephone Co.

Technology Shigekawa riers by SAW. P2I-5 K. Hohkawa

Tecnología Electrónica, Universidad

Politécnica de Madrid Sangrador, and J. Olivares, L. Vergara, E. Iborra, A. Sanz-Hervas, J. Substrate Conductivity. of Film Thickness, P2I-6

Giovanni Battista ACISMOM Rome, Italy Florence, Italy dustrial Engineering Group ESAOTE S.p.A Arrays. P2J-1 Grandoni* TRANSDUCER MATERIALS Chair: K. Shung, University of AFM Characterization of 1-3 Piezocomposite Transfer Effects of Induced Car- AlN-on-Si SAW Filters: Influence

F. Marinozzi 3 AND COMPOSITE , , Southern California

Transducer Manufacturing Engineer, In-

Eudossiana, Rome, Italy

, ,

Session P2J 2

MATERIALS Neurological Rehabilitation Hospital S.

, Kanagawa, Japan 1 , K. Nishumura

1 Kanagawa Institute of C. Kaneshiro* 1,4 , F. Bini .

, IDT Geometry and IDT Geometry L. E. Morselli , Rome, Italy , 1

, D. Passeri Madrid, Spain. M. Clement*, 1 , 2 , K. Koh , , and N.

2 A. Scarpa, 2

Nippon Depto. Caciolle , 2 , and A. 1

, , .

E. L. Ginzton Laboratory, Stanford Uni-

versity Oralkan, M. Fejer, and B. Khuri-Yakub, Wygant*, P. Kuo,X. Zhuang, D. Yeh, O. Two-Dimensional CMUT Array. P2K-1

Istanbul,Turkey sity cMUT Array Element. the Radiation Impedance of a 2D P2K-3 Virginia of and M. Karaman S. Zhou and J. Hossack*, Membrane and Support Structures. sound Transducers using Modified Capacitive Micromachined Ultra- P2K-2

, MICROMACHINED

Istanbul,Turkey TRANSDUCERS Chair: C. Daft, Siemens , Photoacoustic Imaging Using a Improving the Performance of

A Lumped Circuit Model for

Stanford, CA Session P2K

, Charlottesville, VACharlottesville, . 2 ,

, Sabanci Univer- .

2 Isik University

A. Bozkurt* University . 1 ,

Bilkent University sity of Science and NTNU Roma, Italy France Dept. of Electrinics and M.Pappalardo G. Caliano P. Blind ments. cMUT Array with Mixed Sized Ele- P2K-10 Ballandras brane Layer of the cMUT Probe. Obtained Improving the Structural Mem- P2K-11 and A. Rønnekleiv, CMUT Arrays on Silicon. P2K-9 3 Based on a 2D-Like Architecture. Micromac Characterisation of Capacitive P2K-8 Wilm Gatta IMASONIC SA 1 1 , R. Berriet , A. Caronti , 2 Design, Fabrication and , , V.Pétrini

Enhanced Echographic Images Backing Requirements for Bandwidth Improvement in a Trondheim, Norway C. Bayram* and A. Atalar, 1 2 hined Ultrasonic Transducers

. 1 , CTMN , R., Carotenuto

1 FEMTO-ST, CNRS

, Besançon France 3 1 1 , , J.-C. Jeannot , E. Cianci , L. Gauthier-Manuel , 1

, Roma, Italy ,

1 Besançon, France

University Roma Tre -

Norwegian Univer- Ankara, TurkeyAnkara, 1

, C. Longo Technology, 2 , V.Foglietti . , ,

A. Savoia*

2 Besançon,

S. Berg* S. Clatot* CNR-IFN . 1 , and S. 1 1 , M. , P. . 2 1 1 , , , , , 48 1:0am–:0pm Tuesday, September 20, 2005 11:30 a.m.–1:00 p.m. a.m. 11:30 a.m. 11:45

J. Souquet*, lenges for the Future? In Place Today? What Are the Chal- 1E-1

PORTABLE DEVICES Chair: K. Bom, Erasmus MC AND OTHER NEAT

(Invited)Is TeleMedicine:What

Session 1E

STUFF Philips Medical Systems om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1

ork, Y N , k r Yo sity of Leuven Belgium cardiology, Catholic University of Leuven ment of electrical engineering, Catholic Univer- Herbots kee-fung, E. Konofagou*, W.-N. Lee, and S. Fung- Mapping in Myocardial Elastography. tion for Angle-Independent Strain 2E-2 1 Deformation. for the Detection of Abnormal Cardiac 2E-1

Chair: M. O’Donnell, University of Cardiac Imaging Research- Department of CARDIOVASCULAR A Statistical Model-Based Approach Full Strain Tensor Characteriza- 1 , , F., Rademakers

Medical Image Computing- Depart-

Session 2E Columbia University

, Leuven, Belgium F. Aoued* Michigan 1 , and J. D’hooge 1 , E. Eroglu .

Leuven,

, New 1 , L. 1,2

Uppsala, Sweden Group, Department of Engineering nology Sciences, Uppsala University Olofsson*, Deconvoluti 3E-2 and J. Saniie, tions. Signal Analysis and NDE Applica- 3E-1 Chair: E. Furgason, Purdue Computationally Efficient Sparse Chirplet Transform for Ultrasonic Chirplet Transformfor

Y. Lu*, G. Cardoso, R. Demirli,

PROCESSING

NDE SIGNAL Chicago, IL Session 3E

on of B-Scan Images.

Signals and Systems

University Illinois Institute of Tech- . . T.

CNRS 6068 Schuman, Le Havre, 76610, France Doll Research Ikegami, and J. Pabon, erties. mations with Radially Varying Prop- 4E-2 Lietard, and D. Decultot, Floquet Phenomenon. ened Plate Immersed in Water: Bloch- 4E-1 Russian Academy of Sciences Chair: G. Mansfield, IREE-

Borehole Flexural Waves in For- Acoustic Scattering from Stiff- ACOUSTICS 2

B. Sinha*, H. P. Valero, T.

Session 4E PHYSICAL ,

Ridgefield, CT

IUT, Place Robert Schlumberger-

G. Maze*, R. LAUE UMR .

. tor sets. Front-End Modules for Cellular Hand- 5E-1

, Chair: C. Ruppel, EPCOS AG

Hillsboro, OR RF FILTERS AND

(Invited) Trends in Integrated

P. Wright*,

Session 5E MODULES TriQuint Semiconduc-

Munich, Germany of Bremen gia Institite of Technology Guldiken* and F. L. Degertekin, Ultrasonic Transducers. electrode Capacitive Micromachined 6E-1 CMUT Behavior. 6E-2 C. Eccardt Investigation of the Nonlinear

Analysis and Design of Dual-

Chair: C. Daft, Siemens Session 6E , 1

Bremen, Germany

1 cMUTS Siemens AG, CT PS 8 A. Lohfink* ,

2 IMSAS, University Rotterdam

, Atlanta 1,2 and P.- .

R. O. Geor- . , 49

p.m. 12:15 p.m. 12:30

p.m. 12:45 p.m. 12:00

Stanford, CA Niskayuna, NY Electronique of Electronics and Acoustique Sudria tion, Norwegian University of Science and Technology Germany Engineering KMR, Bochum, Germany Germany C. Hazard H. Ermert Yaralioglu Echo Signal Filtering Optimization. 20 MHz and 100 Range Ultrasound: Inverse 1E-5 Paul Fink* A. Margoum sults. Prototype: 1E-4 Ytterdal, and A. Rønnekleiv, T. Halvorsrød*,L. R. Cenkeramaddi, T. Microbeamformer for cMUT Arrays. 1E-3 Thomenius Khuri-Yakub table Ultrasound. 1E-2 2,3 In Vivo Ultrasound Biomicroscopy of Skin with , S. Scharenberg Reconfigurable Arrays for Por- 1 Dual-Arrays Bbrain Imaging SCREAM - A Discrete Time , F. Vignon , , , 2 1,3

3 taberna pro medicum GmbH Ruhr Center of Excellence for Medical , 1 1

Ivry, France , S. Cogan

2 Laboratoire Ondes et Ruhr-University Bochum 1 , Experimental In Vitro Re- , R. Wodnicki , , 2

1 2

Paris, France , A. Ergun

, J. Lecoeur GE Global Research Chuelles, France , 1 , , J. Aubry ,

Trondheim, Norway Stanford University 2,3

, R. Scharenberg Telecommunica- 1 R. Fisher* , R. Thomas , 1 1 , M. Tanter 2 , D. Mills . , and G. 3 M. Vogt*

, and M. 3

, ,

Lecoeur

Lueneburg, , Institute

Bochum, ESME . 2,3 1 1 , K. , and 1,3 , B. , B. 1 1 .

, , ,

University of Sydney Tsukuba, Ibaraki, Japan Institute of Advanced Industrial Sci- Washington Tsukuba Australia

ence and Technology (AIST) Measurement.ity Vector Imaging Based on Ultrasonic Veloc- 2E-3 son*, C. Macaskill, and L. Farnell, Boundaries in Tissue. Field Near to Cylindrical Walls and Models for the Complex Acoustic 2E-5 K. Homma Vicini, and K. Beach, Huang*, B. Dunmire, J. Kucewicz, P. tile Ultrasonic Strain Wave. 2E-6 tory, Hitachi Ltd. 185-8601 Umemura, I. Kawabata, K. Sasaki, and S.-I. rection. Ultrasound Imaging with Motion Cor- 2E-4 Windkessel Modeling of Pulsa- Time-Averaged High Contrast Intravascular Shear Stress Exact and Weak Scattering , H. Yoshikawa*, T. Azuma, K.- .

. Tsukuba, Ibaraki, Japan

1 Central Research Labora- , and T. Shiina

, Seattle, WA

, Kokub

Sydney, NSW,

University of

R. S. Thomp- unji, Tokyo 2 . , , N. Nitta*

Univ. of National L. Y. . 1

, ,

Lulea, Sweden RJ, Brasil University University of Technology / EISLAB sity of Oslo Brasil Martinsson* and J. E. Carlson, tem Identification Approach. Propagation in Gas Mixtures - A Sys- 3E-5 nology Costa-Felix* Linear Propagation Field. sonic Transducer Calibration in a Non- Pulse as Excitation Signals for Ultra- 3E-3 F. Lingvall* straints on the Scattering Amplitudes. ray Imaging using Positivity Con- 3E-6 1 and J . Saniie, ing Ultrasonic Signals. nique for Denoising and Compress- 3E-4 INMETRO High Resolution Ultrasonic Ar- , Parametric Modeling of Wave Adaptive Thresholding Tech- Stepped Sine Versus Coded

COPPE/UFRJ Chicago, IL , . 1 and T. Olofsson

Uppsala, Sweden ,

Duque de Caxias, RJ, 1 Oslo, Norway

and J. C. Machado Illinois Institute of Tech- . .

, Rio de Janeiro, G. Cardoso* , 2 ,

2 Uppsala R. P.B.

. 1

Univer- Lulea J. 2

, ,

Isntitute of Standards and Technology, dards and Technology, Reli- Materials Polymers Division ability Division Microelectronics T Chernogolovka, Moscow District, Russia Hyderabad-500 007,A.P.,India 630-0192, Japan and Technology Materials Science, Nara Institute of Science Technology Co Andhra Pradesh, India Somasundaram College Venkateswar N. Zabelin perature Applications. High-Tem- for Crystals Gallium Tantalate 4E-6 Flannery* Modes in Nanoscale Features. 4E-5 Solvent Mixtures. tion Studies of O-Cresols in Different 4E-3 Linga Reddy C. S. Soles 4E-4 Nishida, and T. Shiosaki, Takeda*, S. Tanaka, S. Izukawa, H. Shimizu, T. a Sensor Use at High Temperature. for Gallium in Langasite-Type Crystals Ultrasonic and Sonochemical Reac- Effective Substitution of Aluminum Physical Properties of Lanthanum Probing High Frequency Phonon 1 , and D. V. Roshchupkin 1 , S. Kim 2 2 2 , , C. Sreenivasa Reddy , , ,

8916-5 Takayama,Nara Ikoma,

National Isntitute of Stan- 1 Moscow, .

, Tellakula Jal Boulder, CO S. V. Ranga Nayakulu* , 1

, W., Johnson ,

Gaithersburg, MD echnology RAS

S. A. Sakharov* Osmania University Russia Graduate School of

, Guntur-522006,

. ayya Pol ayya , ,

2 Institute of

2 , National 1

2 FOMOS , and D. 1

C. M.

, and isetty . 1 1 , A. , S. H.

. , ,

Bevaix, Switzerland Espoo, Finland Devices Co., Ltd. Korea Germany Electro-Mechanics Co., Ltd. Japan nology, Physics Materials Laboratory University of Ulm nology tute of Advanced Industrial Science and tute of Advanced Industrial Tech- Yokohama, Kanagawa, Japan Hyogo, Japan Applications. Sapphire SAW Substrate for High Power Takagi J. Meltaus* 5E-4 and W.Menzel K. Nishimura, Fujii, Y. Hamaoka, H. Nakanishi, and System. pensated Filters with SiO2/IDT/LT is Composed of Temperature Com- 5E-5 S. Hong Pitschi Satoh Fleckenstein* Performance SAW Duplexer. 5E-3 5E-2 Temperature Compensated LiTaO 1 Design Study on a Compact, High Double-Resonance SAW Filters. SAW Duplexer for US-PCS that , , M. Ueda 3

. , . Tsukuba, Ibaraki, Japan 1 , M. Jakob 1

3 Fujitsu Laboratories Ltd. Fujitsu Laboratories , R. Takayama*, Y.K. Iwasaki, ,

1 Helsinki University of Tech- , 1 2

, V., P. Plessky Microwave Techniques, Fujitsu Media Devices Limited M. Miura* 2 , O. Ikata 2 2

, J.E. Kiwitt Panasonic Electronic

, EPCOS AG ,

, 1

2 Ulm, Germany , K. Ch. Wagner

GVR TradeSA Kadoma, Osaka, 2 1 , Y., Ebata , T., Matsuda , ,

3 . National Insti-

2,1 Samsung , , , and S. 1

Munich, Suwon, , F. M. 2

, and H. Akashi, . 1 , Y. A. 3 / 1

, , , ,

Stanford University Munich, Germany of Bremen versity Electronics Engineering Department, Bilkent University and B. T. Khuri-Yakub*, E. Hæggström, X. Zhuang, A. Ergun, Piston-Shaped Membranes. trasonic Transducers (cMUTS) with 6E-3 O. Oralkan, and B. Khuri-Yakub, Kupnik, G. Yaralioglu, D. Lin, A. Ergun, pling in cMUTs. 6E-6 Senlik* and A. Atalar, with Nonuniform Membranes. 6E-5 C. Eccardt* Fluid Coupled CMUT Membranes. 6E-4 von Garssen Improved Performance of cMUT Characterization of Cross-Cou- Analysis of Crosstalk Between Capacitive Micromachined Ul-

, Stanford, CA ,

1 Bremen, Germany 1 , A. Lohfink ,

1 Siemens AG, CT PS 8 , ,

, Ankara, TurkeyAnkara, IMSAS, University

B. Bayram*, M. Stanford, CA

Electrical and 1,2 Stanford Uni- , and H.-G. Y. Huang, . M. N. . . .- P. , 50 23 ..40 .. 2:30 p.m.–4:00 p.m. p.m. 2:30 p.m. 2:45 6F-6

27 kHz Small Diameter Ultrasonic Complex 27 kHz Small Diameter Ultrasonic Complex Vibration Source with Multiple Transducers.

cal Engineering, Duke Universitycal Engineering, Durham, NC Duke University Miller, C. Moyer, S. Hsu, and G Trahey, sults. ing: 1F-1 ELASTICITY DYNAMIC Nightingale, M. Palmeri, R. Nightingale, and K. aging System. 1F-2

Chair: S.Emelianov, Universityof In Vivo Peripheral Vascular ARFI Imag- A Combined Indenter/ARFI Im-

D. Dumont*, J. Allen, E. Session 1F Texas at Austin Clinical and Phantom Re-

. Department of Biomedi- om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1

L. Zhai*, R. Bouchard,

, Durham, NC .

National Chi Nan University ton University Electrical Engineering, National Engineering, Electrical Tai- Taiwan, ROC wan University at 25-50 MHz. Imaging with Liposome Microbubbles 2F-2 A. Ho 2 G. Lanza, and S. Wickline, Neumann, R. Fuhrhop, A. Woodson, Hughes*, J. Marsh, Arbeit, R. Theoretic Signal Detection. Nanoparticles Using Information- With avb3-Integrin Targeted Papilloma Virus Tr Primordial Angiogenic Vessels in the 2F-1

CONTRAST AGENTS: Department of Applied Chemistry,Department Chair: A. Bouakaz, University of Ultrasonic Molecular Imaging of Pulse Inversion Fundamental 2

, and P.-C. Li*

Session 2F IMAGING I . , C.-H. Li

, St. Louis, MO

Tours Taipei, Taiwan,ROC ansgenic Mouse ansgenic 1 , 1 , A.-H. Liao

1 Department of Department

, Washing-

. Nantou, 1 , J.- M.

Japan Saitama, Japan Japan TX Mihara Akao 1 vative Gas Sensors. Wave on a Sphere Applied for Inno- gation of Collimate Surface Acoustic 3F-1 Tanaka D. Y.Sim Tohoku University Chair: M. Pappalardo, University , 3

(Invited) Diffraction-Free Propa- Yamatake , T., Ohgi , , 1

, Y., Ebi 3

, T.Fukiura GAS-LIQUID 2

4 Ball Semiconductor 2

Toppan Printing , I., Satoh Session 3F SENSORS of Roma TRE Tuesday, September 20, 2005 J. Tsujino*, T. Ueoka, Y. Kikuchi, T. Aoyama, and T. Kyuzen, 4 , N. Nakaso 3 , , and T. Nakatsukasa

. Fujisawa, Kanagawa, 3 , , T.Miyagishi 3

, H., Kazato Sendai, Miyagi, K. Yamanaka* 4 , T., Tsuji ,

Sugito, Allen, 3 3 , S. , H. 1 , T. 4 1

, ,

France sound, University Hospital- and R. Dufait, Ratsimandresy*, N. Felix, D. Dinet, Volumetric Imaging. mization to Address High Quality 4F-2 Bretonneau M. Olar 1 eter for Endobronchial Imaging. ation of a 10MHz Linear Array Cath- 4F-1 Cladé* VERMON

Chair: K. Shung, University of TRANSDUCERS I Development and Clinical Evalu- 2D Arrays Performances Opti- 1 . 2 , F., Tranquart , E. Hazouard

Southern California

, Session 4F MEDICAL

, Tours, France

Tours, France VERMON 2 2 , P. Palanchon , and D. Dinet ,

. CIT Ultra-

Tours, Kanagawa University O. L. 2 1

, ,

Sophia Antipolis, France University of Maine CNRS Reinhardt Ballandras* Boundary Element Analyses. vergence of Coupled Finite Element/ 5F-2 and T.Pastureaud Kenny* and M. Pereira da Cunha, Electrodes. Finite Thickness HVPSAW Orientations Considering 5F-1 Chair: P. Smith, McMaster

Optimisation and Improved Con- Identification of New LTO SAW ANALYSIS

Besançon, France 1 Session 5F , M., Wilm 1 , R. Lardat University

, Yokohama, Japan ,

1 2 Orono , W., Steichen , 2 , V., Laude

1 FEMTO-ST, . , .

2 TEMEX 1 , A. . S. T. 2

, ,

Bosch GmbH Cynnon Taff, United Kingdom Alexander-University Erlangen- Kingdom Glamorgan Nuremberg Cleaning Efficacy. cal Comparisons and Implications for an Ultrasonic Cleaning Bath: Practi- Long Narrow Workload Immersed in 6F-1 Cleaning. Special Consideration of Ultrasonic sonic Waves in Cavitating Fluids with 2 6F-2 2 Gardner Kaltenbacher

Dept. of Sensor Technology, Friedrich- Ultrawave Limited AND APPLICATIONS

Chair: J. Tsujino, Kanagawa MEASUREMENTS

Finite Element Simulation of a Numerical Simulation of Ultra- 1 INDUSTRIAL , and I. Corp

. Session 6F N. Bretz* ,

, Erlangern, Germany Erlangern, 2 University

, and R. Lerch

, Pontypridd, Rhondda Stuttgart, Germany Stuttgart, 1,2 ,

J. P. Lewis* , J. Strobel Cardiff, United 2 Rotterdam ,

1 University of 2 ,

1 Robert 1,2 . 1 , M. , S. , , 51 p.m. 3:00 p.m. 3:15

p.m. 3:45 p.m. 3:30

Maceio, AL, Brazil Laboratoire Ondes et Acoustique, Ecole Supérieur Physique Chimie College of Medicine gan and M. O’Donnell, tion Force. using Bubble-Based Acoustic Radia- Properties of the Intraocular Lens 1F-5 Industrielle 2 Urban* Vibro-Acoustography.frequency 1F-4 Breast, Liver and Brain. aging Modality: In-Vivo Application to Elastography as a Non-Invasive Im- 1F-3 Fatemi Universidade Federal de Alagoas ,

Stress Field Formation for Multi- Ann Arbor, MI Spatially Mapping the Elastic (Invited) Dynamic MR- 1 , and J. Greenleaf 1 , G. Silva ,

T.K. Erpelding*, Hollman,

Paris, France University of Michi- 2 . . , R. Kinnick

, Rochester, MN 1 , 1

R. Sinkus*, . Mayo Clinic 1 , M. M.

, ,

Kokubunji, Toky tral Research Laboratory, Hitachi, Ltd. Jefferson University PA neering

California San Diego Ch. Hansen T. Shi Yoshikawa, and S.-I. A. Yoshizawa, T. Azuma, H. Therapy. tem For Ultrasonic Imaging and 2F-6 2 1 Nonlinearity. Considering Different Sources of 2F-5 Progress. monic Breast Imaging: Work in 2F-3 Merton Piccoli

Rotterdam, The Netherlands Ontario, Canada

Health Sciences Centre Agents. Imaging of Microbubble Contrast Pulsed-wave Doppler and Color Flow 2F-4 1 A. S.Brown

Ruhr-Universitaet Bochum Ruhr Center of Excellence for Medical Engi- Sunnybrook and Women’s College , 2

Optimized Contrast Agent Imaging Phase-Shift Nanoparticle Sys- GE Healthcare High Frequency Subharmonic Contrast Enhanced Subhar- 1 , 1 1 , R. J. Ro

, and A.L. Hall , J. B. Liu Bochum, Germany A. Needles* 1,2 K.-I. Kawabata*, N. Sugita, , Ch. Fischer W. Wilkening* F. Forsberg* 1

, and F. S. Foster o, Japan 1 1 , , K. J. Lipcan

, R. Soparawala San Diego, CA , , 1 ,

Umemura, Umemura, 2

Milwuakee, WI ,

, D. E. Goertz

Bochum, Germany 1 Erasmus MC , and H. Ermert 2

, Th. Hoelscher Philadelphia, , 2 . 3

, University of , 1

, C. W.

Toronto, . Thomas . 1

, D. A. Cen- 1 , W. 1,2 3,2 1 2 .

, , , ,

, , ,

Marquette University ME Maryland Biotechnology Institute Oslo, Norway Trondheim, Norway versity of South Florida wegian University MD lege University J. Vetelino, Pinkham*, L. French, D. Frankel, and 3F-5 Srinivasan Surface Acoustic Wave Sensors. 3F-4 Sensor*. Pesticidetic Wave 3F-3 4 for Fish Identification. 3F-2 J. Hossenlopp,and Y. Jones, tors. Environments Using TSM Resona- Chemically Sensitive Layer in Liquid Kjølerbakken Brungot Yup Lee SINTEF . . ,

Design of Micromachined Resonators Nanomaterial Sensing Layer Based Norway Horten, A Lateral Field Excited Acous- O. Amu*,S. Schneider, F. Josse, Characterization of PIB as a 3 2 , D., Wang , M. T. Harris ,

, Oslo, Norway 1

, S.Cular* West Lafayette, IN

. 3 University

, L. Hoff of Science and Technology 4 , R. Bernstein , 2

, , and J. N. Culver Vestfold University Col- 1 2,3

, V., Bhethanabotla VivID AS , , and S. Holm

Tampa, FL A. Rønnekleiv* ,

of Maine 5

University of Oslo Milwaukee, WI Milwaukee, , ,

College Park,

University of 4 Ås, Norway , V.Jahr , ,

5,3 2

Orono, Purdue 3 , ,

1,3 1

Nor- Uni- 1 3 , S. , K. , J. W. K.

. , , ,

Stanford University USA, Ultrasound Division Tre View, CA A. Ergun, J. Wong, and B. Khuri-Yakub, rays. High-Frequency 1-D Linear CMUT Ar- 4F-4 and M. Pappalardo, P. Gatta, G. Caliano, R . Carotenuto, tion of Medical Probes. Schlieren System for Characteriza- 4F-3 Roberto, D. Bergman, D. Tasker, and J. Bartlett- Based Ultrasound Imaging. 4F-5

, University Roma Tre, (Invited) Advances in Catheter- High-Resolution Imaging with Calibrated Tomographic

D.Wygant,I. Yeh*, Oralkan, O. . Siemens Medical Solutions

Stanford, CA

University Roma Rome, Italy Rome, J. Le Floc’h*, ,

T. Proulx*, Mountain .

CNRS UMR 7641 Technology, Physics Materials Labo- University of Frankfurt Sophia Antipolis Cedex land ETH Zurich many ST, CNRS UMR 6174 ratory Switzerland France Green’s Function. 5F-4 Compounds. Elastic Instabilities in CGG-Type 5F-6 V. Plessky Hanckes Thybaut Electrode Arrays. SAW Propagation under Periodic 5F-5 1 W. Steichen, and P. Ventura, Grating. under a Periodic Multi-Electrode-Type 5F-3 Département LPMO, Institut FEMTO- , Anelastic Relaxation Effects and Analysis of SAW Propagation , 2

Modeling Longitudinal Leaky ,

3D Piezoelectric Surface

GVR TradeSA

P.O. Box 2200, 02150 TKK, Fin- , 2 Laboratory of Crystallography,Laboratory 2

2 , CMAP, 2,1 Th. Pastureaud*, R. Lardat,

1 Institute of Crystallography, 2 , and S. Ballandras , ,

. Zurich, Switzerland

1 Helsinki University of

J. Schreuer* Ecole Polytechnique, ,

V. Laude* T. Makkonen* Palaiseau, France

, CH-2022 Bevaix, Frankfurt, Ger- ,

. Besançon, 1 , C. Jerez 1

and C. TEMEX 1 . and 1

. , ,

Yokohama, Japan Kanagawa University Seoul National University University pan Gu, Seoul, KOREA H. Miura, and T. Ueoka, J. Tsujino*, M. Hongoh, M. Yoshikuni, quency Temperature Rises of Various Fre- 6F-3 Kishimoto, and T. Kawasaki, J. Tsujino*, T. Ueoka, R. Karatsu, G. Complex Specimens Using a 19 kHz Ultrasonic 6F-5 C. I. Park*, S. H. Cho, and Y. Y. Kim, strictive Nickel Strips in Cylinders. using Obliquely-bonded Magneto- 6F-4 Kyuzen, Ueoka, Y.Kikuchi, T. and T.Aoyama, Multiple Transducers. sonic Complex Vibration Source with 6F-6 . Welding of Thick Coated Wire 27 kHz Small Diameter Ultra- Torsional Wave Transduction Welding Characteristics and Ultrasonic Plastic Welding.

Vibration Welding System. Vibration Welding

Yokohama, Japan Kanagawa University . .

, Yokohama, Ja-

J. Tsujino*, T.

Kanagawa

, Kwanak- . , 52 43 ..60 .. 4:30 p.m.–6:00 p.m. p.m. 4:30

p.m. 4:45

Nijmegen, The Netherlands lands Laboratory, Radboud University Medi- Radboud University Medical Center cal Center ter Gerrits Arbor P. Lopata* pic and Anisotropic Materials. 1G-2 and C. L. de Korte M. O’Donnell Digital X-Ray System. Characterization using a Combined 3D US/ 1G-1 R. Erkamp Results to Optimize LeCarpentier

, Schenectady, NY Chair: K. Nightingale, Duke , Applying 3D Strain Estimation for Isotro-

, General Electric Global Research Cen- 1 , J. M. Thijssen

2 ELASTICITY

Children’s Heart Center, Session 1G 1 1 , M. Roubidoux , 1 1 , H. Xie

, M. M. Nillesen Nijmegen, The Nether-

1 University

In Vitro University of Michigan om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1

. In Vivo 1 R. Booi* , Elasticity Imaging 1

, A. Kapur 1 Clinical Physics 1 1 , J. Fowlkes , L. Kapusta Breast Lesion 1,2 , P. Caron . 1 , I. H. R. G. 2 , 1 , G.

, and Ann 1,2 2

, , ,

Biomolecular Medicine Excellence for Medical Engineering Bochum Frequency Engineering, Ruhr-Universitaet Germany Aristizábal Universitaet Bochum Schmieder 2 ment. aging of Mouse Vascular Develop- 2G-2 Hansen* Perfusion Imaging of Cerebral Tumors. 2G-1

CONTRAST AGENTS: New YorkUniversity Chair: K. Ferrara, University of Intraoperative Contrast Enhanced In In Vivo Contrast-Enhanced Im- , 1,2

, Bochum, Germany D. H. Turnbull*

, M. Engelhardt

3,2 Department of Neurosurgery,Department Ruhr-

IMAGING II California, Davis Session 2G , and H. Ermert 1,2 ,

1 Skirball Institute of

, Bochum, Germany ,

3,2 New York,NY ,

1,2

, W. Wilkening New York,NY , ,

1 2

Institute of High Ruhr Center of 1,2 and O.

, Bochum, . 2 Ch. , K. .

FRE 2448 Herman Russia VZLJOT, Hamidullin*, ity Profile Averaging. rations on the Efficiency of the Veloc- Integral Ultrasonic Flowcell Configu- 3G-2 ter: Velocity Profile Estimation. Profileter: Velocity 3G-1 Mandard* J. P.Remenieras Chair: L. Lynnworth, General

Estimation of the Influence Transit Time Ultrasonic Flowme-

FLOWMETERS

. ULTRASONIC

La Ferté Bernard, France

Incorporated

1 Session 3G , D. Kouamé ,

Tuesday, September 20, 2005

Laboratory of ultrasonics, Tours, France Electric 1 , and F. Patat

, St. Petersburg, 1 , R. Battault , 1 ,

.K. K V. 1 2

LUSSI Faure . E. 2

ness Development, Inc. Hills, CA 4G-1 Technology. ture of Intravascular Ultrasound

Chair: G. Lockwood, Queen’s INTERVENTIONAL

(Invited) A Glimpse into the Fu- ULTRASOUND

. Session 4G University

S. Fry*, Strategic Busi-

El Dorado ant nal processing. 5G-1

, Malvern, Worcs, UK

(Invited) SAW and optical sig-

Chair: R. Potter, Vectron APPLICATIONS

SAW SYSTEM Session 5G International M. Lewis*,

Consult-

Bochum, NRW, Germany Hospital for Otorhinolaryngology, Uni- Germany versity Erlangen York, NY WA NY Bozzato Siebers Sparks nance Methods. Combined Ultrasonic and Magnetic-Reso- Imaging (TTI) of Prostate Cancer Based on 6G-2 Gland Tumors. tion for the Differentiation of Parotid- 6G-1 Ermert Dasgupta Schiff Ramachandran CHARACTERIZATION , ,

Virginia Mason Medical Center Columbia University Medical Center 3 New Developments in Tissue-Type , Ultrasonic Tissue Characteriza- Ultrasonic Tissue Chair: G. Berger, CNRS

1 2 Riverside Research Institute , F. Arias-Mendoza . 1 1 , , M. Ashfaq 2

1 .

, J. Zenk

, A. Kalisz Session 6G

Ruhr-University Bochum TISSUE 1 , D. Dail E. Feleppa* ,

U. Scheipers* Erlangen, Bavaria, 2 1 1 , H. Iro , J. Ketterling 2 , F. Gottwald , M. LaCrampe Rotterdam 3 , T.Liu 1 , C. Porter ,

2 University 2

, and H.

, New York, 3 ,

, and P. Seattle, 1 , 2

, S. New 2 , A. 2 , S. , D. , S. , 53 p.m. 5:00 p.m. 5:15

p.m. 5:45 p.m. 5:30

many

sity Bochum Bruhns, and H. Ermert, sue. Determine the Shear Modulus of Tis- ity: A Reconstruction Procedure to 1G-4

Paris, France bana Champaign Ondes et Acoustique sity of California at Davis France France France Ossant S. Gahagnon ence of Breast Cancer. ation Imaging and the Material Sci- 1G-5 2 2D High Frequency Elastography. Properties of Human Dermis In-Vivo using 1G-3 J. Bercoff* Cancer Characterization. of Soft erties Tissues: Towards Breast 1G-6 M. Sridhar Servois Barakat Institut Curie, Radiology department A Quantitative Study of Mechanical The Inverse Problem of Elastic- . Imaging Elastic Non Linear Prop- W. Khaled*, S. Reichling, O. T. , Ultrasonic Mechanical Relax- , . 1,3

3 2

University Hospital Bretonneau LMARC UMR 6604 CNRS , 2 2 , and M. Fink ,

1 LUSSI FRE 2448 CNRS

1 1 , M. Tanter University of Illinois at Ur- 1 2 , C. Imberdis , J. Liu ,

. Bochum, NRW,Ger-

, Urbana, IL 1 , and C. Pellot- 1 , , K. Elkoury 2

, F. Patat 1 Paris, France

, Ruhr-Univer- M. Insana*

, Laboratoire

R. Sinkus Davis, CA ,

, Besançon, Y. Mofid*

1,3 2 Univer- , , and F.

Tours, Tours, 2 , V. 1,2 1 1

, , , . , ,

Utrecht, the Netherlands Sunnybrook and Women’s College diology Institute of the Netherlands the Nethelands Health Sciences Centre, University Electronics and T of Torontoof Universita di Firenze ences Centre Tavakkoli A. Needles K. Cheung, and F. S. Foster, on a Surface. Presence of Micron-Sized Particles Reflectivity Enhancement Due to the 2G-5 trast Imaging. Contrast Bubble for Improved Con- 2G-6 Boni, and P. Tortoli, Microbubbles. Simulation of Freely Moving Single 2G-4 2 1 tion using 25 MHz Ultrasound. 2G-3 de Jong

Visualsonics Inc. Sunnybrook and Women’s College Health Sci- Microbubble Contrast Agent Destruc- A New Model for the Ultrasound Exploiting Sstatefulness in a Acoustical Investigation and 1,2 1,2 1 ,

, J. Mehi , S. Stapleton

1 Toronto, Ontario, Canada

Erasmus MC , Toronto, Ontario, Canada O. Couture*, P. B. Bevan, , J. Borsboom*

, Toronto, Ontario, Canada H. Vos*, F. Guidi, E.

elecommunications, Interuniversity Car- 1,2 , and F.S.Foster

Department of Department 1 Firenze, Italy , R. Williams

, . Rotterdam, E. Cherin* 1,2 and N. 1 , J. . 1 1

. .

, , , ,

Paderborn, Germany Shanghai, China School of Mechanical Engineering and Automation, Shanghai University of Computer Science and Electrical Engineering, Luleå University of Engineering, Tech- nology ogy, Universi Freising, Germany 3G-6 Germany Pulp Suspensions. ments of Fiber Consistency in Dilute 3G-5 Aitomäki, and T. Löfqvist, Fibers and Fines. Pulp Fiber Suspensions Containing 3G-4 cations. form Flow: Coupling to FEM and Appli- tion for Acoustic Radiation in a Nonuni- 3G-3 ment Devices. Liquids with Pulse Driven Measure- ume Measurement in Bubble Loaded Henning, and R. Lerch A Novel Boundary Integral Formula- Phase Velocity Measurement in Measurement Phase Velocity Bubble On-line Ultrasonic Measure- , M. Bezdek*

, Luleå,Sweden

Endress+Hauser GmbH+Co. KG ty of Erlangen-Nuremberg

1 University of Paderborn ,

1 Department of Sensor Technol-Department Detection and Gas Vol- . 1,2 . M. Gulsch* and B. , A. Rieder Y. Jun* and L. Bin, . .

J. Niemi*, Y. Department 2 , H. Landes

, Erlangen, 1

, , , ,

Duke University bor CA serve University serve Laboratory, Stanford University Kingston, Ontario, Canada versity University Karaman Foundation Wygant* Array: Real-Time Imaging Results. System Based on a Two-Dimensional CMUT 4G-4 Yakub Tulloch, S. Idriss, P. Wolf, and S. Smith, Laparoscopy. 4G-5 2 ing. pMUTs for High Resolution Medical Imag- 4G-3 Applications. for Intravascular and Intracardiac Forward-Viewing CMUT Ring Arrays 4G-2 A. Nikoozadeh Wygant Fan Lockwood Department of Electrical Engineering, Isik Uni- , . 1,2 A. Fleischman* 2 An Endoscopic Ultrasound Imaging Components for Focused Integrated

, J. Talman , University of Michigan 3-D Ultrasound Imaging Using 1

Real-Time 3D Ultrasound Istanbul, Turkey , 1 1 , X. Zhuang 2 , M. O’Donnell , 1

, and B. 4

Stanford University

Cleveland, OH , and S. Roy , Cleveland, OH ,

1 Cleveland, OH , O. Oralkan D. Yeh* Khuri-Yakub , E. Light*, E. Dixon- 1

, D. Yeh Durham, NC , S. Garverick 1 1 , C. Chandrana . , 1

, The Cleveland Clinic 1 , 4

, O. Oralkan

Queens University 2

2 Case Western Re- , and B. Khuri- 1 , S. Vaithilingam 1 , , A. Ergun 3 1

, Cleveland State Palo Alto, CA

1 E. L. Ginzton ,

Stanford, Ann Ar- . 2 1,3 , G. 1 , M. 1 , J. , I. I. 1

, , ,

Tokyo, Japan Saitama, Japan Samsung Yokohama Research Insti- l’Observatoire 25044 Besançon ics Co., Ltd. tute Cedex France TUTE, LPMO Dept and Y.Fujita, Kondo, J. Hamasaki, T. Endo, T. Shiba, plexers. SAWturized W-CDMA Antenna Du- mission Line Phase Shifter for Minia- 5G-3 and S. Ballandras, Alzuaga, F. Bastien, J. F. Manceau, Acoustic Waves. 5G-5 5G-2 Hasegawa, and T. Shimamori, K. Tanji, N. Otani, H. Nagasaka, M. Filters. nication System using SAW Matched 5G-4 Takasaki* for a Tactile Display Application. T. Mizuno ,

The Rounded Shape Spiral Trans- Ultra-Low Power UWB Commu- SAW Excitation on Glass Plates Droplet Ejector Using Surface Yokohama, Kanagawa, Japan T. Sugiura*, T. Sato, E. Otobe, 1,3 O. Hikino*, M. Ohki, S. , H. Kotani 1 ,

, Hitachi Media Electron- .

1 3

Saitama University JST ,

University of Tokyo FEMTO-ST INSTI- ,

J. Bennès*, S. Saitama, Japan 1 ,

, T., Nara 32 rue de 2 , and M. .

. , ,

of Engineering, Tohoku University Sendai, Japan versity Hospital den University Ioannina, Greece Medical School, University of Ioannina Ioannina, Greece Science Department, University of Ioannina and Intelligent Information Systems, Computer sound nology and S. Rabben S. Urheim Nishio, and H. Kanai, diation Force. side Object Using Dual Acoustic Ra- 6G-3 Healing Long Bones. Guided Ultrasound Wave Propagation in 6G-6 3 2 tive Appearance Motion Models. Triplane Ultrasound Images using Multi View Ac- Left Ventricle from Simultaneously Acquired 6G-5 3 N.-G. Holmer W. Persson Paranasal Sinuses. proved Diagnosis of Disease in the 6G-4 D. Fotiadis

The Norwegian University of Science and Tech- Rikshospitalet University Hospital Lund University Hospital . Detection of the Myocardial Boundary in , ,

Two-Dimensional Simulation of Cyclic Generation of Strain In- Horten, Norway

Ultrasound Doppler for Im- Trondheim, Norway 2 , E. Steen 2 ,

1 Lund, Sweden Department of Medical Physics, 4 1 , , P., Sahlstrand-Johnson 1

3 University of Oslo , and M. Jannert , 4

2 , H. Torp Unit of Medical Technology . , H. Hasegawa*, Y.

V. Protopappas* Malmo, Sweden

, 3 Graduate School T. Jansson* , B. Olstad

4 GE Vingmed Ultra- , , , 2

J. Hansegård*

, Lund, Swe-

Malmo Uni-

Oslo, Norway Oslo, Norway 3 ,

, S. Malm 2 Ioannina, , 1

1,2 Lund 1 , H. and 2 1 3 , , , , , , , , 54 8:30 a.m.–10:00 a.m.

a.m. 8:45 a.m. 8:30

Canada bana, IL MA Paramétrique Women’s Health Sciences Centre, coustics Research Laboratory University of and F. S. Foster, O.P. Couture, D. Bevan, P. N. Burns, Definity Microbubbles. “Subharmonic” Response from bution and Driving Frequency on the 1H-2 tection of Optison 1H-1 A. Y.Ammi* W. O.O’Brien Mamou CONTRAST AGENTS: . The Effect of Bubble Size Distri- Chair: O. Basset, Creatis Double Passive Cavitation De- 2 , G. I. Wang .

3 Session 1H

EFFECTS Boston University

2 1 Toronto , , , R., O. Cleveland om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1

1 Paris, France Laboratoire d’Imagerie

2 ™ ™ ™ ™ ™ Sunnybrook and , S. L. Bridal Shell Rupture.

, Toronto, ON, K. Cheung*, ,

, Boston, 2

1 Bioa- , , and

Ur-

, J

in St. Louis versity of Illinois D. Jr., O’Brien, and J. F. Zachary, Models. Three-Dimensional Acoustic Tissue Three Animal Mammary Tumorsfrom 2H-2 and J. Miller, K. Marutyan, Wallace, M. Holland, in Myocardium. Anisotropy of Protein Cross Linking 2H-1

CELLS AND TISSUES PROPERTIES OF Chair: G. Schmitz, Ruhr- Ultrasound Characterization of Ultrasonic Detection of the Universitat Bochum

J. Mamou*, M.L. Oelze, W. ACOUSTIC Session 2H

St. Louis, MO Washington University

S. Baldwin*, M. Yang, , Urbana, IL .

Uni-

Nottingham, UK sity of Palermo Ontario, Canada tre for Imaging Research A. Siddiolo* Techniques for Painting Diagnostic. 3H-2 1 Somekh, S. Sharples*, M. Clark, and face Acoustic Wave Velocity Mapping. terial Microstructure using Local Sur- 3H-1 Dipartimento di Meccanica, Univer- Chair: R. Maev, University of

Fast Noncontact Imaging of Ma- Air-Coupled Ultrasonic Imaging

ACOUSTICAL

Session 3H Wednesday, September 21, 2005

University of Nottingham IMAGING Windsor 1 , and R. Maev .

. Palermo, Italy

, Windsor, ,

2 Cen- 2

, ,

District, Russia District, Co. stitute of Microelectronics Technol- ogy RAS Method. Scanning Electron Microscopy Wavefields in BAW-Resonators by 4H-2 Roshchupkina A. Sakharov Bhave, Chandrahalim*, D. Weinstein, and S. tions in Silicon Bar Resonators. 4H-1 BAW RESONATORS ,

Chair: Y.-K. Yong,Rutgers Moscow, Russia Thickness Shear Mode Vibra-

Analysis of the Acoustic

Cornell University Cornell

, Session 4H D. V.Roshchupkin* Chernogolovka, Moscow 2 , and S. V. Pyatkin University 1 , , O. A. Buzanov

2 FOMOS Technology .

, Ithaca, NY 1 , H. D. 1 , 2 , S.

1 In- H.

tute for Solid State and Materials Re- Orno Florida 132°, and SAW Parameters on LGT [0°, 5H-2 search Dresden D. C. Malocha D. Puccio tations. Stable BAW and SAW Crystal Orien- 5H-1

Chair: M. P. da Cunha, University SAW PROPAGATION . Experimental and Predicted TCD Links Between Temperature Ψ Ψ Ψ Ψ Ψ ,

] Substrates. Orlando M. Weihnacht*,

1 , M. Pereira da Cunha Session 5H of Maine 1 , , ,

2 University of Central Dresden, Germany University of Maine

N. Saldanha* Leibniz Insti- 2 , and 1 .

, ,

Besançon, France CNRS CNRS Cavallier Marzencki Ballandras, Foltête, L. Hirsinger, and S. Cavallier*, P. H. Berthelot, Nouira, E. ing Structures Excited by Shock. 6H-2 3 ergy Harvesting. En- (pMUT)forUltrasonic Transducer 6H-1 and S. Ballandras E. Cattan TIMA, CNRS Chair: Y.Takeuchi, Kagoshima

Energy Harvesting using Energy Harvesting Vibrat- TRANSDUCERS Piezoelectric Micro-machined HARVESTING &

, ,

Villeneuve d’Ascq, France Besançon, France 1

, P. Delobelle Session 6H 3

, B. Charlot ENERGY

2 , D. Rèmiens NOVEL University

FEMTO-ST, CNRS Grenoble, France . K. Dogheche* 1 , 1 Rotterdam 3 , L., Hirsinger , S. Basrour

1 FEMTO-ST, , 2

2 IEMN, , M. . 1 , B. B. 3 1 , , , , 55 a.m. 9:00

a.m. 9:45 a.m. 9:30 a.m. 9:15

Eindhoven, The Netherlands Technion - Isr University of California-Davis ogy Netherlands CA Women’s College HSC Toronto, ON, Canada Sapunar, E. Kimmel, and D. Adam, Agents. Properties of Ultrasound Contrast Changes using Nonlinear Acoustic 1H-4 P. Dayton, D. Kruse, and K. Ferrara, Diameter of 12 Microns. Microbubbles in Rigid Vessels with a 1H-3 3 the Liver. enced by an Unsuspected Interaction with ment Following In Vivo Injection is Influ- 1H-6 2 1 Mischi* Ejection Fraction Assessment. Methods for Contrast Ultrasound 1H-5 Banerjee

Daiichi Pharmaceutical Co Daiichi Pharmaceutical Eindhoven University of Technology Catharina Hospital . ,

The Longevity of Contrast Enhance- Haifa, Israel Estimation of Ambient Pressure Dilution System Identification On the Oscillation of 1 2 , A. Jansen , and P. Burns* M. Matsumura D. Razansky*, Y. Ganor, M.

. ael Institute of . 2 1,2 ,

, and H. Korsten Toronto, ON, Canada , , , 1,3

Eindhoven, The University of Toronto

, R. Karshafian

, Sunnybrook and Tokyo, Japan

C. Caskey*, Technol-

, Davis, . 1 , M. M. 2,1

, , , , ,

Montreal, Quebec, Canada sity of Montreal Hospital Québec, Canada Montreal Hospital Research Center University Health Network Ingbert, Germany Ingbert, Canada Toronto, Ontario, Canada Institut fuer Biomedizinische Ontario, Canada Hospital Canada Kolios* Giles A. Tunis Number Density in Dilute Cell Solutions. Envelope Statistics to Determine Scatterer 2H-5 Gennisson, and G. Cloutier, Results.Preliminary High Frequency Parametric Imaging: Human Subcutaneous Veins using Kinetics of Rouleaux Formation in 2H-3 Lemor Rabhi, and G. Cloutier, Amararene*, J.-L. Gennisson, A. Clinical Imaging System. Aggregation using an Ultrasound 2H-4 Brand* ing Scanning Acoustic Microscopy. 2H-6 2 Visualization of Apoptotic Cells us- Using High Frequency Uultrasound , A. Worthington Quantification of Red Blood Cell 3 A New Method to Assess the , and M. C. Kolios 1,2 . 1,3 , ,

1,2 Toronto, Ontario, Canada 3 , E. C. Weiss

, Ryerson University, Toronto, Ontario, , R., Baddour

1 University of Toronto, , .

2 Ontario Cancer Institute, . 2 , M. Sherar 1 3 1,2 , , G. Czarnota , 1

, G. Czarnota 2 Ryerson University

, Princess Margaret Princess

Toronto, Ontario, University of F. Yu*,J.-L.

, Technik ,

. Montreal,

3 Fraunhofer 1,2

Univer- Toronto, , and M. 1,2 , 2

, R. , A. St.- A. S.

, ,

UTC, Compiègne, France Japan France Djelouah Algiers, Algeria Tohokugineering, University

University Belgroune* a Liquid-Solid Interface. ated by a Linear Transducer thr 3H-4 Djelouah K. Yamanaka, 3H-6 electric Crystal. Induced Domain Switching in Ferro- croscopy and Observation of Stress- tion in Ultrasonic Atomic Force Mi- 3H-3 M. Arakawa, and J. Kushibiki, characterization system. Curve by the LFB Ultrasonic Material Highly Attenuated Waveform of V(z) Acoustic Wave for Materials with surement Accuracy of Leaky Surface

Clinical Research Ltd. Canada Physics University and G. Grayson Denisov Denisova* Scanning Acoustic Microscope. Dentin-Cement Interface Strength using a 3H-5 Morpho-Mechanical Analysis of the Impulse Ultrasonic Fields Radi- Suppression of Spurious Vibra- Improvement of Velocity Mea- , . .

1 Moscow, Russian Federation . , E. Bakulin

, Windsor, Ontario, Canada , 1 1 , , , R. Maev

1,2 Sendai, Miyagi, Japan

D. Belgroune

USTHB, Compiègne, , J. F. Belleval 3 Graduate School of En- ,

1 Institute for Biochemical 2 , , D. Gavrilov T.and S.Ide, Tsuji*,

2 J.F. de Belleval 2 ,

, F., Rusanov Windsor, Ontario, Y. Ohashi*, 1 , , F. Severin 2 ,

, and H. , USTHB,

3 Sendai,

Ultradent

Tohoku 2 Windsor , ough 1 , A. 3

. H. D. L. 2

Grenoble, France France France ISEN France

Microélectronique et de Nanotechnologie, Dpt. Ancey A. Volatier* with Bulk Acoustic Wave Resonators. tors using Lamb Waves Co-Integrated 4H-3 D. Pellissier Tanon Resonators. Bragg Reflectors in Bulk Acoustic Wave Tool for Physical Characterization of 4H-4 Dubus Caruyer

fecture, Japan versity Corporation Resonators.Quartz Temperature Behavior of AT-cut Thermal Stresses on the Frequency- 4H-5 Yong , Picosecond Ultrasonics: An Original

Intermediate Frequency resona- LILLE CEDEX, France 1 , and M. Tanaka Effects of Non-Homogeneous , 3 , , 1 . ,

, , R. Velard

Piscataway, NJ ST Microelectronics

2 STMicroelectronics Institut d’Electronique, de 1,3 , 2 , G. Caruyer

P. Emery* CEA-LETI/DIHS/LCRF Suwa City, Nagano Pre- . 1 , N., Casanova 1 , P., Ancey , M. Patel* 2 1

3 , , A. Devos IEMN 1

1,3

Rutgers Uni- Seiko Epson

, , E. Defay CROLLES, , 1

, and B.

, 1 Crolles, , and P. 1

, Y.-K. Lille, 2 , G. 2

, ,

Steel and Alloys Institute Russia Ikoma, Nara, Japan Nara Institute of Science and Technology (NAIST) Osaka, Japan DRT-LETI sion, Sakai Chemical Industry Co., Ltd France Ballandras* Nishida Shimizu cium Oxoborate Single Crystals. SAW Propagation Characteristics of Rare- Cal- 5H-6 lardat Transferred onto Silicon. cited on Oriented LiNbO3 Single Crystal Layers on High Frequency Surface Acoustic Waves Ex- 5H-5 1 B. Abbott* Wafer for RF Filters with Reduced TCF. 5H-4 B. Aspar

LPMO France Germany acoustic waves. 5H-3 Laude B. Vincent W. Daniau Sawtek, Inc. Electro-Acoustical Constants and Reighly New Theoretical and Experimental Results 2 , A. Laens Silicon phononic crystal for surface , 1 , 1 Characterization of Bonded 1 , 2 ,

, A. Kondo 3 , TEMEX

, W. Daniau

1 3 Besançon, France

. ,

Garaduate School of Materials Science, University of Sarrebrück

Grenoble, France Institut FEMTO-ST, Département 1 2 , L., Robert 1 , O. Elmazria , .

1 FEMTO-ST, CNRS 1 2 ,

, J.-B. Briot and N. Naumenko Sophia Antipolis, France , 1 , M. Nishida ,

S. Benchabane* Apopka, FL

1 Research Development Divi- , W. Steichen 1 , V.Pétrini T. Pastureaud . 2 2 , J. Krüger , J.-M. Friedt 2 , , H. Takeda

2 LPMIA T. Shiosaki* 2 1 , V. Laude , , , B. Assouar ,

Sarrebrück, 1

Moscow, 2 2

Besançon, , A. Khelif

, B. Biasse Moscow 3 , 1 , and V. , 1 , and S.

, and T. Nancy, Sakai,

3 CEA- 1 1 , R. , H. 2 3 2 1 , , ,

, ,

Pullman, WA versity versity Southern California cow, ID Southern California, Los Angeles, CA 90089, USA d’Automatique de Grenoble (LAG) Domaine Universitaire, BP 46, 38400 Saint Martin Cachan cedex, FRANCE de l’Information et l’Energie (SATIE) d’Hères - FRANCE brane. cal vibration using Circular Piezoelectric Mem- 6H-3 I. Oppenheim Richards Bahl* and E. Sok Kim, Array.Acoustic Transducer Using Directional Self-Focusing 6H-6 Ozevin Detect Acoustic Emissions. 6H-5 6H-4 son* and Power Generation. Coupling for and Electrostatic Electromechanical Poulin Predictive Energy Harvesting from Mechani- 1 2 , C. Richards Adapting a cMUT Transducer to , A Comparison of Piezoelectric E Minazara* DNA Microarray Fabrication

1 , Système et Applications des Technologies , 2

, S. Pessiki

Bethlehem, PA Pittsburgh, PA

2 2 Washington State University ,

1 University of Idaho . 1 Ultrasonic Transduction . . , 1

1 , D Vasic Carnegie Mellon Uni- 2 , D. Bahr 2 , D. Greve* , 1 ,

. University of , F Costa

, University of 2

Lehigh Uni- LAG - ENSIEG,

M. Ander-

, 2

Laboratoire ENS Cachan, S. Kamal- 2 , and R. 1 , , and G 1

, and Mos- D. , 56

00 ..1:0am 10:00 a.m.–11:30 a.m.

Trondheim, Norway Circulation and Medical Imaging, Fac- mark cal ulty of Medicine, Norwegian Univer- Norway Science and Technology sound Beamforming. Schemes in Dynamic Receive Ultra- P3A-3 sity of Science and Technology and H. Torp, T. Varslot, T. Johansen, B. Angelsen, Transducer Geometries. monic Ultrasound Field from Arbitrary P3A-1 T. Bjåstad, and H. Torp, in Tissue Doppler Imaging. Andresen P3A-2 Jensen Chair: J. Hossack, University of

, Herlev, Denmark

, BEAMFORMING

Fast 3D Simulation of 2nd Har- Lyngby, Denmark Velocity Sensitivity Mapping 1

Comparing Interpolation .

, Session P3A 1

1 Technical University of Den-

, K. Gammelmark Norwegian Univ Virginia . .

J. Kortbek* Department of Department , ,

S. Dursun*,

2 Trondheim, B-K Medi-

S. Aase*,

2 , and J. ersity of 1,2 , H.

of Edinburgh dom nological Research, Polish Academy California K. Ferrara, and M. Longo, Device. bubbles Formed by a Flow Focusing P3B-2 of Sciences McDicken, T. Anderson, D. Anderson, and W. Agents. terisation of Commercial Contrast P3B-1 Nowicki, T. Kujawska*, J. Wojcik, and A. Experimental and Numerical Results. from Focused Rectangular Apertures: P3A-8 CONTRAST AGENTS II . Chair: W.Ruhr Wilkening, Nonlinear Pulsed Pressure Field Coating Monodisperse Micro- High Frequency Charac-

E. Talu*,M.P.Lozano, Dayton, C. Moran*, M. Butler, V. Sboros,

Institute of Fundamental

University Bochum

, Session P3B

Medical Physics, University Davis, CA ,

Warsaw, Poland Edinburgh, United King-

. University of

Tech-

Tours, France Kliniküm

ESA at the Calcaneus Site. liminary QUS BUA and SOS Changes P3C-1 M. Nasser-Eddin Lazerges

6 France Amherst, MA Hoboken, NJ Paramétrique, CNRS UMR 7623 – Université Paris CNRS UPR A0005 – ESPCI Alamos, NM Laugier ling Assessment. troscopy (NRUS) for Bone Micro-Damage P3C-2 lous Bone. Transmission and Backscattering in Cancel- P3C-3 Jenson Wednesday, September 21, 2005 POSTER PRESENTATIONS

, Paris, France Chair: W.of University O’Brien, 2 , A. Sutin ,

, Nonlinear Resonant Ultrasound Spec- Noordwijk, Netherlands Numerical Simulation of Uultrasound 1 1 A 60 Days Bedrest Study: Pre- , and P. Laugier , and P. Johnson

2 Los Alamos National Laboratory

3 Session P3C F. Padilla* Germany Berlin, , , . , 3

1 Stevens Institute of technology M. Muller* ,

3 4 GIP Ultrasons - LUSSI

University of Massachussets , R. Guyer

Laboratoire d’Optique Physique, BONE , 1 Illinois , J. Rittweger 2

1 1 Benjamin Franklin , E., Bossy , 2 ,

Laboratoire d’Imagerie 1

1 Université Paris, Paris, , J. Tencate 4 M. Defontaine* ,

, M. Talmant Paris, France , 2 , G. Haiat

3 . ESTEC - 2 , and M. 2 , T.Dar- , 1

. 1 Los , P. , F. 1

, ,

Horten, NorwayHorten, Norway Group,Department of Electrical and Frequency Engineering, Ruhr-Univer- Science and Technology Karlsruhe Electronic Engineering, University Col- sity Bochum lege Cork Time-of-Flight Tomin Scheme for Refraction Compensation P3D-2 and H. Torp Ashfaq* and H. Ermert, Gemmeke, K. Schlote-Holubek, G. Göbel, and H. N. Ruiter*, M. Zapf, R. Stotzka, T. Müller, for Ultrasound Computer Tomography. P3D-5 ing Simulator. P3D-4 D. Wright, mal Imaging. Technique Application for Tissue Ther- P3D-3 First Images with a 3D-Prototype Computer Modelling of Iterative Ultra-Fast Ultrasound 3D Imag- An Eikonal Equation Based , , ,

GE Vingmed Ultrasound GE Vingmed 76133 Karlsruhe, Germany 76133 Karlsruhe, Cork, Ireland 1

1 Bochum, Germany K. Bograchev* and W.M.

Ultrasonics Research Norwegian Univ T. Hergum*

Forschungszentrum Institute of High . ography. 1 ,

, S., Rabben

Trondheim, ersity of . M. 2

, ,

Virginia Technological Research, Polish Acad- University emy of Sciences Russia Pinton*, J. Dahl, and G. Trahey, Displacements with Ultrasound. P3E-4 sian Academy of Sciences T. Yakovleva, Benenson*, N. Kulberg, A. Elizarov, and Ultrasound Pulse Signal. gation in a Tissue of a Chirp-Modulated P3E-3 S. Acton, and J. Hossack, trast Enhanced Ultrasound. mentation of the Myocardium in Con- Registration on the Active Shape Seg- P3E-5 Litniewski, M. Lewandowski, W. Secomski, and J. Coded Golay Transmission. P3E-2 Investigation of Nonlinear Propa- High Frequency Imaging using The Effect of Initialization and Rapid Tracking of Submicron .

, Charlottesville, VACharlottesville,

Durham, NC

Institute of Fundamental Computer Center of Rus-

, Warsaw, Poland

. University of A. Nowicki*,

J. Pickard*, , .

Moscow. Duke . G.

Seoul National University University Korea People’s Republic of China Porsgrunn, Norway Politechnical University of Catalonia versity College X.-Y. Wang, and S.-M. Yang, Detection. Guided Wave Generation and Defect P3F-6 Alme sensors and Temperature Sensors. Sensor Data Fusion with an Array of AE phasis on Drilling Operations Using Multi and Particulate Flow With Special Em- P3F-5 and Shape. Transducers: Effects of Grating Size P3F-4 Barcelona, Spain Alvárez, C. Ballabriga, and J. A. Chávez, A.Hernández, Turó, J. Salazar, J. García- Concave Arrays. Coupled Ultrasound NDT System using P3F-3 2 and S. Mylvaganam* Innovations in Monitoring Fluid . A New Transducer for Torsional Digital Processing for an Air- Magnetostrictive Grating

Z.-H. Liu*, B. Wu, C.-F. He, of Technology ,

I. K. Kim* and Y. Y. Kim, Porsgrunn, Norway Expohal, Rotterdam . . Y.García- J. Yañez*,M. 1,2 ,

1 Telemark Uni- , ,

Barcelona,

. Beijing, ,

Beijing Seoul, Tel-Tek K. J. ,

Chair of Electrical Engineering and Tours, France. Centre, Bretonneau Computer Systems many sity of Toledo, of Virginia of F.and W. Viola* F. Walker, in Medical Ultrasound Beamforming. P3A-5 . . * x o F D. P. linear Fields using Offset KZK Axes. P3A-6 Schwa Dependent Receive Apodization. P3A-7 2 J. Cheng and J.-Y.Lu*, and Limited-Diffraction Array Beams. Method with Steered Plane Waves P3A-4 Tranquart INSERM U619, CHU Bretonneau . nn*, N. Stache, Computation of Steered Non- Adaptive Signal Processing Optimization of Frequency Fourier Bbased Imaging 1 , ,

1 INSERM U619 & CIT, CHU 1

, A. Bouakaz VACharlottesville, Tours, Centre, France.

, Toledo, OH

Aachen, Ger- and T.G.Noll, The Univer-

2 University , and F. . R.

, ,

Institute, Brindisi, Italy University, Lecce, Italy Institute of Clinical Physiology, Lecce, Italy anstalt Fluids, Univ. Twente don, U.K. MC UK Distante Inst. Netherlands Palmizio Errico hancement Varying Echograph Electrical Power. P3B-6 Conversano R. J. Eckersley, ear Pulse Sequences. sponse to Coded, Multi-Pulse, Non-Lin- P3B-5 Ultrasound. Contrast Agents with Intravascular P3B-4 1 and A. F. W. van der Steen Stride* Agents: Experimental Results. Microbubble Ultrasound Contrast Thermal Damage Posed by P3B-3 Wamel University College London , ,

Rotterdam

Low Microbubble Concentrations Signal En- Physikalisch-Technische Bundes- 1,2 , Harmonic Imaging of Targeted 1,2 Investigating the Potential for 1 Modeling Microbubble Re- , , V., Wilkens

1 Braunschweig, Germany

, M. E. Frijlink Euro Mediterranean Scientific Biomedical 1,4 , G. Palma 1,3 , S. Casciaro* D. E. Goertz* , ,

, Imperial College Imperial 2 2

4 National Council of Research - Interuniversity Cardiac

, Pisa University, Pisa, Italy Utrecht 1,4 2 , , E. Casciaro

, and N. Saffari Enschede 1 , N. de Jong K. Chetty* and 2,1 , C. Demitri , 1,2

3 Physics of , 1,2 , 1

, A. van Erasmus London, 2,1 . , and A. , , .

Lecce Lon- 1,3 . , F. 1,3 E. R. 1

, ,

Fundamental TechnologicalResearch, Paramétrique, CNRS UMR 7623 – Poland Polish Academy of Sciences Université Paris 6 Paramétrique Schles Lewandowski, and I. Trots, A. Nowicki, Z. Klimonda, M. tions in Water and Tissue. P3D-1 Boston , MA and of Velocity Dispersion. fect of Frequency-Dependent Attenuation sonic Velocity Measurements in Bone: Ef- P3C-5 Laugier, ments. using Spectral Backscatter Measure- Scatterers Size in Cancellous Bone P3C-4 land Padilla Chair: J. Jensen, Danisa Tecnical 3,1

, and P. Laugier wig-Holstein 1

Comparison of Various In Vitro Ultra- , R. Barkmann MODELING AND

Sound Fields for Coded Excita-

Precision of the Estimation VISUALIZATION .

F. Padilla*, F. Jenson, and P. Session P3D .

Laboratoire d’Imagerie France University

, Germany 2 1 , C.-C. Glüer , , ,

1 Paris, France Laboratoire d’Imagerie

2 Universitäts-klinikum ,

3 Boston University J. Litniewski*, G. Haïat*

2 Institute of , R. O. Cleve-

, Warsaw, . 1 , F.

Fukushima, JAPAN JAPAN Trondheim, Norway Twinsburg, OH ratory, of Bioengineering, Department versity Hospital University of Washington 1 Self-organizing map. Radiofrequency Data Analysis using through Intravascular Ultrasound P3E-1 University of Science and Technology Tanaka Amundsen 2 Kim aging. Three-Dimensional Power Doppler Im- P3D-6 aging. tricular Rotation by Tissue Doppler Im- P3D-7

SIGNAL PROCESSING Tohoku University Hitachi Medical Systems of America Chair: W. Walker,of University 1 ,

1 Coronary Plaque Classification Image Computing Systems Labo- Tracking of Regional Left Ven- R. Managuli* J. Crosby* 2 ,

Multi-Volume Rendering for

, Y.Saijo Session P3E 1

, and H. Torp

2 Fukushima University . Virginia ,

1 1 Oslo, Norway , and M. , T., Helle-Valle , 1,2

2 ,

Rikshospitalet Uni- , Y.M. Yoo Sendai, Miyagi, T. Iwamoto* , 1

, Seattle, WA Yoshizawa

1 Norwegian . 1 , and Y. 2 , B. H. . 1 , A. 1

, , , , ,

Tours, France Acustica CSIC Valencia

Rodriguez Placed at Perpendicular Planes. Means of NDE Ultrasonic Arrays P3F-2 France Kouame Emeterio* Souchon* ferentiation using Radiation Force. P3E-6 Sendai-City, Miyagi, Japan Materials Processing, Graduate School of Engineering, of Engineering, Tohoku University Kazushi Yamanaka, R. Sasaki, T. Ogata, T. Mihara, and Super- and Subharmonics. Array for Imaging Closed Cracks by P3F-1 NDE TRANSDUCERS Chair: R. Addison, Rockwell Gaseous and Solid Emboli Dif- . Nonlinear Ultrasonic Phased Multiple Flaws Location by 1

Scientific Company

, , and F. Tranquart 1 Session P3F , M. Biard 1

2 Valencia, Spain , A. Ramos ,

1 Universidad Politecnica , ,

INSERM U619 Madrid, Spain 1 , J. M. Girault

2 , and J. L. San of Department . , 2 Y. Ohara*, ,

2 Instituto . 1

LUSSI Tours, M. A. 1 , D. G.

Strasbourg, France Besançon, France Japan Center, TohokuUniversity nals and Systems Gakuin University Hoshimiya* by the use of a Line Laser Beam. Imaging of Plane Solid Specimens P3F-9 T. Stepinski*, S. Ballandras* Daniau Martin ture SAW-Sensor-Based System. perature using a Wireless Tempera- P3F-8 2 sonic Spectr Transducers for Narrowband Ultra- P3F-7 New Inductrial Creation Hachery 1 Measuring the Inner Body Tem- . Undersurface Photoacoustic , P. Berthelot 1 Designing and Evaluating , V., Blondeau-Patissier 1 and M. Suzuki

oscopy. Uppsala University, Sig- 1 ,

1 FEMTO-ST, CNRS , ,

. 1

Uppsla, Sweden Tagajyo,, Japan A., Lambert M. Jonsson and , 2

2 INSERM

, Sendai,,

1 Tohoku 1 , and 2 , W. G. T. , , , . 58

00 ..1:0am 10:00 a.m.–11:30 a.m.

ESPCI, Université Paris VII, techniques de Lille pean Magneto-Acoustics Laboratory partment 8107 d’Ascq, France tute RAS/LEMAC Radioengineering, Electronics and Automation/ LEMAC Microelectronique et de Nanotechnologie (IEMN- and M. Fink DOAE UMR CNRS 8520/LEMAC) Pernod* Ing 2 ment and Modelization. P3G-3 3 sonic Waves. Nonlinear Interaction of Phase Conjugate Ultra- P3G-2 2 and Q. Zhang* tic Wave Phase Conjugation. P3G-1

Wave Research Center of General Physics Insti- Sensitive Object, Research & Development De- Laboratoire de mécanique Lille UMR CNRS GENERAL PHYSICAL Chair: V. Proklov, IREE Russian 2 , N. Quieffin

, Flow Velocity Measurements by Means of Villeneuve d’Ascq, France ,

Time Reversal Interactivity: Experi- Theory of One-Dimensional Acous-

2 Moscow, Russia , and N. Smagin

Academy of Sciences

ACOUSTICS

Session P3G Paris, France 1 ,

Y. Pylnov Laboratoire Ondes et Acoustique, 1,2 ,

2 Moscow, Russia , D. Clorennec ,

1 ,

Université des sciences et Villeneuve d’Ascq, France 1,2 ,

2 , V. Preobrazhensky Institut d Electronique, de 1,2 . ,

1 G. Ribay* Moscow Institute of , .

1 Paris, France , S. Catheline ,

, Lille, France A. Merlen

, Joint Euro- Villeneuve 1 , R. K. 2,3 , P. 2,3 1

, , , ,

Monmouth, NJ Semiconductor Physics, National Ukraine tional University Academy of Radioengineering and Electronics RAS Russia Unique Instrumentation RAS G. Mansfeld* Romanyuk Ballato*, tors on Crystalline Substrates. P3H-3 p-n Junction. Forming and Characteristics of Silicon P3H-2 3 Phase Discontinuity. Through Periodic Structures Containing P3H-1

Institute of System Engineering BAW MATERIALS AND

Chair: J. Brown, JB Consulting , PROPAGATION I Propagation of Acoustic Waves

Influence of Acoustic Wave on 2

Thin-Film Composite Resona- Scientific and Technological Center for

2 Session P3H

Kyiv TarasNa- Shevchenko 1 US Army CERDEC , and O. Olikh 1

, and V. Dmitriev Science of Ukraine J. Olikh* .

, Kyiv, Ukraine Y. Gulyaev 1

, A. Evtukh , Moscow, Russia 2 , , 3 1

, V., Pustovoit 1 St.Peterburg Institute of

1 Institute of ,

. Moscow,

Kiev, Fort 1 , B. A. 2

, ,

Delhi, India Technologyof Delhi cow Radiocommunication Research Institute Media Electronics Ltd. Hitachi Ltd. A. L. and Schwartz, V. T. Sviridov, V. S. Orlov*, V.B. Chvets,A. O.Kustova, Nonequal Input and Output Impedances. P3I-3 pan Hikita* Ujalayan, and S. Joshi, Phase SAW Filters. age Technique for the Design of Linear in the Auto Regressive Moving Aver- P3I-2 1 Bands for RF-Filter-Integrated Modules. Characteristics at Lower-Side Frequency P3I-1

Wednesday, September 21, 2005 POSTER PRESENTATIONS Kogakuin University

. SAW FILTERS AND Chair: V.Plessky,Helsinki Investigation of High-Attenuation Use of Second Order Information 1 Design of SAW Filters with University of Technology , N. Shibagaki ,

, Moscow, Russia

Session P3I Kokub

. DEVICES

unji, Tokyo, Shinjuku, Tokyo,Japan

, Totsuka, Yokohama,Ja- 2 ,

, and K. Sakiyama Hauz-Khas, New-

B. Panwar*,P.

Indian Institute Japan . ,

3 Hitachi

, Mos-

2 CRL M. 3

Kadoma City, Osaka, Japan Panasonic Electronic Devices Co., Ltd. nology Antipolis Besançon, France Vandoeuvre Lès Nancy Fryazino, Moscow region, Russia land Paulo, Brazil versity of Ulsan de Physique des Milieux Ionisés et Applications Plessky Th. Pastureaud on Third Harmonic Generation. P3I-11 D. Kawasaki, Yamanouchi*, Y. Satoh, H.i Isono, and cal Coupling SAW Substrates. using Zero TCF High Electromechani- Low Loss Wide Band Resonator Filters P3I-10 Fan Transducers. Use of Narrow Open Metal Rreflectors and P3I-9 S. Seki, K. Nishimura, and T. Ishizaki, tive Coupled Resonator. nator Cascade Connection by Capaci- P3I-8 Grigorievsky Ballandras ,

3 C&C TechPlus Dispersive Delay Lines Based on the An Improvement of SAW Reso- High Frequency SAW Devices Based , 5~10 GHZ SAW Resonators and 2

, C.-U. Kim Sendai, Japan 3

, V., Laude , France , 5 ,

2 GVR TradeSA 1

SAWDES Ltd

2 Ulsan, South Korea Tohoku Institute of Tech- , F. Sarry . 3 , , and P. Alnot 3

, S. M. Balashov*

Seoul, South Korea , C.-W. Nam , France ,

3 Institut FEMTO-ST 1 . , O. Elmazria , , ,

H. Nakamura*,

Campinas, San-

2 Bevaix, Switzer- TEMEX L. Le Brizoual* . 1 , . 1

, Laboratoire , and V.I.

5 IRE RAS ,

1 Sophia , V.P. ,

1 Uni- , S. K. 1

, , , , ,

Tonami, Toyama,Japan Chinese Academy of Sciences Epson Corporation 100080, China Japan Universität Ueno Funasaka A. Yajima CMOS-SAW Oscillator. P3J-1 Guliyev and Wireless Sensor Application. P3J-3 and Y.Liang, 78% Bandwidth. P3J-2 Chair: J. Kosinski, US Army 1 , T.Karaki

, Switchable SAW Filter Bank with

Pulling of SAW Resonators for Development of a Monolithic APPLICATIONS

SAW SYSTEM Toyama Prefecture University

1 Session P3J

, S., Kawano

1 Ilmenau , K. Goto REDCOM

S. Klett*, 2 Institute of Acoustics, , and M. Adachi S. He*, J. Liu, Li,

Ilmenau, Germany , Suwa, Nagano, 1 1 , T., Higuchi , H. Sato .

M. Furuhata* Technische , 2

, Beijing

1 Seiko 1 1 , M. , T. E. 1

. , ,

Paisley, Scotland, UK and K. Kirk, Z. Wu, S. Cochran*, G.. McRobbie, Transducers for Underwater Sonar. High-Power Multilayer Ultrasonic tive Investigation of Bondlines for P3K-3

Ljubljana, Slovenia Tours, France fornia Holc Shung, X. Xu, Q. Zhou, J. Cannata, and K. ments in the Eye. Pulsed Wave Doppler Measure- trasonic Needle Transducers for P3L-2 F. Levassort ezoelectric Structure. Transducer Based on Integrated Pi- 1 P3L-1 Francois Rabelais University, LUSSI

Chair: M. Schafer, Sonic Tech HIGH FREQUENCY

2 , M. Kosec TRANSDUCERS , Destructive and Nondestruc-

PMN-PT High Frequency Ul-

High Frequency Ultrasonic

Los Angeles, CA

University of Southern Cali- Session P3L 1 , L.-P. Tran-Huu-Hue Expohal, Rotterdam

, University of Paisley

2 Jozef Stefan Institute 2 , and M. Lethiecq E. Gottlieb*, B. Lai, . . P. Marechal* . 1 , J. 1 1 , , , , ,

Kyotanabe, Kyoto, Japan Espoo, Finland Madrid, Spain Technology ratory, of Mechanical Department Gent, Belgium Helsinki University of Technology Construction and Production, Ghent University Degrieck, and O. Leroy, Ideal Liquid. with Mud in Between Hard Solid and P3G-7 tors. of the Q Values of RF-MEMS Resona- P3G-5 1 Gonzalez, Frequencies. cromanipulation of Particles at Low P3G-4 Matsukawa, Technique. terials using a Brillouin Scattering Elastic Constants of Polymeric Ma- P3G-6 Kaajakari Materials PhysicsMaterials Laboratory, O. Holmgren* The Interaction of Ultrasound On the Forces Acting in Mi- Direct Optical Measurement Estimation of the 3rd-Order 2 , A. Oja ,

Sint Pieternsnieuwstraat, Acustic Institute, CSIC Espoo, Finland

K. Kadowaki* and M. Doshisha University . . N. F. Declercq*, J. F. Perales* and I. , 2 , and J. V. Knuuttila

2 1

VTT Information , K. Kokkonen Soete Labo- . . 1 , V. 1

, , , ,

FEMTO-ST dept LCEP, ENSMM, 26 sity of Southern California les, CA Chemin de l’Epitaphe 25030 BESANCON Cedex of Ukraine Kyiv, Ukraine Research, National Academy of Science Ukraine conductor Physics, National Academy of Science Materials Physics V. Khivrich lated by Ultrasonic. Gamma-Irradiated n-Type Si Crystals, Stimu- P3H-6 Austria, Pang*, H. Zhang, and E. S. Kim, of FBAR for Oscillator Application. Study on Second Harmonic Response P3H-7 2 Scott nators. trical Characteristics of GaPO4 and LGS Reso- P3H-5 Dopeux, L. Delmas, and R. Bourquin, sion. Resonator Vibrating in Length Exten- ture Compensated Cut in GaPO4 Beam P3H-4 Piezocryst Advanced Sensorics GmbH, Graz, 3 , and G. Johnson The Mass-Loading Influence on Elec- F. Sthal*, E. Bigler, M. Becker, J. Rebuilding of Defect Structure in 3 Experimental Proof of Tempera-

I. Mateescu* Sawyer TechnicalMaterials Analytical and Experimental . 2

, and M. Kyiv, Ukraine . Pinkovska , 1

, C.Bran J. Olikh* Bucharest, Romania , 3

, Besançon, France ,

National Institute of Institute for Nuclear 2 ,

1 Institute of Semi- 1 , M., Tymochko , F. Krispel

Los Ange- ,

Conroe, TX Conroe, Univer- 2 , K. W. 1

. , , . ,

Laboratory Chiba, Japan Laboratory, Helsinki ness Laboratory, Chiba University pan Eng., Chiba University zerland Suwon, Korea Espoo, Finland P. Plessky 8522, Japan for Ladder and Notch Filters. on Leaky Substrates as Impedance Elements P3I-5 mance at 850 MHz. P3I-7 Beaudin, Hashimoto and M. Yamaguchi, Reflectors. Filters with Pitch-Modulated IDTs and P3I-6 SPUDTs. Constant Group Delay using Resonant P3I-4 . Use of Non-Synchronous Resonators Design of Low-Loss SAW Filters with SAW Band Reject Filter Perfor- , Operation Mechanism of DMS

3 Samsung Electro-Mechanics Co., Ltd 2,1 2

, and M. Yamaguchi , and S. S. Hong

H. Li* Nortel, Wireless T Nortel, , . 2

. Dept. Electronics and Mechanical , K. Hashimoto*, T. Omori,

. 2 GVR TradeSA 1

, J. Wen University of

Chiba-shi, 263-8522, Ja- C.-Y. Jian* and S. Chiba University 3 ,

1 2 Materials Physics Materials , T., Omori 2 , , J. Meltaus*

, Chiba-shi, 263-

Venture Busi-

Bevaix, Swit-

echnology Technology 2 , K. 1 , V.

, , ,

Delta Electronics, Inc. neering, I-Shou Universityneering, land Township,kaohsiung County, Taiwan Microtechnology of Applied Mechanics, National Taiwan wan R.O.C. T.-Y. Wu, T.-K. Shing*, and H.-K. Chen, ter Combining CRF with Lattice Filter. P3I-15 University Chen*, C.-M. Lin, and T.-T. Wu, ered Piezoelectric Substrates. InterdigitalFinger Transducers on Lay- Wide-Band SAW Filters Using Slanted P3I-13 C. Choi, Effects. SAW Filters Incorporating Packaging P3I-12 S. Rukhlenko*, Squares (WLMS) Technique. ters Using Weighted Least Mean P3I-14 . . Investigation of RF Ladder-type Single-To-Balanced BAW Fil- Design of SAW Bandpass Fil- A Novel Weighted Method for

S. Wang, I. Chen*, C. Tai, and Department of Electrical Engi-

, Taipei, Taiwan

, Neuchatel, Switzer-

Institute of Toyuan, Tai- . Alexander

Institute Dashu

Y.-Y.

Holon, Israel Yokohama, Kanagawa, Japan Institute of Technology São Carlos - Departamento de Física Grupo Technology Cerâmicas Ferroelétricas Brazil and M. Kurosawa de Ultrasónica H. Calas 3 M. H. Lente* Generation of Controlled Diffraction Ultrasonic Field. P3K-1 Kawashima Method Having Wide Directivity. Poly-Crystalline Film Deposited by Hydrothermal P3K-2 SAW correlator. P3J-4 Instituto de Cibernética Matemática y Física - Grupo Chair: M. Schafer, Sonic Tech , 2

Needle Type Miniature Hydrophone with PZT Seccion de Bioelectronica Field Induced Piezoelectric Transducer for

Super-wideband high bit-rate

, and E. Moreno TECHNOLOGY TRANSDUCER FABRICATION 1 , 1

, S. Takauchi*

, A. L. Zanin Yokohama, Kanagawa, Japan Session P3K

, La Habana, Cuba . 2 ,

1 Toin University of Yokohama

, Setagaya, Tokyo, Japan 1 Y. Abramov*, , D. Garcia 3 1 , , , E. Ohdaira

São Carlos, Paulo, Universidade Federal de ,

, CINVESTAV, Mexico .

2 Tokyo Institute of 1 , L. Leija H. Kitsunai 3

, M. Ishikawa , Soliton 2

, A. Vera

3 Musashi . 1 , N. 2 2

, , , , ,

University Laboratory, Univers trial and Medical Ultrasound, Applied Physics WA Midori-ku, YokMidori-ku, University kyo Institute of ku, Yokohama,JAPANKanagawa, of Washington Burgess Endoh Intraoperative Hemostasis. P3M-1 Band. sonic Transducer for 2 to 40 MHz Frequency P3L-4 Q. M. Zhang*, H. Zhang, Z. Q. Liang, Wang, and terned P(VDF-TrFE) Microdevices. P3L-3 Chair: C. Oakley, W. Gore, Inc.

2 TRANSDUCERS II Department of Bioengineering, University 2 Hydrothermal PZT Ultra- Thick Film , T., Hasegawa Thin-Profile HIFU Applicators for

Ink-jet Micro-Printing of Pat- M. Ishikawa*

1,2

, and S. Vaezy Session P3M of Yokohama

MEDICAL

ohama, Kanagawa, JAPAN University Park, PA

Seattle, WA

Technology

The Pennsylvania State ity of Washington 2 , and S. Takeuchi 1 ,

, M. Kurosawa Kurogane-cho, Aoba- 1,2 ,

1 . Center for Indus-

, V. Zderic* Nagatutamati, .

, Seattle, . 2 , , 1 2 1

, A. Toin

1 , S. To- S. 60

00 ..1:0am 10:00 a.m.–11:30 a.m.

Charlottesville, VACharlottesville, poration lands land, UK tre for Ultrasonic Engineering, Univer- sity of Strathclyde Ramadas* and G. Hayward, Transducers and Arrays. for Design Optimization of Ultrasonic P3M-5 Merks* Bladder VolumeAssessment. Transducer Concepts for Acoustic P3M-3 J. Hossack, ducer Array. Fully Sampled, Two Dimensional Trans- P3M-4 van der Steen 1 Performance. Arrays Showing Improved Thermal P3M-2 Erasmus MC , 2

A Knowledge Based Approach Comparison of Three Different 1 High Element Count (3600), ICIN , G. Matte Multilayer PZT Ultrasound ,

. Englewood, CO

, Utrecht, The Netherlands

, M. Eames*, S. Zhou, and University of Virginia

M. Zipparo*, Rotterdam, The Nether- 1,2 , and N. de Jong 1 , N. Bom .

, Glasgow, Scot-

. Tetrad Cor- 1

, A. F. W. The Cen- E. J. W. S. N. 1,2

, . ,

Montevideo, Uruguay Francia de Physique et Chimie and M. Fink Pérez Influence of Surface Roughness. poral Inversion in Chaotic Cavities: P3M-7 and P. Auclair, N. Felix*, R. Dufait, D. Voisin, S. Maitre, Endorectal and Transvaginal Imaging. Enhanced Diagnostic Accuracy in Integrated Multiplexing Solution for P3M-6 1 , C. A. Negreira Spatial Focalization using Tem- Biplane Ultrasound Arrays with . 2

, VERMON

1 Facultad de Ciencias ,

2 Ecole Superieure 1 , G. Montaldo*

, Tours - France

, Paris, N. 2 , , . Wednesday, September 21, 2005 POSTER PRESENTATIONS Expohal, Rotterdam 61 ORAL SESSIONS CONTINUE ON NEXT PAGE 62 1:0am–:0pm Wednesday, September 21, 2005 11:30 a.m.–1:00 p.m.

a.m. 11:45 a.m. 11:30

Southampton, Hants, UK tute of Sound and Vibration Research, University of Southampton Seas to Surgeries. 1I-1

Chair: N. de Jong, Erasmus MC CONTRAST AGENTS

(Invited) Bubble Acoustics: From FUNDAMENTALS Session 1I om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 T. Leighton*,

. Insti-

Philadelphia, PA Hospital K. Hynynen*, Conduction. sound to Temporarily Inhibit Nerve 2I-2 Wood, M. F. Lee, M. D . Feldman, and A. K. W. Sehgal*, S. Ansaloni, L. S. Zimer, W. Therapy of Mouse Tumors. 2I-1

Chair: K. Hynynen, Brigham and ULTRASOUND AND

The Feasibility of Focused Ultra- Ultrasound Induced Antivascular

THERAPEUTICS University of Pennsylvania ,

Women’s Hospital

Boston, MA Session 2I

V. Colucci, F. Jolesz, and Brigham and Women’s . . C. M.

Chang Gung University tute of Technology wan Technique. Zircaloy Based on a Laser Ultrasound Properties of Hydrogen-Charged 3I-1 Jackson, and X. Zhang, ties of Thin Materials. Measurement of Mechanical Proper- 3I-2

CHARACTERIZATION NDE MATERIAL AND Chair: R. Addison, Rockwell

. An Automated Instrument for the Characterization on the Material

Session 3I Scientific Co DEFECT C.-H. Yang*and Y.-A. Lai,

, Atlanta, GA ,

E. Lafond*, T.

Georgia Insti- Taoyuan, Tai-

Hamamatsu-shi, Shizuoka , Japan cow State University, Faculty of Phys- Shizuoka, Japan lets. Thermocycler for Small Liquid Drop- 4I-2 ics Zyryanova*, A. Korshak, V. G. otic Dynamics of Droplet Shape. of SAW-Induced Regular and Cha- 4I-1 2 Matsui Shiokawa

SAW&SPR-Tech FLUIDIC ACTUATION Chair: A. Lal, Cornell University

, Moscow, Russian Federation Observation and Interpretation Development of SAW J. Kondoh* 1 , M. Sugimoto

2 Session 4I ,

1 M.V. Lomonosov Mos- Shizuoka University Mozhaev, and A. V. . , 1

, N. Shimizu Hamamatsu-shi, 1 , and S. 1 , Y. . B.

, ,

Yokohama, Kanagawa, Japan ratories Ltd. Kanagawa, Japan tronics Co.,Ltd. and S. Oosawa, SAW Devices. for Analysis Distribution using Wigner 5I-2 Mitobe 5I-1 Ueda 2 Inoue* ture for 1 GHz RF-ID System. using Novel-Shape Apodized Struc- Fujitsu Media Devices Ltd.

Chair: R. Weigel, University of SAW FILTERS AND

Low-Loss SAW Filter on Li Balance Characteristics Studies TRANSDUCERS 1 1 , Y., Satoh 2

, T., Matsuda , and Y. Ebata Session 5I ,

Erlangen Akashi, Hyogo, Japan

T. Shiba*, T. IshizakiI, Hitachi Media Elec- . 1 1 , K. Wada , S., Matsuda 2 , ,

Fujitsu Labo- Yokohama, . 2 2 , S. 1 B , M. 4 O S.

7 , ,

Université F. Rabelais France plied Research Laboratory lege, PA nologies, Inc. Sonar Applications. Based Crystal Transducers for Naval 6I-1 Rehrig G. Feuillard, tals. erties in Piezoelectric Single Crys- and Multidomain Piezoelastic Prop- 6I-2 R. Meyer Chair: Y. Roh, Kyungpook National Relations between Single Domain Advanced Piezoelectric Single

T. Delaunay*, E. Le Clezio, and 1 TRANSDUCER . , X., Jiang

2 . MATERIALS

, and D. Markley Session 6I

University

State College, PA LUSSI GIP Ultrasons 1 , W., Hackenberger Rotterdam K. Snook* ,

2 EIVL Blois, , ,

TRS Tech- State Col- ,

1 2 Ap- , P. 1 , 63

p.m. 12:30 p.m. 12:15

p.m. 12:45 p.m. 12:00

Edinburgh, UK sity of Edinburgh

Enschede, The Netherlands Universität Bochum many 2 V. Sboros* using the Atomic Force Microscope. 1I-5 MC McDicken M. Moran Erasmus MC of Fluids mental Echocardiography, Thoraxcentre, Enschede, the Netherlands MC van der Meer* Jong M. Versluis 2 M. Emmer* cillations: Threshold and Hysteresis Effects. Induced Encapsulated Microbubble Os- 1I-4 sound. 1I-3 Buckling and Rupture. tions of Coated Bubbles Accounting for 1I-2 Schmitz

Physics of fluids, University of Twente Royal Infirmary of Edinburgh , ,

A Model for Large Amplitude Oscilla- Rotterdam, The Netherlands 2,1 Optical Investigation of Ultrasound

Creating Antibubbles with Ultra- Microbubble Nano-Interrogation Rotterdam, The Netherlands , S. Hilgenfeldt ,

, Enschede, The Netherlands M. Postema* 1 , and A. van Wamel 2 1 , and N. de Jong 1,2 1 2 , J. Ross

1 , and V. University , E. Glynos , J. Borsboom , 1

, M. Emmer Rotterdam, the Netherlands . 1 , and D. Lohse Koutsos 1 , , S. D. Pye 1

, N. de Jong Edinburgh, UK , 2 P. Marmottant , M. Versluis 1

1,2 , M. Butler Bochum, Ger- 1 , A. van Wamel

, of Twente

1 Dept. of Experi- , 1 . , 3

3 , Erasmus 1 1

, ,

Univer- Erasmus

, W.N. 1 Physics 1

1 Ruhr- 2,3 , N. de 1 . 1 , C. , G. , S. 1

, , , , , ,

souri bia University School of Medicine of Medicine G. Lanza, M. Scott, Hughes, S. Wickline, and J. Marsh*, A. Pan, G. Hu, K. Crowder, tive Perfluorocarbon Nanoparticles. Therapy Using Acoustically Reflec- 2I-4 and J. Greenleaf, Argadine*, R. Kinnick, M. Bolander, lates ATDC5 Chondrocytes. 2I-5 S. Small, and E. Konofagou*, cused Ultrasound. Alzheimer’s-Model Mice using Fo- ized Drug-Delivery in the Brain of 2I-3 1 kHz Low Power Sound Stimu- Feasibility of Transcranial, Local- Fibrin-Targeted Thrombolytic .

Washington University

Rochester, MN ,

New York,NY Mayo Clinic College J. Choi, M. Pernot,

, St. Louis, Mis-

. . Colum-

CNRS ton University Institute of T Berkeley National Laboratory Européen de Recherche Universitaire: Saarland- Universität des Saarlandes plications many

Lorraine Baum 2 O. Elmazria Brillouin Microscopy. 3I-6 2 scope. using a Laser Based Acoustic Micro- Mode Quasi-Resonance in Thin Plate 3I-5 T. Jackson and on a Budget: From Dream to Reality. Second in the Production Environment 3I-3 T. W.Murray Kolle

Université du Havre of Mechanics, of Mechanics, Tallinn d’Electronique LAUE UMR CNRS 6068,

nia F. Chati 1 Deposits on the Pipe Wall. 3I-4

Laboratoire de Physique des Milieux Ionisés et Ap-

Laboratoire Ondes et Acoustique, Laboratoire d’Acoustique Ultrasonore et . Microwave Induced Phonons Imaging by Laser Ultrasonics at Twenty Meters Per 1,2 . Guided Waves Attenuation Due to Experimental Evidence of S1 1 , D. Rouxel , X. Zhang , , 1

, F., Leon

Sarrebrücken/Nancy, Germany/France

C. Prada* Paris, France ,

1,2

Nancy, France echnology 1 , E., Lafond* , L. Le Brizoual 1 , 1 1,2 1 , A., Klauson

1 AME Department, Bos- AME Department, , and P. Alnot , and R. Russo ,

B. Vincent*

2,1 Le Havre, France , Tech. Univ.

, Atlanta, GA , O. Balogun 1

. , Boston, MA , P. Ridgway

, Saarbrücken, Ger- 1,2 M. El Moussaoui

, Rimentalphysik, 2

, L. Bouvot , and G. Maze* Berkeley, CA 1,2 1,2 ,

, J. K. Krüger , Tallinn, Esto- ,

Laboratoire , 2 Lawrence

1 Georgia , 1 , and 2

1,2 Dept. 2 , G. , M. . 1,3 1 1

, , ,

, ,

Ithaca, NY Engineering and Automation,Tianjin 54506 Vandoeuvre les Nancy, France Milieux Ionisés et Applications lic of China University Villeneuve d’Ascq, France LML UMR CNRS 8107 RAS DOAE – UMR CNRS 8520 Cité Scientifique - Av Poincaré, Villeneuve d’Ascq, France Ducloux* netostriction for Active Flow Control. 4I-6 Wang, and W. Yu, ing Fluid Directly. tor and Rotor of Ultrasonic Motor Driv- 4I-5 Alnot, L. O. Le Brizoual, Elmazria, and P. Surface Acoustic Wave. 4I-3 Preobrazhensky Chen* and A. Lal, Silicon Ultrasonic Horn Actuators. 4I-4 Cantilever Resonance Induced In Situ by Mag-

, 38, Vavilov street, Moscow, Russia Surface Liquid Droplet Motion on Effects of Fluid Medium on Sta- Microfuidic Device based on , 2

1 LEMAC / Wave Research Center - GPI- Laboratoire de Physique des , N. Tiercelin ,

. . Tianjin, People’s Repub- 1,2 , and A. Merlen 1

, Y. Deblock

Boulevard Paul Langevin, School of Electrical

. Cornell UniversityCornell ,

C. Xia*, B. Li, M. Ecole Centrale de Lille, 3 , D. Beyssen*, 1

1 LEMAC / IEMN- , P. Pernod ,

3 LEMAC / , 1

, V. X. F- O.

, .

EPCOS AG many pany of Maine 263-8522, Japan 8522, Japan and Technology, and M. Pereira da Cunha, Gratings. Finite Thickness Tranduction Efficiency on LGS using 5I-3 1 Structure. SAW Filters on a Cu-grating/15°YX-LiNbO sponses for Ultra-Wideband and Low-Loss 5I-5 J. Kim, Coupling Substrates. 5I-4 Bergmann, G. Kovacs, and K. Wagner, Spurious Modes. Basestation Applications without 5I-6 Matsuda Faculty Chiba University of Engineering, Suppression of Transverse Mode Re- Enhanced SPUDT Cells for High Low Loss Recursive Filters for , Improved Pure SHSAW

. Apopka, FL 2

, K. Hashimoto Sawtek Inc. A Triquint Com- ,

. Orono, ME T. Omori* ,

, Chiba University Munich, Bavaria, Ger-

2 Graduate School of Science . 1 , N., Yokoyama 1 , and Y. Yamaguchi . M. Mayer*, A. J. Galipeau* and

University T. Pollard* Chiba 263-

, Chiba 2 , K. 1

3 ,

Federale de Lausanne, Ceramics Sendai, JAPAN University University of Science ken, Japan Strathclyde Laboratory and G. Hayward, A. Troge, R. L. O’Leary, R. A. Pethrick, for Micr 6I-6 Anisotropic Properties. rating a Passive Phase Exhibiting electric Composite Arrays Incorpo- 6I-3 S. and H. Horiuchi, Nagata, Applications. Lead-Free Piezoelectric Resonator electric (Sr,Ca) 6I-4 P. Muralt, T. Morita* and Y. Cho, Deposited by Hydrothermal Method. taxial Lead Titanate (PbTiO 6I-5 Calotte PZT Thin Film Structures Bismuth-Layer Structured Ferro- Performance of Periodic Piezo- Piezoelectric Property of Epi- omechanics. , ,

2-1-1 Katahira, Aobaku,

Lausanne, Switzerland

Glasgow, Scotland, UK Ecole Polytechnique T. Takenaka*, Y.Hiruma, 2 Bi . 4 Ti 5 O , F. Calame* and

18 University of

RIEC. Tohoku Noda, Chiba- Ceramics for A. C. S. Parr*, 3

) Thin Film ) Thin Tokyo . . 64 23 ..40 ..Wednesday, September 21, 2005 2:30 p.m.–4:00 p.m.

p.m. 2:30

p.m. 2:45

New York,NY University Konofagou*, logical States. the Myocardium at Normal and Patho- 1J-1 tion of Myocardium. 1J-2 CARDIAC IMAGING Chair: J. Miller, Washington

In Vivo Viscoelasticity Estima- VivoIn Viscoelasticity Electromechanical Imaging of

QUANTITATIVE

, Session 1J Sendai, Japan University .

om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 Columbia University M. Pernot and E. H. Kanai*,

. Tohoku

sity sity of Washington of Bioengineering, University Washington sity of Washington Seattle, WASeattle, Ultrasound, Applied Physics Laboratory, Univer- and S. Vaezy Dumont, and G. Trahey, P. Wolf, B. Fahey, G. Pinton, D. Radiofrequency Ablations. Radiation Force Impulse Imaging of V. Zderic* Intraoperative Resection of Solid Organs. 2J-2 2J-1 Chair: L. Crum, University of ,

High-Throughput HIFU Treatment for

Durham, NC In Vivo MONITORING 1 , J. Foley ,

1,2 Session 2J THERAPY

3 Department of Surgery,Department Univer- ,

1 Washington Intra-Cardiac Acoustic Center for Industrial and Medical ,

, 1,2

Seattle, WA Seattle, WA

, G. O’Keefe . Duke Univer- , . 2

3 Department , L. Crum S. Hsu*, 1,2

, ,

Saarbruecken, Germany

Nondestructive Testing,IZFP vers. of Atomic Force Microscope Cantile- tion using Ultrasonic Vibration Modes 3J-1

Institute for Nondestructive Testing CHARACTERIZATION Chair: W.Fraunhofer Arnold, (Invited) Surface Characteriza-

U. Rabe*,

MATERIALS

Session 3J Fraunhofer Institute for .

nology of Southampton Electronics and Computer Science, University Science&Technology of Mechatronics, University Electronics Southampton N. M. White tion. 1 tor with 4J-2 Horn Structure. sonic Atomizer Based on a Liquid 4J-1 Degertekin, Degertekin, Varady, A. G. Fedorov, and F. L MICROFLUIDICS AND School of Engineering Sciences, University An Ultrasonic MEMS Particle Separa-

M. Hill*

A Silicon Micromachined Ultra- BULK EFFECTS Chair: J. Vig, US Army

, ULTRASONIC

Thick Film

Atlanta Session 4J 1 2 , N. R. Harris

, S. P. Beeby

Georgia Institute of Tech- Southampton, U K

, Southampton, U K . ,

J. M. Meacham*, Chengdu, China Piezoelectric Actua- 2 , R., J. Townsend 2 , and J. Ding ,

2 School of ,

3 School 3 1

, ,

Infineon TechnologiesAG Germany many for Electronics Engineering, Univer- Bavaria, Germany sity of Erlangen-Nuremberg of the Active Area. nators Using an Appropriate Shape in Mirror-Type Thin Film BAW Reso- 5J-2 Schmidhammer K. Wagner Marksteiner, J. Kaitila, and R. Aigner, BAW Resonators. sion for High Performance Thin Film 5J-1 Schmiedgen BAW RESONATOR Chair: E. Schmidhammer, Suppression of Spurious Modes Optimization of Acoustic Disper-

. DESIGN AND

ANALYSIS Session 5J

2 2 EPCOS AG , and R. Weigel 2 , M. Mayer EPCOS 2 , H. Heinze . G. Fattinger*, S.

A. Link* Munich, Ger- 2 , B. Bader , 1

, , Erlangen,

1 Munich, Institute 2 1,2 , M. , E. 2

ington University in St Louis Louis, MO Norway M. Holland, and K. Wallace, Harmonic Field. Apodization and the (Nonlinear) 2f Effective Two-DimensionalRealized (Linear) 2f Field Transmitted with Fully 6J-2 Informatics, University of Oslo Austeng, and S. Holm, trasound Imaging. Beamforming Applied To Medical Ul- 6J-1 BEAMFORMING II Experimental Comparison of the Chair: K. Thomenius, GE MinimumAdaptive Variance

. Session 6J . J. Miller*, T. Krueger, J. Synnevaag*, A.

Rotterdam Department of

Wash-

Saint Oslo, 65 p.m. 3:00 p.m. 3:15

p.m. 3:45 p.m. 3:30

Bothell, WA Leuven Physics Medical Center, Nijmegen, The Netherlands Brabant, The Netherlands UMC St Radboud ment of Vascular Surgery Center, Nijmegen, The Netherlands Medical Center Ribbers* Elastography of the Carotid Artery. 1J-6 Netherlands Vosse C. L. de Korte 1 A Feasibility Study. Shiley Valve using Diagnostic Ultrasound: 1J-5 and P. Hoskins Criton* Imaging Based on Vector Doppler. 1J-4 J. D’hooge, Bouakaz Coenen, M. Wu, F. Rademakers Normal Pigs. Circumferential Cardiac Strain in sessment of Radial, Longitudinal and 1J-3 Eindhoven Univ Detecting Broken Struts of a Björk- The Ultrasonic Non-Invasive As- Non-InvasiveDimensional Two Multi-Dimentional Strain Rate 1 , A. van der Steen 1 1,2 3 , , S. Holewijn , E. Vlaanderen ,

, J. Powers

Leuven, Belgium Edinburgh, UK ,

3 1 Inserm ,

, ,

ersity of Rotterdam, Zuid-Holland, The

2 1 Catholic University of

Clinical Physics Laboratory, Department of Medical Radboud University Medical 1 , S. Langeland*, 2

, 1 , J. D. Blankensteijn

Philips Ultrasound

Tours, Cedex, France Technology 2 , , , J. de Hart 1

P. vanNeer*

Radboud University 2 2 , N. McDicken Erasmus University , and N. de Jong . .

, Eindhoven, 1 , , F., van de

2 Depart- 1 , and 2 1 , and , A. . A. H. 2 . 2

, , ,

Bundesanstalt many sity Corporation Indianapolis, IN Nuremberg, Germany K. A. Dines Germany Strobel 1 Prostate HIFU Therapy. 2J-6 ingale, K. Frinkley*, M. Palmeri, and Night- cial, Diagnostic Ultrasound System. Heating Patterns Using a Commer- 2J-5 ing Thermal Therapies. 2J-4 Wilkens*, Thermoacoustic Sensors. trasound Systems using ties of Multiple-Mode Diagnostic Ul- 2J-3 H. Ermert Scheipers Seip Focus Surgery, Inc. ,

1 Indianapolis, IN A Classification System for Monitor- , R., F. Carlson Automatic Treatment Planning for Measurement of Output Intensi- Controlled Spatio-Temporal . 2

, C. Welp Duke University 1 , , 1

Ruhr-University Bochum , J. Haensler , University Erlangen-Nuernberg

2 Indianapolis, IN

, M. A. Penna Physikalisch-Technische . 1 , , J. Werner 1

, W., Chen , Braunschweig, Ger-

, Indianapolis, IN .

4 CoEval 2 , M. Frieser , R. Fedewa* S. Siebers* , 3

, and R. Pfile 1 3 Durham, NC

, N., T. Sanghvi , E. Hahn Indiana Univer- Systems LLC

, , Bochum,

2 XDATA 2 , and 2 1 1 , D. , R. , U. V. 4 1

. , , , ,

University of Nottingham et Acoustique of Nottingham UK Louvain Leuven, BELGIUM Ivchenko, R. Challis, and A. Holmes, cess Monitoring. Variation in Ultrasonic Chemical Pro- 3J-5 Besancon, FRANCE Prada, and M. Fink, tic Cylinders. tive Characterization of Small Elas- versal Operator Applied to Quantita- 3J-4 Resonance. Acoustic Love Wave and Surface Plasmon Thin Films Probed by Combined Surface 3J-3 Sharples, and M. Somekh, J. A. Hernández*, M. Clark, S. Metals from Ultrasonic Aberrations. 3J-2 and S. Ballandras . Thickness and Viscosity of Organic Decomposition of the Time-Re- Compensation for Temperature Statistical Characterization of

, Louvain-la-Neuve, BELGIUM J.-M. Friedt* ,

Paris, France . Nottingham, UK J. G. Minonzio*, C. , 1

, Université catholique de A. Kalashnikov*, V.

Laboratoire Ondes FEMTO-ST/LPMO 1 , L. A. Francis

Nottingham, University . ,

. IMEC 2,3

, , ,

Ithaca, NY nia State University A. Lal, Beam Resonators. Launched by Surface Micromachined 4J-6 Long Beach Araz* and A. Lal, Zeta Potential Measurement. Microchannels using Microparticle tion Pressure Field inside 4J-4 3 Horn Nozzles. Based High-Frequency Multiple-Fourier 4J-3 and C. S. Tsai* A. Gupta, and P. Eklund, (SWNTs). Single Wall Carbon Nanotubes Cut Quartz Crystal Resonators using 4J-5 Chou National TaiwanUniversity Ultrasonic Atomization Using Silicon- 3 Bulk Detection of Sound Waves

Improvement in Q-factor of AT-

Calibration of Acoustic Radia- , J., H. Cheng Cornell University Cornell , . A. Goyal*, S. Tadigadapa,

2 University of California 2,3 S. C. Tsai ,

1 California State University, 3

, N. Wang Cornell University Cornell , S. Ardanuc* and

1 University Park University , Y., Song L.

, Taipei, TAIWAN , 2

, Y., Huang C.

Ithaca, NY Pennsylva- ,

2,3 Irvine , Y.F. M. . 2

. . , , , ,

Piscataway, NJ Rutgers University ST, CNRS and M. Patel, Resonators. for the Vibrations of Piezoelectric 5J-6 lithic Filters. 5J-5 fornia and A. P. Pisano, Stephanou, J. P. Black, R. M. White, Technology. num Nitride Contour-Mode and FBAR RF Microresonators based on Alumi- 5J-4 N. Bazin, and S. Ballandras, Gachon, W. Daniau, B. Guichardaz, J. Masson, L. Robert, N. Ratier, D. S. Alzuaga*, J.-M. Friedt, N. Vercelloni, Bulk Acoustic Resonators (H-BAR). Measurements of High-Overtoned 5J-3 An Isoparametric Spline Method Finite Element Analysis of Mono- Single-Chip Multiple-Frequency Simulation and Experimental

, Berkeley

, Besançon, France S. Srivastav M. Patel*and Y.-K. Yong,

G. Piazza*, P. J.

. .

Rutgers University

, University of Cali- Piscataway, NJ

a*, Y.-K. Yong, FEMTO- . .

Briarcliff Manor,Briarcliff NY Champaign quency Engineering, Ruhr-University sity of Virginia Bochum Ranganathan* and W. Walker, Ultrasound System Design. Based Resolution Metric to Guide 6J-3 Insana, poral Filtering. 6J-5 and H. Ermert, M. Ashfaq, C. Hansen*, W. Wilkening, Synthetic Aperture Reconstruction. Harmonic Images and Monostatic 6J-6 M. Burcher, for Speckle Signals. FDORT: Insights and Improved Method 6J-4 Spatial Compounding with Tissue Application of a Cystic Contrast Beamforming Using Spatio-Tem-

Aberration Estimation using University of Illinois at Urbana

, Bochum, Germany

Urbana, IL Philips Research USA ,

J. Liu*, K. Kim, and M.

Institute of High Fre- Charlottesville, VACharlottesville, . J.-L. Robert* and .

. Univer- K. . , 66 43 ..60 ..Wednesday, September 21, 2005 4:30 p.m.–6:00 p.m.

p.m. 4:30

p.m. 4:45

MC, Rotterdam, The Netherlands Rotterdam, The Netherlands ment of Bioinformatics of Cardiology partment Rotterdam, The Netherlands ment of Thoracic surgery the Netherlands Erasmus Medical Center University Medical Center lands P. van der Spek A. Koning Voormolen 4 for 4D Cardiac Ultrasound. Automatic Endocardial Border Detection Method 1K-2 Reality. in Virtual 1K-1 J. H. C. Reiber T. Lancée M. van Geuns University of Twente

A Novel Dynamic Programming Based Semi- Chair: T.Siemens Thomas, ,

2 3D/4D CARDIAC Dynamic 3D Echocardiography ICIN, Interuniversity Cardiology Institute of 1 , N. de Jong 1,2

, G. van Burken

2 Session 1K 1

, J. McGhie

2,3 , E. Angelié IMAGING ,

, and J. G. Bosch Utrecht, The Netherlands om1Ro om3Ro om5Room 6 Room 5 Room 4 Room 3 Room 2 Room 1 2 ,

, and A. Bogers Enschede, The Netherlands 1,4 , A. F. W. van der Steen A. van den Bosch* , ,

3 Leiden, The Netherlands Rotterdam, The Nether- , R. J. van der Geest 1,3 M. van Stralen* , B. J. Krenning 1

, F. Meijboom ,

Erasmus MC, Erasmus MC, 1,3 ,

, Thoraxcenter,

, Erasmus

Depart- depart- , 3 1,3

3 , Leiden , M. 1

, R. J. 1

. De- 3 , C. 1,2 1 1

, , . , ,

lis, MN Department of Radiology,Department and Brigham University of Minnesota Women’s Hospital, Harvard Medical School Surgery. Transcranial Focused Ultrasound Deposition in The Skull During Sonication For Reducing Thermal 2K-2 Shrestha*, H. Yao, and E. S. Ebbini, the Treatment of Breast Cancer. 2K-1 Chair: T. Matula, University of An Integrated HIFU System for A Numerical Study of Pulsed

CAVITATION

Boston, MA Session 2K X. Yin and K. Hynynen*, Washington .

, Minneapo-

Lausanne, Switzerland Kanagawa, Japan Japann Printing Balzers versity Lausanne, Ceramics Laboratory Sim sional Metal Dot Array. vice using Diffraction by a Two Dimen- 3K-1 Mermet* Sensing of Organic Films. Operating at 8 GHz for Gravimetric 3K-2 1 Atsumi

ACOUSTIC SENSORS Ecole Polytechnique Fédérale de 3 , and K. Chair: J.Kushibiki, Tohoku Beam Splitter for Ball SAW De- Bulk Acoustic Wave Resonator ,

1 Sendai, Miyagi, Japan , , , N. Nakaso ,

Kitakatsushikagun, Saitama, Balzers, Liechtenstein

, R. Lanz Session 3K

Yamanaka

3 Ball Semiconductor University . 2 2 , and P. Muralt , S., Akao 1 , T. Mihara*

1 Tohoku Uni- , , 2 S. Rey-

Unaxis 2 Toppan , D. Y. . 1 , K. 1 , , ,

Palmer, ducers. Electromagnetic Acoustical Trans- ticle Velocity Measurement using 4K-2

Saratov, Russia tute of Radio Engineering and Elec- University sity tronics of RAS, Saratov Branch Plates. Piezoelectric in tic WavesThin perature Coefficient Delay of Acous- 4K-1 S. Joshi ,

In-Plane and Out-of-Plane Par- New Method of Change in New Method of Change Tem- Milwaukee, WIMilwaukee,

Chair: M. Fink, ESPCI- ACOUSTICS III Universite-Paris VII

I. Kuznetsova* X. Jian*, S. Dixon, and B.

University of Warwick

, and A. Kuznetsova

Session 4K PHYSICAL

, Saratov, Russia ,

2 Marquette Univer- ,

3 Saratov State 1 , B. Zaitsev . 3 , ,

Insti- UK . 1

, ,

P.O.B. 1207, 02044 VTT, Finland rials, Helsinki Universityrials, of Technol- Michigan ogy Mattila lator. chanical Bulk Acoustic Wave Oscil- 5K-2 Oja M. Koskenvuori 2 and C. T ter. chanical Hollow-Disk Ring Mixer-Fil- 431-MHz Notch-Coupled Microme- 5K-1

Micronova and Center for New Mate- MICROMECHANICAL Chair: D. Hauden, FEMTO-ST/ , 1 S.-S.Li*, Y.-W. Lin, Y.Ren, Z. Xie, ,

Small % Bandwidth Design of a Espoo, Finland Low Noise Silicon Microme-

1 V. Kaajakari* RESONATORS

1 VTT Information Technology , P. Rantakari

.-C. Nguyen,

Session 5K

Ann Arbor, MI AND SAW LPMO 2 , I. Tittonen 1 , J. Koskinen . 2

, J. Kiihamäki University of . 2 , and A. 1 , T. 1

, , ,

U619 versity of Minnesota MN Tranquart, and L. Pourcelot, Global Movement. the Extraction of Fetal Heart Rate and Component Analysis: Application to nals in Pregnancy using Independent 6K-1 D. Liu*, H. Lee, and E. S. Ebbini, of Tissue Engineered Heart Valves. Design for High Frequency Imaging 6K-2

Chair: W. Walker,of University

PROCESSING AND . MEDICAL SIGNAL

Waveform Synthesis and Filter

, Separating Fetal Doppler Sig-

Tours, France

CONTRAST Session 6K Virginia . A. F. Kribeche*,

Rotterdam

Minneapolis,

INSERM Uni- 67 p.m. 5:00 p.m. 5:15

p.m. 5:45 p.m. 5:30

Trondheim, Norway sity tute University of trasound lands Netherlands The Netherlands Twente Institute of the Netherlands Jong T. Lancée Voormolen* lar Function from 3D-Echocardiography. 1K-6 C. Poulsen* for 3D Ultrasound Freehand Scanning. 1K-5 3 Sampling and Multibeat Fusion. polation for 3D Echocardiography with Irregular 1K-4 and N. de Jong Roelandt Szabo Rabben Haugen van Stralen T. Lancée Echocardiography. 1K-3 LUMC , 1,2

Improved Spatiotemporal Voxel Space Inter- Efficient Quantification of the Left Ventricu- .

, Boston, MA Real Time Volume Stitching in 4D An Optical Registration Method

Worcester, MA , ,

1 Enschede, The Netherlands 2

Leiden, The Netherlands Thoraxcenter, Erasmus MC 1 , 1 1 , A. F. W. van der Steen , J. H. C. Reiber , W. B. Vletter 2 2 2,3 ,

1 , E. Steen

1,2 , and H. Torp Worcester Polytechnic Insti- , M. Voormolen

, , B. J. Krenning Norway Horten,

2 ICIN 1,4 ,

1 , Science and Technology

, P. Pedersen 2 ICIN, Interuniversity Cardiology

1 Erasmus MC

, Utrecht, The Netherlands . 1 3,2 , F. J. ten Cate , 2 , A. F. W. van der Steen , G. Haugen ,

, 1 Ul- GE Vingmed

S. Brekke* Utrecht, The Nether- , R. J. van Geuns 2

1,2 Boston Univer- 1 , B. J. Krenning , , J. G. Bosch*

. Rotterdam, The 1

, . Norwegian

1,2

4 University of , 1 , and N. de

1 , and T. Rotterdam, , J. R. T. C. 1 2 M. 1,3 , S. , A. 1 1 , M. , C. , C. 1,2

, , ,

Center for Industrial and Medical Ul- Brigham and Women’s Hospital, Kokubunnji, Toky versity of Washington tral Research Laboratory, Hitachi Ltd. trasound, Applied Physics Laboratory, Harvard Medical School WA University of Washington Produced in 2K-6 2 Vykhodtseva, and K. Hynynen, tation. sound: Association with Inertial Cavi- Brain Barrier with Focused Ultra- 2K-4 I. Kawabata, and S.-I. Umemura, Ultrasound. Caused by High Intensity Focused Detection of Irreversible Changes 2K-3 Luo S. Vaezy* Potential Solution using Cavitation. Region: A Safety Concern, and a Tissue-Air Interface in the Post-focal 2K-5 sels with Optison Brayman, T. Matula*, and L. Crum, Mirabilis Medica 1 . , F. Starr Targeted Disruption of the Blood- Thermal Effects of HIFU at Soft Quantifying Inertial Cavitation Radiation Force Imaging for 1 , V., Zderic N. McDannold*,

T. Azuma*, K. Sasaki, K.-

1 In , and A. Lebedev

Vivo

, ® o, Japan

. Seattle, WA J. Tu,J.A. Hwang, Rabbit Ear Ves- 1 , J. Foley ,

Seattle, WA Boston, MA .

, Seattle, 2 , .

1 1 Cen-

, W. Uni-

, . ,

University ST/ Dep LCEP emens AG Rotterdam, The Netherlands Enschede, The Netherlands Echocardiography, Thoraxcentre, Erasmus MC B.V. D. Lohse Wijshoff Moose, and A. Niessner, Process. for the Semi-Solid Metal Working 3K-5 Quartz Sensor. 3K-4 J. de Jong* Air Entrapment in Piezo-Driven Inkjet Printheads. 3K-6 2 Schreiter, M. Link, R. Primig, D. Pitzer, and Bulk Acoustic Resonator. and Material Strains using a Thin Film 3K-3 Bourquin FIE-UVT

, Venlo, The Netherlands Acoustical and Optical Characterization of Ultrasonic Sensor Development Dual Mode, Multiple Electrodes Sensor for Ambient Pressure 2 , M. Versluis 1 ,

1 Physics of Fluids, University Twente 1 1 , , H. Reinten , and B. Dulmet , B. Tittmann*, M. Huang, C.

, Corporate Technology,Corporate Si- Targoviste, Romania

University Park, PA Muenchen, Germany 1

, G. de Bruin

, Besancon, France 2 , M. van den Berg A. Ivan* . ,

, Dept. of Experimental

2 Océ Technologies 1 , N. de Jong

1 Penn State , J. Weber*,

1 FEMTO- 1,2 . . , R. . 3 , and 2 , H.

, , ,

France Acoustique, Université Paris 7 CNRS 8520 Japan University 6068 Valencia, Spain University Politecnica de Valencia and I. Jean-Louis Beams. Axisymmetric and 3D Nonlinear 4K-6 ber Ultrasound Beams. Nonlinear Variation in Low-Fresnel-Num- 4K-5 Rough Interface. 4K-3 D. Royer J. Cruañes Jacob tic Radiation Strains in Solids. 4K-4 Hladky* Espinosa Strong On-Axis Focal Shift and Its , Decoherence of Lamb Waves by Optical Measurement of Acous- 1 Numerical Methods for

, R., Takatsu . Le Havre, France , 2 2 G. Pinton* and G. Trahey, , V., J. Sanchez-Morcillo* , D. Leduc

2 , , and F. Camarena Doshisha University ,

1 Moscow, Russia

, Durham, NC , .

Laboratoire Ondes et Lille, France 1 , 1,2 1

1 B. Morvan , C. Barrière* LAUE UMR CNRS , M. Bavencoffe

, Grao de Gandia, Y. N. Makov 2 , . , ,

1 2

Moscow State

. IEMN UMR 2 Universidad 2 , J. Ramis , 1 ,

, A.-C.

Kyoto, Paris, 1

, and Duke 1 , V. X. 2 2

, ,

Besancon, France Delhi, India. Besançon, France Astrophysics, University of Delhi. de Franche-Comté, Institut FEMTO-ST Research Institute of (UMR 6174), Département LPMO Sreenivas, Dewan*, M. Tomar, V. Gupta, and K. Film for Zer tic Constants of Sputtered TeO2 Thin 5K-5 munications Laude, and S. Ballandras, tors on Silicon Wafers. Interface Acoustic Waves Resona- 5K-4 5K-6 Ballandras, W. Daniau, V. Laude, and S. Vercelloni, R. Boudot, B. Guichardaz, Friedt*, S. Alzuaga, N. Ratier, bility Source Applications. Resonators for Filters and High Sta- SAW Manufacture. 5K-3 Temperature Coefficient of Elas- Nanoimprint Lithography for RF

Design of Asynchronous STW

Low Temperature Bonding of Department of Physics and ,

o TCD SAW o TCD

Wuhan, Hubei, China FEMTO-ST/LPMO . .

W. Liu*, Post &Telecom- H. Majjad*, V.

Devices.

Université Wuhan J.-M. N. .

, , ,

sity gian University of Science and Tech- neapolis, MN nology Physics Laboratory, Universityof Washington for Industrial and Medical Ultrasound, Applied Seattle, WA University of Washington Trahey, and S. W. Smith, M. Ivancevich, C. G. Keen, E. using Speckle Targets. erration with 1.75-D and 2-D Arrays 6K-3 Ebbini*, forms. Imaging with ChirpTransmit Wave- 6K-5 Zderic* ing Detection and Acoustic Hemostasis. 6K-6 Måsøy, monic Imaging. 6K-4 ,

Ultrasound Contrast Agents for Bleed- Durham, NC Phase Correction of Skull Ab- Quadratic B-Mode (QB-Mode) Aberration and Second Har- 1 , , L. Crum

D. Cecchini, H. Yao, and E. S.

Trondheim, Norway and B. A. Angelsen, University of Minnesota ,

2 Department of Bioengineering, . 1,2 , and S. Vaezy . T. Varslot*,S.E.

, Seattle, WA

J. J. Dahl*, N. Duke Univer- . 1,2

, Norwe- 1

, Center

. Min- V. , ALL AUTHOR INDEX

Please Note: The Author Index is created directly and automatically from the abstracts. If an author’s name is typed differently on multiple abstracts, the entries in the author index will reflect these discrepancies.

Aase, S., ...... P3A-2 Aroyan, J. L., ...... 4D-4 Abbott, B., ...... 5H-4 Ashfaq, M., ...... P3D-2, 6G-1, 6J-6 Abbott, B. P., ...... P2H-7 Ashkenazi, S., ...... 2C-4 Abe, T., ...... P1E-4 Aspar, B., ...... 5H-5 Abramov, Y., ...... P3J-4 Assouar, B., ...... 5H-3 Abrar, A., ...... P2F-2 Assouar, M. B., ...... 5B-2 Acton, S., ...... P3E-5 Atalar, A., ...... P2K-6, 6E-5, P2K-10 Adachi, M., ...... P3J-1 Atsumi, K., ...... 3K-1 Adam, D., ...... 1H-4 Aubry, J., ...... 1E-4 Adamus, J., ...... 2B-4 Auclair, P., ...... P3M-6 Adibi, A., ...... 4A-3 Austeng, A., ...... P1C-4, 6J-1 Aglyamov, S., ...... 1B-3 Azuma, T., ...... P2C-2, 2K-3, 2E-4, 2F-6 Aglyamov, S. R., ...... 2D-6 Aigner, R., ...... 5J-1, 5C-4 Baddour, R., ...... 2H-5 Aitomäki, Y., ...... 3G-4 Baddour, R. E., ...... P2A-3 Akano, Y., ...... P1I-6 Bader, B., ...... 5J-2 Akao, S., ...... P2H-8, 3F-1, 3K-1 Bahr, R., ...... 3B-6 Akhmedzhanov, F. R., ...... 4B-6 Bahr, D., ...... 6H-4 Alastalo, A., ...... P1K-4 Bahr, L., ...... P2A-7 Allen, J. D., ...... 1F-1 Bakulin, E., ...... PS-8, 3H-5 Alme, K. J., ...... P3F-5 Balashov, S. M., ...... P3I-9 Al-Mistarihi, M., ...... P2B-2 Baldewsing, R. A., ...... 1C-3, 1C-4 Almqvist, M., ...... P1L-1, P1L-2 Baldwin, S., ...... PS-2, 2H-1 Alnot, P., ...... 3I-6, 4I-3, P3I-11 Ballabriga, C., ...... P3F-3 Alzuaga, S., ...... 5J-3, 5G-5, 5K-6 Ballandras, S., .. P2K-8, 3J-3, P3F-8, 5F-2, Amararene, A., ...... 2H-4 5J-3, 5F-4, 5K-4, 5G-5, 5H-5, 5K-6, Amini, R., ...... P1H-1, P1H-6 6C-1, 6H-1, 6H-2, P3I-11 Amirian, J., ...... 1B-3 Ballato, A., ...... P3H-3 Ammi, A. Y., ...... 1H-1 Balogun, O., ...... 3I-5 Amu, O., ...... 3F-5 Bamber, J., ...... P1B-5, 2A-5 Amundsen, B. H., ...... P3D-7 Bambi, G., ...... 2B-3 Ancey, P., ...... PS-10, P2G-4, 4H-3, 4H-4 Banerjee, M., ...... 1A-4, 1H-6 Anderson, D., ...... P3B-1 Banfield, D., ...... P2K-5 Anderson, M., ...... 6H-4 Barkmann, R., ...... P3C-5 Anderson, T ., ...... P2B-4, P3B-1 Barrière, C., ...... 4K-4 Ando, K., ...... P2C-2 Bartlett-Roberto, J., ...... 4F-5 Andresen, H., ...... P3A-3 Basrour, S., ...... 6H-1 Angelié, E., ...... 1K-2 Bastien, F., ...... 5G-5 Angelsen, B., ...... P3A-1 Batifol, C., ...... P1M-7 Angelsen, B. A., ...... 6K-4 Battault, R., ...... 3G-1 Ansaloni, S., ...... 2I-1 Bauer, T., ...... 5D-3 Antonov, S., ...... 4B-1 Baum, G., ...... 3I-3 Aota, Y., ...... 5D-5 Bavencoffe, M., ...... 4K-3 Aoubiza, B., ...... 4A-3 Bayram, B., ...... 6E-6 Aoued, F., ...... 2E-1 Bayram, C., ...... P2K-10 Aoyagi, M., ...... P1H-7 Bazin, N., ...... 5J-3 Aoyama, T., ...... 6F-6 Beach, K., ...... 2E-6 Arai, S., ...... P2F-4 Beard, P., ...... P2C-13 Arakawa, M., ...... P1G-2, 3H-6 Beaudin, S., ...... P3I-7 Araya-Kleinsteuber, B., ...... 3A-1 Becker, M., ...... P3H-4 Araz, M., ...... PS-11, 4J-4 Beeby, S. P., ...... 4J-2 Arbeit, J., ...... 2F-1 Belgacem, B., ...... 6D-4 Ardanuc, S., ...... 4J-6 Belgroune, D., ...... 3H-4 Ardid, M., ...... P1G-12 Belleval, J. F., ...... 3H-4 Argadine, H., ...... 2I-5 Benchabane, S., ...... 4A-4, 5H-3 Arias-Mendoza, F., ...... 6G-2 Benech, N., ...... P1B-3 Aristizábal, O., ...... 6A-4, 1D-1, 2G-2 Benenson, Z., ...... P3E-3

68 Benetti, M., ...... P2H-5 Bretz, N., ...... 6F-2 Bennès, J., ...... 5G-5 Bridal, S. L., ...... 1H-1 Bennett, J., ...... P1G-7 Briot, J.-B., ...... 5H-5 Bercoff, J., ...... 1G-6 Brown, A. S., ...... 2F-4 Berg, S., ...... P2K-9 Brown, J., ...... 6A-6 Bergman, D., ...... 4F-5 Bruhns, O. T., ...... 1G-4 Bergmann, A., ...... 5I-6 Brungot, J., ...... 3F-2 Berkenpas, E., ...... 3A-4 Brush, E., ...... 2C-5 Bernstein, R., ...... 3F-2 Brusseau, É., ...... 1C-2 Berriet, R., ...... P2K-8 Budimir, M., ...... P2J-4 Berthelot, P., ...... P3F-8, 6H-2 Bulletti, A., ...... 3D-1 Bevan, P. B., ...... 2G-5 Burcher, M., ...... 6J-4 Bevan, P. D., ...... 1H-2, 1A-4 Burgess, S., ...... P3M-1 Beyssen, D., ...... 4I-3 Burgholzer, P., ...... 3B-1 Bezdek, M., ...... 3G-3 Burns, P., ...... 1H-6 Bhave, S., ...... 4H-1 Burns, P. N., ...... 1H-2, 1A-4 Bhethanabotla, V., .... PS-15, P1F-8, 3F-4, Butler, M., ...... 1I-5, P2B-4, P3B-1 5D-4 Button, T., ...... P1L-4 Biard, M., ...... P3E-6 Buzanov, O. A., ...... 4H-2 Biasse, B., ...... 5H-5 Bymaster, B., ...... 6D-1 Bigler, E., ...... P3H-4 Bijnens, B., ...... P1B-2, 2B-2 Cai, Y., ...... P1H-2 Billard, C., ...... 5A-2 Cain, C., ...... P2C-8 Bin, L., ...... 3G-5 Calame, F., ...... 6D-4, 6I-6 Bin, W., ...... 3D-2 Calas, H., ...... P3K-1 Bini, F., ...... P2J-1 Caliano, G., ..... 4F-3, 6D-3, 6C-6, P2K-11 Biryukov, S. V., ...... P2I-4 Callé, S., ...... P1M-7 Bjåstad, T., ...... P3A-2 Camarena, F., ...... 4K-5, P1G-12 Bjaerum, S., ...... P1A-2 Cannata, J., ...... P3L-2, 6A-2, 6A-5 Bjurström, J., ...... 3A-3, 5C-2 Cannata’, D., ...... P2H-5 Black, J. P., ...... 5J-4 Cantoni, M., ...... 5C-5 Blalock, T., .. P1D-1, P1D-5, P1E-5, 2C-5 Capineri, L., ...... 3D-1 Blankensteijn, J. D., ...... 1J-6 Cardoso, G., ...... 3E-1, 3E-4 Blaquière, G., ...... 1C-1 Carlson, J. E., ...... PS-9, 3E-5 Blind, ...... P., Carlson, R. F., ...... 2J-6 P2K-8 Caron, P., ...... PS-5, 1G-1 Blom, T., ...... P1L-2 Caronti, A., ...... 6D-3, P2K-11 Blomberg, A., ...... P1C-4 Carotenuto, R ., ...... 4F-3, P2K-11 Blondeau-Patissier, V., ...... P3F-8 Carpentier, J.-F., ...... 5A-2, P2G-4 Blystad, L.-C., ...... 3B-6 Carradine, C., ...... 1D-5 Boctor, E. M., ...... P2C-7 Caruyer, G., .... PS-10, P2G-4, 4H-3, 4H-4 Boeshore, S., ...... P1L-8 Casanova, N., ...... P2G-4, 4H-4 Bogers, A., ...... 1K-1 Casas, M., ...... P2E-6 Bograchev, K., ...... P3D-3 Casciaro, E., ...... P2A-2, P3B-6 Bolander, M., ...... 2I-5 Casciaro, S., ...... P2A-2, P3B-6 Bom, N., ...... P3M-3 Caskey, C., ...... 1H-3 Boni, E., ...... 2G-4 Catheline, S., ...... P3G-3 Booi, R., ...... PS-5, 1G-1 Cattan, E., ...... 6H-1 Borsboom, J., ...... 1I-4, 2G-6 Cavallier, B., ...... 6H-1, 6H-2 Bosch, I., ...... P2E-7 Cecchini, D., ...... 6K-5 Bosch, J. G., ...... 1K-2, 1K-4 Cenkeramaddi, L. R., ...... 1E-3 Bossy, E., ...... P3C-3 Certon, D., ...... P2J-2, P2K-4, 6C-3 Bouakaz, A., ... P1E-1, 1A-2, 1J-5, P1E-7, Chávez, J. A., ...... P3F-3 P3A-6 Chagla, F., ...... 4D-3 Bouchard, R., ...... 1F-2 Challis, R., ...... 3J-5 Boudot, R., ...... 5K-6 Chandrahalim, H., ...... 4H-1 Bourquin, R., ...... 3K-4, P3H-4 Chandrana, C., ...... 4G-3 Boutkedjirt, T., ...... P2E-1 Chang, I. C., ...... 4B-3 Bouvot, L., ...... 3I-6 Chang, P. Z., ...... P2G-6 Bowman, R., ...... P2F-2 Chao, M. K., ...... P2G-6 Bozkurt, A., ...... P2K-3 Charlot, B., ...... 6H-1 Bozzato, A., ...... 6G-1 Charnaya, E. V., ...... 4D-1 Bran, C., ...... P3H-5 Chati, F., ...... 3I-4 Branch, D., ...... PS-15, 5D-4 Chavez, J. A., ...... P1G-4 Brand, S., ...... 2H-6 Cheikhrouhou, F., ...... 6C-4 Braun, R., ...... 5A-3 Chen, C., ...... 4C-5 Brayman, A., ...... 2K-6 Chen, C.-C., ...... P2C-3 Brekke, S., ...... 1K-3 Chen, C.-M., ...... P1C-1

69 Chen, D.- P., ...... P1J-4 Crum, L., ...... 2J-2, 2K-6, 6K-6, P2C-10 Chen, H.-K., ...... 4H-6 Cular, S., ...... PS-15, P1F-8, 3F-4, 5D-4 Chen, I., ...... P3I-12 Culver, J. N., ...... 3F-4 Chen, J., ...... 3C-3, 6B-5 Cumming, D., ...... 3B-5 Chen, M. S., ...... P2C-9 Cunfu, H., ...... 3D-2 Chen, S.H., ...... P2C-12 Cunningham, C., ...... P2B-4 Chen, W., ...... 2J-6 Czarnota, G., ...... 2H-5, 2H-6 Chen, W. S., ...... P2C-5, P2C-9 Chen, W.-S., ...... P1C-3 Daft, C., ...... 6D-1 Chen, X., ...... 4I-4 Dahl, J., ...... P3E-4 Chen, Y.-S., ...... P1C-3 Dahl, J. J., ...... 6K-3 Chen, Y.-Y., ...... P2C-4, P3I-13 Dail, D., ...... 6G-2 Cheng, J., ...... P3A-4 Damjanovic, D., ...... P2J-4, P2J-5 Cheng, J. H., ...... 4J-3 Daniau, W., ...... P3F-8, 5H-3, 5J-3, 5H-5, Cherednick, V., ...... P1J-1, P1K-1 5K-6 Cherednick, V. I., ...... P2H-6 Danicki, E., ...... P1K-9 Cherin, E., ...... 2D-2, 2G-3, 6A-1 Darinskii, A., ...... P2H-1 Chetty, K., ...... P3B-5 Darling, T., ...... P3C-2 Cheung, K., ...... 1H-2, 2G-5 Dasgupta, S., ...... 6G-2 Chiasson, M., ...... P1M-3 Davis, L., ...... P2K-5 Chiba, T., ...... P1K-3 Davis, M., ...... P2J-5 Chilipka, T., ...... 2D-5 Dayton, P., ...... 1H-3, P3B-2 Chilla, E., ...... P1J-4 Deblock, Y., ...... PS-12, 4I-6 Chin, C.T., ...... 1A-1 de Bruijn, F., ...... 5A-5 Chiu, C. H., ...... P2G-6 de Bruin, G., ...... 3K-6, 5A-5 Chiu, C.Y., ...... P2C-12 Declercq, N. F., ...... P3G-7 Cho, S. H., ...... 6F-4 Decultot, D., ...... 4E-1 Cho, Y., ...... 6I-5 Defay, E., ...... PS-10, 4H-3 Choi, C., ...... P3I-12 de Feyter, P., ...... P1C-2 Choi, D., ...... P2J-3 Defontaine, M., ...... P2A-4, P3C-1 Choi, J., ...... 2I-3 Degertekin, F. L, . 4J-1, 1B-2, PS-18, 6E-1 Choi, M., ...... P1F-2 Degrieck, J., ...... P3G-7 Chou, Y. F., ...... 4J-3 de Hart, J., ...... 1J-5 Chou, Y.-H., ...... P1C-1 de Jong, J., ...... 3K-6 Choujaa, A., ...... 4A-4 de Jong, N., .. 1A-1, 1I-2, 1K-2, 1I-3, 1I-4, Chung, C.-H., ...... 3B-3 1K-4, 1B-5, 1J-5, 1K-6, 2G-6, P2B-6, Chunsheng, Z., ...... P1I-5 P3M-3, P3B-4, 3K-6 Chvets, V. B., ...... P3I-3 de Korte, C. L., ...... 1G-2, 1J-6, 2A-6 Cianci, E., ...... 6D-3, P2K-11 Del Río, L. M., ...... 3D-5 Cinthio, M., ...... 2D-3 Delaunay, T., ...... 6I-2 Cladé, O., ...... 4F-1 Delmas, L., ...... P3H-4 Clark, M., ...... 3H-1, 3J-2 Delobelle, P., ...... 6H-1 Clatot, S., ...... P2K-8, 6C-1 Demirli, R., ...... 3E-1 Claus, P., ...... P1B-2, 2B-2 Demitri, C., ...... P2A-2, P3B-6 Clement, M., ...... P2F-1, P2I-6 Démoré, C. E. M, ...... 6A-3 Cleveland, R. O., ...... 1H-1, P3C-5 Denisov, A., ...... PS-8, 3H-5 Clorennec, D., ...... P3G-3 Denisova, L., ...... PS-8, 3H-5 Cloutier, G., ...... 1C-2, 1C-6, 2H-3, 2D-4, Dentinger, A., ...... 2A-4 2H-4 Derrouich, S., ...... P1E-4 Cobbold, R., ...... P1A-3 Devos, A., ...... P2G-4, 4H-4 Cochran, S., P1L-4, P2F-2, P2J-3, P3K-3, Devos, P., ...... 2B-2 3B-5, 6B-4 Dewan, N., ...... 5K-5 Coenen, S., ...... 1J-3 Dharampal, A., ...... P1C-2 Cogan, S., ...... 1E-2 D’hooge, J., ..... P1B-2, 1J-3, P1C-4, 2E-1 Colucci, V., ...... 2I-2 Di Pietrantonio, F., ...... P2H-5 Conolly, S., ...... 2I-6 Dines, K. A., ...... 2J-6 Conversano, F., ...... P2A-2, P3B-6 Dinet, D., ...... 4F-1, 4F-2 Cormier, S., ...... P1E-1 Ding, J., ...... 4J-2 Cornez, D., ...... P2F-2 Distante, A., ...... P2A-2, P3B-6 Corp, I., ...... 6F-1 Dixon, S., ...... 4K-2 Costa, F, ...... 6H-3 Dixon-Tulloch, E., ...... 4G-5 Costa-Felix, R. P. B., ...... 3E-3 Djafari-rouhani, B., ...... 4A-4 Coutard, F., ...... P1M-5 Djelouah, H., ...... P2E-1, 3H-4 Couture, O., ...... 1H-2, 2G-5 Djerir, W., ...... P2E-1 Criton, A., ...... 1J-4 Dmitriev, V., ...... P3H-1 Crosby, J., ...... P3D-7 Doerner, S., ...... 6D-5 Crowder, K., ...... 2I-4 Dogheche, K., ...... 6H-1 Cruañes, J., ...... 4K-5 D’Olieslaeger, M., ...... P1F-5

70 Dommann, A., ...... P2F-3 Feng, Y., ...... P1M-6 Donnelly, N., ...... P2F-2 Ferin, G., ...... P2J-2, 6C-3 Dopeux, J., ...... P3H-4 Fernandez, J. M., ...... P1I-2, 4C-3 Droog, E., ...... 1C-1 Ferrara, K., ...... 1H-3, 1A-5, 2C-2, P2B-3, Du, J., ...... P1I-1 P3B-2 Dual, J., ...... P1G-10 Ferrari, V., ...... 6D-5 Dubois, M.-A., ...... 5A-1, 5A-2, 5B-4 Feuillard, G., ...... P1L-3, 6I-2 Dubus, B., ...... PS-10, 4H-3 Fichtinger, G., ...... P2C-7 Duck, F., ...... P1B-5 Fidanzati, P., ...... 2B-4 Ducloux, O., ...... PS-12, 4I-6 Finet, G., ...... 1C-2 Dufait, R., ...... P3M-6, 4F-2, 6C-3 Fink, M., 1E-4, 1G-6, P3G-3, 3J-4, P3M-7 Dulmet, B., ...... 3K-4 Fischer, Ch., ...... 2F-5 Dumont, D., ...... 1F-1, 2J-1 Fischer, W.-J., ...... P1J-9 Dumont, F., ...... P2G-4 Fisher, R., ...... 1E-2 Dunmire, B., ...... 2E-6 Flannery, C. M., ...... 4E-5 Dursun, S., ...... P3A-1 Fleckenstein, A., ...... 5E-3 Dvoesherstov, M., ...... P1K-1 Fleischman, A., ...... 4G-3 Dvoesherstov, M. Yu., ...... P2H-6 Fleury, G., ...... 3B-6 Foglietti, V., ...... 6D-3, P2K-11 Eames, M., ...... 2C-5, P3M-4 Foley, J., ...... 2J-2, 2K-5 Ebata, Y., ...... 5I-1, 5E-2 Foltête, E., ...... 6H-2 Ebbini, E. S., ... 2K-1, 6K-2, 6K-5, P2B-2 Forsberg, F., ...... 1D-3, 2F-3, P2D-6 Ebi, Y., ...... P2H-8, 3F-1 Foster, F. S., ...... 1H-2, 2D-2, 2F-4, 2G-5, Eccardt, P.-C., ...... 6E-2, 6E-4 6A-1, 2G-3 Eckersley, R. J., ...... P2B-1, P3B-5 Fotiadis, D., ...... 6G-6 Eisele, D. A., ...... P1J-2 Fowlkes, B., ...... P2C-8 Eklund, P., ...... 4J-5 Fowlkes, J., ...... PS-5, 1G-1 El Moussaoui, M., ...... 3I-4 Fox, K., ...... P2B-4 Elizarov, A., ...... P3E-3 Fox, P. D., ...... P1M-2, P3A-6 Elkoury, K., ...... 1G-6 Francis, L. A., ...... 3J-3 Elmazria, O., ...... 3I-6, 4I-3, 5B-2, 5H-3, Frankel, D., ...... PS-7, 3F-3 P3I-11 Frazier, S., ...... P1M-3 Emelianov, S., ...... 1B-3 French, B. A., ...... PS-4, 1D-2, 1D-4 Emelianov, S. Y., ...... 2D-6 French, L., ...... PS-7, 3A-2, 3F-3 Emery, P., ...... 4H-4 Frend, J., ...... P1I-4 Emmer, M., ...... 1A-1, 1I-2, 1I-4 Friedt, J.-M., ...... 3J-3, 5J-3, 5H-5, 5K-6 Endo, T., ...... 5G-3 Frieser, M., ...... 2J-4 Endoh, A., ...... P3L-4 Frijlink, M. E., ...... 1C-1, 1B-5, P3B-4 Engelhardt, M., ...... 2G-1 Frinkley, K., ...... 2J-5 Enlund, J., ...... P2G-2 Fritsch Yusta, C., ...... 3B-6 Ergun, A., . 1E-2, 4F-4, 4G-4, 6D-2, 6E-3, Froelich, B., ...... 3B-6 6E-6 Fromageau, J., ...... 1C-2, 1C-6 Erkamp, R., ...... PS-5, 1G-1 Fry, S., ...... 4G-1 Ermert, H., .. 1G-4, 1E-5, 2G-1, 2J-4, 2F-5, Fu, Q., ...... P1J-9 P3D-2, 3D-3, 3D-4, 6G-1, 6J-6 Fuhrhop, R., ...... 2F-1 Eroglu, E., ...... 2E-1 Fujii, K., ...... 5E-5 Erpelding, T., ...... 1F-5 Fujita, Y., ...... 5G-3 Eshel, Y., ...... P1M-4 Fujiwara, H., ...... P2H-4 Espinosa, V., ...... 4K-5, P1G-12 Fukiura, T., ...... 3F-1 Esteban, F. J., ...... 3D-5 Fuller, M., ...... 2C-5 Evtukh, A., ...... P3H-2 Funasaka, T., ...... P3J-1 Fung-kee-fung, S., ...... 2E-2 Fahey, B., ...... 2J-1 Furuhata, H., ...... P2C-2 Fan, J., ...... 4G-3 Furuhata, M., ...... P3J-1 Farnell, L., ...... 2E-5 Furukawa, Y., ...... P1I-6 Fatemi, M., ...... PS-6, 1F-4, 2C-3 Fattinger, G. G., ...... 5J-1, 5C-4 Gachagan, A., ...... 4D-2 Fazzio, R. S., ...... P2G-1 Gachon, D., ...... 5J-3 Fedewa, R., ...... 2J-6 Gahagnon, S., ...... 1G-3 Fedorov, A. G., ...... 4J-1 Galipeau, J., ...... 5I-4 Fedosov, V. I., ...... P2H-5 Gammelmark, K., ...... P3A-3 Fejer, M., ...... P2K-1 Ganor, Y., ...... 1H-4 Feld, D., ...... 5A-6 García-Alvárez, J., ...... P3F-3 Feldman, M. D ., ...... 2I-1 García-Hernández, M. J., ...... P3F-3 Feleppa, E., ...... 6G-2 Garcia, D., ...... P3K-1 Felix, N., ...... P2J-2, P2K-4, P3M-6, 4F-2, Garcia, M. J., ...... P1G-4 6C-3 Garcia, R., ...... 6A-1 Feng, C., ...... P2G-1 Garcia-Alvarez, J., ...... P1G-4

71 Gardner, S., ...... 6F-1 Halvorsrød, T., ...... 1E-3 Garson, C., ...... 1D-6 Hamano, A., ...... 3C-1 Garson, C. D., ...... P1E-8 Hamaoka, Y., ...... 5E-5 Garverick, S., ...... 4G-3 Hamasaki, J., ...... 5G-3 Gatta, P., ...... 4F-3, P2K-11 Hamidullin, V. K., ...... 3G-2 Gauthier-Manuel, L., ...... P2K-8 Han, H. S, ...... P1D-6 Gavrilov, D., ...... PS-8, 3H-5 Han, T., ...... P2H-3, 5D-6 Gehrke, T., ...... 6C-4 Hansegård, J., ...... PS-3, 6G-5 Gelat, P., ...... P1F-2 Hansen, C., ...... 6J-6 Gemmeke, H., ...... P3D-5 Hansen, Ch., ...... 2G-1, 2F-5 Gennisson, J.-L., ...... 2H-3, 2H-4 Harris, M. T., ...... 3F-4 Gerrits, I. H., ...... 1G-2 Harris, N. R., ...... 4J-2 Gessert, J., ...... P2C-11 Harvey, G., ...... 4D-2 Gessner, T., ...... P2K-7 Hasegawa, H., ...... P1B-4, P2D-4, 6G-3 Ghasemian, M. H., ...... P1M-1 Hasegawa, M., ...... 5G-2 Gijsen, F., ...... P1C-2, 1C-5 Hasegawa, T., ...... P1L-6, P3L-4 Giles, A., ...... 2H-5 Hashimoto, K., P1K-8, P3I-4, P3I-6, 5I-5 Girard, P.-A., ...... P1J-6 Hata, Y., ...... P2E-5 Girault, J. M., ...... P3E-6 Haugen, A., ...... 1K-3 Giroux, M.-F., ...... 2D-4 Haugen, G., ...... 1K-3 Gisolf, A., ...... 1C-1, 1C-4 Hauptmann, P., ...... 3B-4 Glüer, C.-C., ...... P3C-5 Hauptmann, P. R., ...... 6D-5 Glynos, E., ...... 1I-5 Hayward, G., ...... P3M-5, 6I-3 Göbel, G., ...... P3D-5 Hazard, C., ...... 1E-2 Goertz, D. E., ..... 1C-1, 1B-5, 2F-4, P3B-4 Hazouard, E., ...... 4F-1 Goldberg, B., ...... 1D-3 He, C.-F., ...... P3F-6 Goldman, K., ...... 2D-5 He, S., ...... P3J-2 Gomez-Ullate Alvear, L., ...... 3B-6 Hecht, D., ...... 4B-2 González, I., ...... 3D-5, P3G-4 Heimdal, A., ...... P1C-4 Goto, K., ...... P3J-1 Heinze, H., ...... 5J-2, 5A-3 Goto, N., ...... 4B-5 Helle-Valle, T., ...... P3D-7 Gottlieb, E., ...... P3L-2, 6A-5 Henn, G., ...... 5A-3 Gottwald, F., ...... 6G-1 Henning, B., ...... 3G-6 Goyal, A., ...... 4J-5 Herbots, L., ...... 2E-1 Gran, F., ...... P1A-5 Hergum, T., ...... P3D-4 Grandoni, A., ...... P2J-1 Hernández, J. A., ...... 3J-2 Grayson, G., ...... PS-8, 3H-5 Hickernell, F., ...... 5C-3 Greenleaf, J., ..... PS-6, 1F-4, P1B-6, 2A-3, Higuchi, T., ...... P1E-4, P3J-1 2C-3, 2I-5 Hikino, O., ...... 5G-3 Gregg, M., ...... P2F-2 Hikita, M., ...... P3I-1 Greve, D., ...... 3C-6, 6H-5 Hilgenfeldt, S., ...... 1I-2 Grigorievsky, V. I., ...... P3I-9 Hill, M., ...... 4J-2 Gruel, Y., ...... PS-1 Hillewaert, W., ...... 2B-2 Guey, J.-L., ...... 3B-6 Hirao, Y., ...... PS-16 Guhr, G., ...... 3A-5 Hirsch, S., ...... 6D-5 Guichardaz, B., ...... 5J-3, 5K-6 Hirsinger, L., ...... 6H-1, 6H-2 Guidi, F., ...... 2G-4 Hiruma, Y., ...... 6I-4 Guldiken, R. O., ...... 1B-2, PS-18, 6E-1 Hladky, A.-C., ...... 4K-3, 6C-5 Guliyev, E., ...... P3J-3 Ho, C.-S., ...... P2C-4 Gulsch, M., ...... 3G-6 Ho, J.-A., ...... 2F-2 Gulyaev, Y., ...... P3H-1 Hoctor, R., ...... 2A-4 Guo, H., ...... P2E-9 Hodnett, M., ...... P1F-2 Gupta, A., ...... 4J-5 Hoelscher, Th., ...... 2F-5 Gupta, V., ...... 5K-5 Hofer, C., ...... 3B-1 Guyer, R., ...... P3C-2 Hoff, L., ...... 3F-2 Hofmann, M., ...... P2I-2 Hackenberger, W., ...... 6I-1 Hohkawa, K., ...... P1K-7, P2I-5 Hæggström, E., ...... 6E-3, P1G-6 Holc, J., ...... P3L-1 Haenen, K., ...... P1F-5 Holewijn, S., ...... 1J-6 Haensler, J., ...... 2J-4 Holland, M., ...... PS-2, 2H-1, 6J-2 Hager, G. D., ...... P2C-7 Hollman, K., ...... 1F-5 Hahn, E., ...... 2J-4 Holm, S., ...... P2E-8, 3F-2, 6J-1 Haiat, G., ...... P3C-3, P3C-5 Holmer, N.-G., ...... 6G-4 Haiyan, G., ...... 3D-2 Holmes, A., ...... 3J-5 Hall, A. L., ...... 2F-3 Holmgren, O., ...... P3G-5 Hall, C. S., ...... 1A-1 Homma, K., ...... 2E-3 Hall, T., ...... P2C-8 Hong, S. S., ...... PS-13, P3I-5, 5E-4 Haltmeier, M., ...... 3B-1 Hongoh, M., ...... 6F-3

72 Horii, K., ...... P1H-3 Jackson, T., ...... 3I-2, 3I-3 Horinaka, H., ...... P1E-2 Jacob, X., ...... 4K-4 Horiuchi, S., ...... 6I-4 Jahr, V., ...... 3F-2 Hoshimiya, T., ...... P3F-9 Jakob, M., ...... 5E-3 Hoskins, P., ...... 1J-4 Jalali, A. A., ...... P1H-1, P1H-6 Hosoda, M., ...... P1H-3 Jamneala, T., ...... 5A-6 Hosono, Y., ...... 6B-2 Jan, M.-E., ...... 5C-5 Hossack, J., P1D-1, P1D-5, 1D-6, P2K-2, Jannert, M., ...... 6G-4 2C-5, P2B-5, P3M-4, P3E-5 Jansen, A., ...... 1H-5 Hossack, J. A., . PS-4, 1D-2, 1D-4, P1E-8 Jansman, A., ...... 5A-5 Hossenlopp, J., ...... 3F-5 Jansson, T., ...... 2D-3, 6G-4 Hou, Y., ...... 2C-4 Jean-Louis, I., ...... 4K-3 Hoyt, K., ...... P2D-6 Jeannot, J.-C., ...... P2K-8 Hozumi, N., ...... 3B-2, 3D-6 Jensen, J., ...... P1A-4, P3A-3 Hsu, S., ...... 1F-1, 2J-1 Jensen, J. A., ...... 2B-1 Hu, C., ...... 6A-5 Jensen, J. A., P1A-1, P1A-5, P1A-7, 2B-6 Hu, C.-H., ...... P1E-6 Jenson, F., ...... P3C-3, P3C-4 Hu, G., ...... 2I-4 Jerez Hanckes, C., ...... 5F-4 Hu, J., ...... P1I-1, P1H-2 Ji, X., ...... P2H-3 Huafeng, L.., ...... P1I-5 Jia, C., ...... 2D-1, P2K-7 Huaming, L., ...... P2E-4 Jian, C.-Y., ...... P3I-7 Huang, C.-C., ...... P2A-6 Jian, X., ...... 4K-2 Huang, L. Y., ...... 2E-6 Jiang, X., ...... 6I-1 Huang, M., ...... 3K-5 Jin, J., ...... 4C-6 Huang, S.-W., ...... P1A-6 Jingpin, J., ...... 3D-2 Huang, Y., ...... 6D-2, 6E-3 Johansen, T., ...... P3A-1 Huang, Y. C., ...... 4J-3 Johansson, L., ...... P1L-1 Huang, Z.-G., ...... 4A-6 Johansson, S., ...... P1L-1, P1L-2 Hughes, M., ...... 1D-5, 2F-1, P2C-1, 2I-4 Johnson, G., ...... P3H-5 Huiskamp, P., ...... 5A-5 Johnson, P., ...... P3C-2 Hurrell, A., ...... P2C-13 Johnson, W., ...... 4E-5 Hutchins, D., ...... P2K-5 Jolesz, F., ...... 2I-2 Huyskens, W. F., ...... 2A-6 Jones, Y., ...... 3F-5 Hwang, J., ...... 2K-6 Jonsson, M., ...... P3F-7 Hwang, J.-S., ...... 6B-1 Joshi, S., ...... P3I-2, 4K-1 Hynynen, K., ...... 2I-2, 2K-2, 2K-4 Josse, F., ...... 3F-5 Ju, K.-C., ...... P2C-4, P2C-5 Iborra, E., ...... P2F-1, P2I-6 Jun, J.-S., ...... 6B-1 Ide, S., ...... 3H-3 Jun, Y., ...... 3G-5 Ide, T., ...... P1I-4 Jung, H., ...... 6B-1 Idriss, S., ...... 4G-5 Iizawa, K., ...... P2I-1 Kaajakari, V., ...... P1K-4, P3G-5, 5K-2 Ikata, O., ...... 5E-2 Kadowaki, K., ...... P3G-6 Ikegami, T., ...... 4E-2 Kaitila, J., ...... 5J-1, 5C-4 Imamura, K., ...... P1B-4 Kalashnikov, A., ...... 3J-5 Imberdis, C., ...... 1G-3 Kalinin, V., ...... P1F-4 Ing, R. K., ...... P3G-3 Kalisz, A., ...... 6G-2 Inoue, S., ...... 5I-1 Kaltenbacher, M., ..... P1L-5, P2A-7, 6F-2 Insana, M., ...... 1G-5, 6J-5 Kamal-Bahl, S., ...... 6H-6 Iro, H., ...... 6G-1 Kameda, S., ...... 5D-5 Ishibashi, T., ...... P2C-2 Kamizuma, H., ...... P1K-8 Ishikawa, K., ...... P1L-7 Kamozaki, Y., ...... P2E-5 Ishikawa, M., ...... P1L-6, P3K-2, P3L-4 Kanai, H., ...... 1J-2, P1B-4, P2D-4, 6G-3 Ishizaki, T., ...... P3I-8 Kanda, H., ...... P2A-1, P2D-2 IshizakiI, T., ...... 5I-2 Kanda, T., ...... 4C-1 Isono, H.i, ...... P3I-10 Kaneshiro, C., ...... P1K-7, P2I-5 Itaya, K., ...... 5B-3 Kanna, S., ...... P2I-1 Ito, S., ...... P1L-7 Kapur, A., ...... PS-5, 1G-1 Itoh, H., ...... P1F-3 Kapusta, L., ...... 1G-2 Iula, A., ...... P1I-3, 6C-6 Karaki, T., ...... P3J-1 Ivan, A., ...... 3K-4 Karaman, M., ...... 1B-2, P2K-3, 4G-4 Ivancevich, N. M., ...... 6K-3 Karatsu, R., ...... 6F-5 Ivchenko, V., ...... 3J-5 Karpiouk, A. B., ...... 2D-6 Iwaki, M., ...... 5A-4 Karppinen, T., ...... P1G-6 Iwamoto, T., ...... P3E-1 Karshafian, R., ...... 1A-4, 1H-6 Iwamoto, Y., ...... 5A-4 Katardjiev, I., P1K-2, P2G-2, 3A-3, 5C-2 Iwasaki, Y., ...... 5E-5 Katsaros, C., ...... 2A-6 Izadi-Zamanabadi, R., ...... P1H-1, P1H-6 Kawabata, K.-I., ...... 2K-3, 2E-4, 2F-6 Izukawa, S., ...... 4E-4 Kawakubo, T., ...... 5B-3 73 Kawamura, H., ...... P2F-4 Koskenvuori, M., ...... 5K-2 Kawano, S., ...... P3J-1 Koskinen, J., ...... 5K-2 Kawasaki, D., ...... P3I-10 Kosugi, T., ...... PS-16 Kawasaki, T., ...... 6F-5 Kotani, H., ...... 5G-4 Kawashima, N., ...... P1L-6, 3C-1, P3K-2 Kouamé, D., ...... 3G-1, P3E-6 Kazato, H., ...... P2H-8, 3F-1 Koutsos, V., ...... 1I-5 Keen, C. G., ...... 6K-3 Kovacs, G., ...... 5I-6 Keitmann-Curdes, O., ...... 3D-3, 3D-4 Koyama, D., ...... P1I-4 Kenny, T., ...... PS-14, 5F-1 Krüger, J., ...... 5H-3 Kent, J., ...... 4D-4 Krüger, J. K., ...... 3I-6 Ketterling, J., ...... 1D-1, 6G-2, 6A-4 Krams, R., ...... 1B-5 Khaled, W., ...... 1G-4 Krenning, B. J., ...... 1K-2, 1K-4, 1K-6 Khelif, A., ...... 4A-3, 4A-4, 5H-3 Kribeche, A., ...... 6K-1 Khivrich, V., ...... P3H-6 Krishnaswamy, S. V., ...... 5B-1 Khuri-Yakub, B., ..... 1E-2, PS-17, P2K-1, Kristoffersen, K., ...... P1A-2 4G-2, 4F-4, 4G-4, 6D-2, 6E-6 Krueger, T., ...... 6J-2 Khuri-Yakub, B. T., ...... 6E-3 Kruse, D., ...... 1H-3, P2B-3 Kiihamäki, J., ...... 5K-2 Kubota, J., ...... P2C-2 Kikuchi, Y., ...... 6F-6 Kucewicz, J., ...... 2E-6 Kim, C.-U., ...... P3I-9 Kuehnicke, E., ...... 6C-2 Kim, E. S., ...... P3H-7 Kujawska, T., ...... P3A-8 Kim, H. H, ...... P1D-6 Kulberg, N., ...... P3E-3 Kim, H. S., ...... P1D-2 Kunze, R., ...... P2I-2, 3A-5 Kim, I. K., ...... P3F-4 Kuo, P., ...... P2K-1 Kim, J., ...... 5I-4 Kuo, S.-H., ...... P1G-9 Kim, K., ...... 1B-4, 2D-1, 2C-4, 6J-5 Kupnik, M., ...... 6E-6 Kim, S., ...... 4E-5 Kurosawa, M., ...... P1L-6, P3K-2, P3L-4, Kim, Y., ...... P3D-6 4C-2 Kim, Y. Y., ...... P3F-4, 6F-4 Kushibiki, J., ...... P1G-2, 3H-6 Kimmel, E., ...... 1H-4 Kushkuley, L., ...... P1M-4 Kinnick, R., ...... PS-6, 1F-4, 2I-5 Kustova, A. O., ...... P3I-3 Kioupritzi, E., ...... 3A-1 Kuypers, J. H., ...... P1J-2 Kirk, K., ...... P1L-4, P2F-2, P3K-3, 3B-5 Kuznetsova, A., ...... 4K-1 Kishimoto, G., ...... 6F-5 Kuznetsova, I., ...... 4K-1 Kissi, A., ...... P1E-1 Kwon, J., ...... P1H-5 Kitatuji, M., ...... P2A-1 Kyuzen, T., ...... 6F-6 Kitsunai, H., ...... P3K-2 Kiwitt, J. E., ...... 5E-3 LaBell, R., ...... 2C-2 Kjølerbakken, K., ...... 3F-2 Lacey, E., ...... 1D-5 Klauson, A., ...... 3I-4 LaCrampe, M., ...... 6G-2 Klett, S., ...... P3J-3 Ladabaum, I., ...... 6D-1 Klibanov, A L., ...... 1A-1 Laens, A., ...... 5H-5 Klibanov, A., ...... P2B-5 Lafond, E., ...... 3I-2, Klimonda, Z., ...... P3D-1 3I-3 Knoll, P., ...... 3D-4 Lai, B., ...... P3L-2 Knuuttila, J. V., ...... P3G-5 Lai, C.-Y., ...... P2C-3 Kobashi, S., ...... P2E-5 Lai, Y.-A., ...... 3I-1 Kobayashi, A., ...... 4C-1 Lal, A., ...... PS-11, 4I-4, 4J-4, 4J-6 Kobayashi, K., ...... 3B-2, 3D-6 Lam, C. S., ...... P2G-6 Koh, K., ...... P1K-7, P2I-5 Lambert, A., ...... P3F-8 Kokkonen, K., ...... P3G-5 Lambert, C., ...... 5B-4 Kolios, M., ...... 2H-5 Lamberti, N., ...... P1I-3, 6C-6 Kolios, M. C., ...... P2A-3, 2H-6 Lan, J., ...... P1M-3 Kolle, M., ...... 3I-6 Lancée, C. T., ...... 1K-2, 1K-4, 1K-6 Kolosov, O., ...... P1G-7 Landes, H., ...... 3G-3 Kondo, A., ...... 5H-6 Langeland, S., ...... P1B-2, 1J-3 Kondo, K., ...... P2E-5 Lanthier, S., ...... 2D-4 Kondo, S., ...... 5G-3 Lanz, R., ...... 3K-2, 5B-4 Kondo, T., ...... P2A-1 Lanza, G., ...... 1D-5, 2F-1, P2C-1, 2I-4 Kondo, Y., ...... P1B-1 Larabi, H., ...... 4A-4 Kondoh, J., ...... P1F-7, 4I-2 Lardat, R., P1J-6, P1J-8, 5F-2, 5F-3, 5H-5 Koning, A., ...... 1K-1 Larson III, J. D., ...... 4D-4, P2G-1 Konofagou, E., . 1J-1, 2A-1, P2D-1, 2E-2, Lassila, I., ...... P1G-6 2I-3 Laude, V., .. 4A-4, 5F-2, 5H-3, 5F-4, 5K-4, Korshak, B. A., ...... 4I-1 5H-5, 5K-6, 6C-1, P3I-11 Korsten, H., ...... 1H-5 Laude, Vincent, ...... 4A-3 Kortbek, J., ...... P1A-4, P3A-3 Laugier, P., P2A-5, P3C-2, P3C-3, P3C-4, Kosec, M., ...... P3L-1 P3C-5

74 Laurell, T., ...... P1L-1 Link, M., ...... 3K-3, 5B-2 Lazerges, M., ...... P3C-1 Lipcan, K., ...... 1D-3 Leather, H. A., ...... P1B-2 Lipcan, K. J., ...... 2F-3 Lebedev, A., ...... 2K-5 Litniewski, J., ...... P3D-1, P3E-2 Leble, S., ...... 4D-5 Liu, D., ...... 6K-2 Le Brizoual, L., ...... 3I-6, 4I-3, P3I-11 Liu, H. L., ...... P2C-5 LeCarpentier, G., ...... PS-5, 1G-1 Liu, J., ...... 1D-3, 1G-5, P3J-2, 6J-5 Le Clezio, E., ...... 6I-2 Liu, J. B., ...... 2F-3 Lecoeur, J., ...... 1E-4 Liu, Q., ...... P2E-9 Leduc, D., ...... 4K-3 Liu, T., ...... 6G-2 Lee, H., ...... 6K-2 Liu, W., ...... 5K-3 Lee, J. Y., ...... P1D-2 Liu, Z.-H., ...... P3F-6 Lee, K.-H., ...... P1C-1 Lobeek, J.-W., ...... 5A-5 Lee, W. M. F., ...... 2I-1 Lockwood, G., ...... P1D-3, 4G-3, 6A-6 Lee, W.-N., ...... 2E-2 Lockwood, G. R., ...... 6A-3 Lee, Y.-C., ...... P1G-9, 3B-3 Loevstakken, L., ...... P1A-2 Lee, Y.-S., ...... P1H-5 Löfqvist, T., ...... 3G-4 Lefevre, A., ...... P2G-4 Lohfink, A., ...... 6E-2, 6E-4 Le Floc’h, J., ...... 4F-3 Lohse, D., ...... 1I-2, 3K-6 LeGuennec, J. Y., ...... 1A-2 Longo, C., ...... 6D-3, P2K-11 Leighton, T., ...... 1I-1 Longo, M., ...... P3B-2 Leija, L., ...... P3K-1 Lopata, R. G. P., ...... 1G-2 Lematre, M., ...... P1L-3 López, F., ...... 3D-5 Lemor, R., ...... 2H-6 Lowe, C. R., ...... 3A-1 Lente, M. H., ...... P3K-1 Lozano, M., ...... P3B-2 Leon, F., ...... 3I-4 Lu, H., ...... P2D-1 Lerch, R., ...... P1L-5, P2A-7, 3G-3, 6F-2 Lu, J.-Y., ...... P1E-9, P3A-4 Lerouge, S., ...... 1C-6 Lu, M., ...... 6B-3 Leroy, O., ...... P3G-7 Lu, T., ...... P1G-8 Lethiecq, M., ...... P1L-3, P1M-7, P3L-1 Lu, Y., ...... 3E-1 Leung, K. Y. E., ...... 1C-4 Lucklum, R., ...... 6D-5 Levassort, F., ...... P1M-7, P3L-1 Lughi, V., ...... P1L-8 Lewandowski, M., ...... P3D-1, P3E-2 Lukacs, M., ...... 6A-1 Lewin, P., ...... 1D-3 Lunde, P., ...... P1F-1 Lewis, J. P., ...... 6F-1 Luo, W., ...... 2K-5 Lewis, M., ...... 5G-1 Li, B., ...... 4I-5 Ma, P. M., ...... P2C-9 Li, C.-H., ...... 2F-2 Macaskill, C., ...... 2E-5 Li, H., ...... P3I-4 MacDonald, N., ...... P1L-8 Li, P.-C., ...... P1C-1, P1A-6, 2F-2, P2C-3, Machado, C. B., ...... P2A-5 2B-5 Machado, J. C., ...... 3E-3 Li, S., ...... P3J-2 Maev, R., ...... PS-8, 3H-2, 3H-5 Li, S.-S., ...... P1K-5, P1K-6, 5K-1 Maezawa, A., ...... PS-16 Li, W.-T., ...... P2C-12 MahloojiFar, Ali, ...... P1M-1 Li, Y, ... P1E-8, PS-4, P1D-1, 1D-2, 1D-4, Maitre, S., ...... P3M-6 P1D-5, 1D-6 Majjad, H., ...... 5K-4 Liang, D., ...... 2I-6 Makino, A., ...... 4C-1 Liang, K., ...... 3B-6 Makino, T., ...... P2F-4 Liang, Y., ...... P3J-2 Makkonen, T., ...... P2G-5, 5F-5 Liang, Z. Q., ...... P3L-3 Makov, Y. N., ...... 4K-5 Liao, A.-H., ...... 2F-2 Maleke, C., ...... 2A-1 Libgot, R., ...... PS-1 Mallidi, S., ...... 2D-6 Lie, L., ...... P1D-4 Malm, S., ...... PS-3, 6G-5 Lietard, R., ...... 4E-1 Malocha, D. C., ...... 5H-2 Light, E., ...... 4G-5 Mamou, J, ...... 1H-1, 2H-2 Lilliehorn, T ., ...... P1L-1 Managuli, R., ...... P3D-6 Lilliehorn, T., ...... P1L-2 Manceau, J. F., ...... 5G-5 Lin, C.-M., ...... P3I-13 Mandard, E., ...... 3G-1 Lin, D., ...... 6E-6 Mansfeld, G., ...... P3H-1 Lin, J., ...... P1J-10 Mao, Y., ...... 3C-3 Lin, W,-L., ...... P2C-4 Maréchal, P., ...... P1M-7, P3L-1 Lin, W., ...... P1G-8 Margoum, A., ...... 1E-4 Lin, W. L., ...... P2C-5 Marin-Franch, P., ...... P2J-3, 6B-4 Lin, Y.-W., ...... P1K-5, P1K-6, 5K-1 Marinozzi, F., ...... P2J-1 Lindström, K., ...... 2D-3 Markley, D., ...... 6I-1 Linga Reddy, D., ...... 4E-3 Marksteiner, S., ...... 5J-1, 5C-4 Lingvall, F., ...... 3E-6 Marmottant, P., ...... 1I-2 Link, A., ...... 5J-2 Marsh, J., ...... 1D-5, 2F-1, P2C-1, 2I-4

75 Martin, D., ...... P2G-2 Milsom, R., ...... 5A-5 Martin, F., ...... 5C-5 Minami, Y., ...... 4B-4 Martin, G., ...... 3A-5, P3F-8, 5D-2 Minamide, A., ...... P1G-11 Martinez, O., ...... 3B-6 Minazara, E, ...... 6H-3 Martínez-Mora, J. A., ...... P1G-12 Minonzio, J. G., ...... 3J-4 Martinez Vallina, F., ...... P2E-2 Miralles, R., ...... P2E-7 Martinsson, J., ...... PS-9, 3E-5 Mischi, M., ...... 1H-5 Marutyan, K., ...... PS-2, 2H-1 Mishima, N., ...... P2F-5 Marx, D., ...... 5B-5 Mishin, S., ...... 5B-5 Marzencki, M., ...... 6H-1 Mitake, T., ...... P2D-2, P2D-3 Masotti, L., ...... 3D-1 Mitelman, I., ...... P2H-2 Måsøy, S. E., ...... 6K-4 Mitobe, S., ...... 5I-1 Masson, J., ...... 5J-3 Mitri, F., ...... 2C-3 Mastik, F., ...... 1C-3, 1C-4, 1C-5 Miura, H., ...... 6F-3 Mateescu, I., ...... P3H-5 Miura, M., ...... 5E-2 Mathieu, J., ...... 3C-5 Miyagishi, T., ...... 3F-1 Matsiev, L., ...... P1G-7 Miyamoto, Y., ...... P2F-6 Matsuda, K., ...... 5I-5 Miyashita, T., ...... 3C-2 Matsuda, O., ...... 4A-2 Miyazaki, Y., ...... 4B-5 Matsuda, S., ...... 5I-1 Mizuno, T., ...... 5G-4 Matsuda, T., ...... 5I-1, 5E-2 Mo, L., ...... P1A-3 Matsui, Y., ...... P1F-7, 4I-2 Mofid, Y., ...... 1G-3 Matsukawa, M., ..... P2F-5, P2F-6, P3G-6 Mohammadi, S., ...... 4A-3 Matsumura, M., ...... 1H-6 Mojallali, H., ...... P1H-1, P1H-6 Matsumura, T., ...... P2D-2, P2D-3 Molarius, J., ...... P2F-3 Matsunaga, T., ...... 2C-2 Montaldo, G., ...... P3M-7 Matsunaka, T., ...... P1E-2 Moore, W., ...... P2C-11 Matte, G., ...... P3M-3 Moose, C., ...... 3K-5 Mattila, T., ...... 5K-2 Moran, C., ...... P2B-4, P3B-1 Matula, T., ...... 2K-6 Moran, C. M., ...... 1I-5 Maurice, R., ...... 2D-4 Moreno, E., ...... P3K-1 Maurice, R. L., ...... 1C-2 Morgan, D. P., ...... 5D-1 Mayer, M., ...... 5J-2, 5D-3, 5I-6 Morioka, K., ...... P1G-2 Maze, G., ...... 3I-4, 4E-1 Morita, T., ...... P2I-3, 6I-5 McDannold, N., ...... 2K-4 Moriya, T., ...... P1I-6 McDicken, N., ...... 1J-4, P2B-4 Morris, P., ...... P2C-13 McDicken, W., ...... P3B-1 Mortet, V., ...... P1F-5 McDicken, W. N., ...... 1I-5 Morvan, B., ...... 4K-3 McDonald, K., ...... P1L-4 Mota, M., ...... 3D-5 McGhie, J., ...... 1K-1 Moyer, C., ...... 1F-1 Mc Hugh, J., ...... 3B-6 Mozhaev, V. G., ...... 4I-1 Mc Laughlin, M., ...... 2B-2 Muller, C., ...... 5A-1, 5A-2, 5B-4 McNab, A., ...... 4D-2 Muller, M., ...... P3C-2 McPhillips, J., ...... P2F-2 Müller, T., ...... P3D-5 McRobbie, G., ...... P2F-2, P3K-3 Muralt, P., .. 3K-2, 5C-1, 5C-5, 6D-4, 6I-6 Meacham, J. M., ...... 4J-1 Murray, T. W., ...... 3I-5 Meggs, C., ...... P1L-4 Mylvaganam, S., ...... P3F-5 Mehi, J., ...... 2G-3, 6A-1 Mehner, J., ...... P2K-7 Meier, H., ...... 3D-4 Nagao, M., ...... 3B-2 Meijboom, F., ...... 1K-1 Nagasaka, H., ...... 5G-2 Melodelima, D., ...... P1B-5 Nagata, H., ...... 6I-4 Meltaus, J., ...... PS-13, P3I-5, 5E-4 Nakajima, A., ...... P1I-6 Menzel, S., ...... P2I-2 Nakamura, H., ...... P3I-8 Menzel, W., ...... 5E-3 Nakamura, K., ...... P1I-4, PS-16, P1L-7, Mercier, D., ...... 3B-6 P2H-4 Merks, E. J. W., ...... P3M-3 Nakanishi, H., ...... 5E-5 Merlen, A., ...... PS-12, P3G-1, 4I-6 Nakano, K., ...... P1H-4 Merton, D. A., ...... 2F-3 Nakase, H., ...... 5D-5 Metzger, T., ...... 5A-3 Nakaso, N., ...... P2H-8, 3F-1, 3K-1 Meyer, R., ...... 6I-1 Nakatani, Y., ...... P1E-2 Meziri, M., ...... P2A-5 Nakatsukasa, T., ...... 3F-1 Mienkina, M., ...... 3D-3 Nakazawa, M., ...... PS-16 Mihara, T., ...... P2H-8, 3F-1, 3K-1, P3F-1 Nam, C.-W., ...... P3I-9 Millard, P., ...... 3A-2, 3A-4 Naoe, N., ...... P1G-11 Miller, E., ...... 1F-1 Nara, T., ...... 5G-4 Miller, J., ...... PS-2, 2H-1, 6J-2 Nasedkin, A., ...... P1M-4 Mills, D., ...... 1E-2 Nasser-Eddin, M., ...... P3C-1

76 Naumenko, N., ...... 5H-4 Oralkan, O., ... PS-17, P2K-1, 4G-2, 4F-4, Naumenko, N. F., ...... P2H-7 4G-4, 6D-2, 6E-6 Nauwelaers, B., ...... P2G-3 Orlov, V. S., ...... P3I-3 Needles, A., ...... 2D-2, 2G-3, 2F-4 Oruklu, E., ...... P2E-2 Negreira, C. A., ...... P1B-3, P3M-7 Oshio, M., ...... P2I-1 Nelin, Y., ...... 4A-1 Ossant, F., ...... PS-1, 1G-3 Neumann, R., ...... 2F-1 Otani, N., ...... 5G-2 Nguyen, C. T.-C., .... P1K-5, P1K-6, 5K-1 Otani, T., ...... P2F-5, P2F-6 Niemi, J., ...... 3G-4 Otobe, E., ...... 5G-2 Niessner, A., ...... 3K-5 Otto, T., ...... P2K-7 Nightingale, K., ...... 1F-2, 2J-5 Outcault, R., ...... 2D-5 Nightingale, R., ...... 1F-2 Overhoff, H. M., ...... 6C-4 Nikolov, S., ...... P1A-5 Owaki, T., ...... P2I-3 Nikolov, S. I., ...... P1A-7 Oyama, J., ...... P1E-4 Nikoozadeh, A., ...... 4G-4 Oyama, T., ...... P1F-7 Nillesen, M. M., ...... 1G-2 Ozevin, D., ...... 6H-5 Nilsson, J., ...... P1L-1 Nilsson, M., ...... P1L-1, P1L-2 Pabon, J., ...... 4E-2 Nishida, M., ...... 5H-6 Padilla, F., ...... P3C-3, P3C-4, P3C-5 Nishida, T., ...... 4E-4, 5H-6 Palanchon, P., ...... P1E-7, 4F-1 Nishihara, T., ...... 5A-4 Palma, G., ...... P2A-2, P3B-6 Nishimura, K., ...... P1K-7, P3I-8, 5E-5 Palmer, S. B., ...... 4K-2 Nishio, Y., ...... 6G-3 Palmeri, M., ...... 1F-2, 2J-5 Nishumura, K., ...... P2I-5 Palmizio Errico, R., ...... P2A-2, P3B-6 Nitta, N., ...... 2E-3 Paltauf, G., ...... 3B-1 Noble, R., ...... P2K-5 Pan, A., ...... 2I-4 Noll, T. G., ...... P3A-7 Pan, W., ...... P2G-3 Nomura, H., ...... P1H-3 Panda, R., ...... 6B-5 Norli, P., ...... P1F-1 Panda, S., ...... 6D-1 Nouira, H., ...... 6H-2 Pang, G., ...... 6A-1 Nowicki, A., P1E-3, 2B-4, P3D-1, P3E-2, Pang, W., ...... P3H-7 P3A-8 Panwar, B., ...... P3I-2 Nuñez, I., ...... P1B-3 Pao, S. Y., ...... P2G-6 Nurmela, A., ...... P2F-3 Pappalardo, M., . P1I-3, 4F-3, 6D-3, 6C-6, P2K-11 O’Brien, Jr., W. D., ...... 1H-1, 2H-2 Parat, G., ...... P2G-4, 5A-2 Occhiolini, O., ...... 3D-1 Parenti, L., ...... P1I-3 Odagawa, H., ...... P1G-2 Park, C. I., ...... 6F-4 Oddershede, N., ...... P1A-1 Parker, E., ...... P1L-8 O’Donnell, M., ... PS-5, 1G-1, 1B-4, 1F-5, Parker, M., ...... P2J-3, 6B-4 PS-17, 2C-4, 2D-1, 4G-2 Parr, A. C. S., ...... 6I-3 Oelze, M. L., ...... 2H-2 Parusel, M., ...... 3D-3 Ogata, T., ...... P3F-1 Pashkevich, G., ...... P2H-2 Ogawa, H., ...... P1H-3 Passeri, D., ...... P2J-1 Ogihara, M., ...... P2C-2 Pastureaud, T., .. P1J-6, P1J-8, 5F-2, 5H-5 Ohara, R., ...... 5B-3 Pastureaud, Th., ...... 5F-3, P3I-11 Ohara, Y., ...... P3F-1 Patat, F., . PS-1, 1G-3, P2K-4, 3G-1, 6C-3 Ohashi, Y., ...... 3H-6 Patel, K., ...... 6D-1 Ohdaira, E., ...... P3K-2 Patel, M., ...... 4H-5, 5J-5, 5J-6 Ohgi, T., ...... 3F-1 Paul, B., ...... 1E-5 Ohki, M., ...... 5G-3 Pedersen, P., ...... 1K-5 Oja, A., ...... P3G-5, 5K-2 Peiwen, Q., ...... P1G-5, P2E-3, P2E-4 Okada, N., ...... 3D-6 Pekarcikova, M., ...... P2I-2 O’Keefe, G., ...... 2J-2 Pellissier Tanon, D., ...... PS-10, 4H-3 Olar, M., ...... 4F-1 Pellot-Barakat, C., ...... 1G-5 Olcum, S., ...... P2K-6 Penna, M. A., ...... 2J-6 O’Leary, R. L., ...... 6I-3 Pennec, Y., ...... 4A-4 Olikh, J., ...... P3H-2, P3H-6 Pensala, T., ...... P2F-3, P2G-5 Olikh, O., ...... P3H-2 Perales, F., ...... P3G-4 Olivares, J., ...... P2F-1, P2I-6 Peralta, J., ...... P2E-6 Olofsson, T., ...... 3E-2, 3E-6 Pereira, W. C. A., ...... P2A-5 Olstad, B., ...... PS-3, 6G-5 Pereira da Cunha, M., . PS-14, 3A-4, 5F-1, Olszewski, R., ...... 2B-4 5H-2, 5I-3 Omori, T., ...... P1K-8, P3I-4, P3I-6, 5I-5 Peremans, H., ...... P1L-5 Oomori, Y., ...... 4C-1 Pérez, N., ...... P3M-7 Oosawa, S., ...... 5I-2 Pernod, P., ...... PS-12, P3G-2, 4I-6 Ophir, J., ...... P2D-6 Pernot, M., ...... 1J-1, 2A-1, 2I-3 Oppenheim, I., ...... 3C-6, 6H-5 Perois, X., ...... P1J-6

77 Perriard, Y., ...... P1I-2, 4C-3 Reinten, H., ...... 3K-6 Persson, H. W., ...... 2D-3, 6G-4 Remenieras, J. P., ...... 3G-1 Pessiki, S., ...... 6H-5 Rèmiens, D., ...... 6H-1 Petersen, R., ...... P1F-5 Ren, Z., ...... P1K-5, P1K-6, 5K-1 Pethrick, R. A., ...... 6I-3 Reut, V., ...... P1K-1 Pétrini, V., ...... P2K-8, 5H-3 Rey-Mermet, S., ...... 3K-2, 5C-5 Pfile, R., ...... 2J-6 Rezanejad Gatabi, I., ...... P1F-6 Piazza, G., ...... 5J-4 Rezanejad Gatabi, J., ...... P1F-6 Piccoli, C. W., ...... 2F-3 Rezvov, Y., ...... 4B-1 Pickard, J., ...... P3E-5 Rhim, S. M., ...... 6B-1 Pinkham, W., ...... PS-7, 3F-3 Ribay, G., ...... P3G-3 Pinkovska, M., ...... P3H-6 Ribbers, H., ...... 1J-6 Pinton, G., ...... 2J-1, P3E-4, 4K-6 Ricci, S., ...... 2B-3 Pirozerskii, A. L., ...... 4D-1 Richards, C., ...... 6H-4 Pisano, A. P., ...... 5J-4 Richards, R., ...... 6H-4 Pitschi, F. M., ...... 5E-3 Ridgway, P., ...... 3I-3 Pitzer, D., ...... 3K-3, 5B-2 Rieder, A., ...... 3G-3 Plessky, V., ...... 5F-5 Rittweger, J., ...... P3C-1 Plessky, V. P., .. PS-13, P3I-5, P3I-9, 5E-4 Ro, R., ...... 1D-3 Pollard, T., ...... 5I-3 Ro, R. J., ...... 2F-3 Porter, C., ...... 6G-2 Robert, J.-L., ...... 6J-4 Poshtan, J., ...... P1H-1, P1H-6 Robert, L., ...... 5H-3, 5J-3 Postema, M., ...... 1I-3, P2B-6 Rodriguez, J. M., ...... P1G-4 Potoczek, M., ...... 1D-3 Rodriguez, M. A., ...... P3F-2 Poulin, G, ...... 6H-3 Rodriguez-Granillo, G., ...... P1C-2 Poulsen, C., ...... 1K-5 Rodriguez-Sanmartin, D., ...... P1L-4 Pourcelot, L., ...... P1E-1, P1E-7, 6K-1 Roedig, T., ...... 6C-5 Powers, J., ...... 1J-4 Roelandt, J. R. T. C., ...... 1K-6 Prada, C., ...... 3J-4, 3I-5 Roger, S., ...... 1A-2 Preobrazhensky, V., ... PS-12, P3G-2, 4I-6 Romanyuk, B., ...... P3H-2 Primig, R., ...... 3K-3, 5B-2 Rønnekleiv, A., ...... 1E-3, P2K-9, 3F-2 Profunser, D. M., ...... 4A-2, P1G-10 Roshchupkin, D. V., ...... 4H-2, 4E-6 Proklov, V., ...... 4B-1 Roshchupkina, H. D., ...... 4H-2 Protopappas, V., ...... 6G-6 Rosi, E., ...... 3D-1 Proulx, T., ...... 4F-5, 6B-3 Ross, J ., ...... P2B-4 Puccio, D., ...... 5H-2 Ross, J., ...... 1I-5 Pustovoit, V., ...... P3H-1 Roubidoux, M., ...... PS-5, 1G-1 Pyatkin, S. V., ...... 4H-2 Roux, C., ...... P2A-4 Pye, S. D., ...... 1I-5 Rouxel, D., ...... 3I-6 Pylnov, Y., ...... P3G-2 Roy, S., ...... 4G-3 Royer, D., ...... 4K-4 Qi, Z., ...... P2E-3 Rubin, J. M., ...... 2D-1, 2D-6 Qingkun, L., ...... P2E-3 Ruby, R. C., ...... P2G-1 Qu, J., ...... 4C-4 Ruggeri, A., ...... P2E-6 Que, P., ...... P2E-9 Ruigrok, J., ...... 5A-5 Quieffin, N., ...... P3G-3 Ruiter, N., ...... P3D-5 Rukhlenko, A. S., ...... P1J-3 Rabben, S., ...... PS-3, 1K-3, P3D-4, 6G-5 Rukhlenko, Alexander S., ...... P3I-14 Rabben, S. I., ...... P1C-4 Rusanov, F., ...... PS-8, 3H-5 Rabe, U., ...... 3J-1 Russo, R., ...... 3I-3 Rabhi, A., ...... 2H-4 Rybjanets, A., ...... P1M-4 Rademakers, F., ...... 1J-3, 2E-1 Rychak, J., ...... P2B-5 Ramachandran, S., ...... 6G-2 Ryden Ahlgren, Å., ...... 2D-3 Ramadas, S. N., ...... P3M-5 Ramis, J., ...... 4K-5, P1G-12 Sabah, S., ...... P1J-4 Ramos, A., ...... P3F-2, 3D-5 Saffari, N., ...... P3B-3 Ranga Nayakulu, S. V., ...... 4E-3 Sahlstrand-Johnson, P., ...... 6G-4 Ranganathan, K., ...... 6J-3 Saijo, Y., ...... P3E-1, 3B-2, 3D-6 Rantakari, P., ...... 5K-2 Sakai, K., ...... P1H-3, 4B-4 Ratier, N., ...... 5J-3, 5K-6 Sakashita, T., ...... 5A-4 Ratsimandresy, L., ...... 4F-2 Sakhaei, Mahmoud, ...... P1M-1 Raymond, J., ...... 1C-6 Sakharov, S. A., ...... 4H-2, 4E-6 Razansky, D., ...... 1H-4 Sakiyama, K., ...... P3I-1 Rehrig, P., ...... 6I-1 Salazar, J., ...... P1G-4, P3F-3 Reiber, J. H. C., ...... 1K-2, 1K-4 Salazkin, I., ...... 1C-6 Reichling, S., ...... 1G-4 Saldanha, N., ...... 5H-2 Reindl, L. M., ...... P1J-2 Samac, S., ...... 1A-4 Reinhardt, A., ...... 5F-2 San Emeterio, J. L., ...... P3F-2, 3D-5

78 Sanchez-Morcillo, V. J., ...... 4K-5 Sherar, M., ...... 2H-5 Sanghvi, N. T., ...... 2J-6 Shi, W., ...... P2H-3 Sangrador, J., ...... P2F-1, P2I-6 Shi, W. T., ...... 2F-3 Saniie, J., ...... P2E-2, 3E-1, 3E-4 Shiba, T., ...... 5I-2, 5G-3 Sano, K., ...... 5B-3 Shibagaki, N., ...... P3I-1 Santos Filho, E., ...... 3D-6 Shigekawa, N., ...... P1K-7, P2I-5 Santy, M., ...... P1E-5 Shigematsu, T., ...... 4C-2 Sanuga, A., ...... P1B-1 Shiina, T., ...... P2D-2, 2E-3, P2D-3 Sanz-Hervas, A., ...... P2F-1, P2I-6 Shikinami, Y., ...... P2A-1 Sapunar, M., ...... 1H-4 Shimamori, T., ...... 5G-2 Sarry, F., ...... P3I-11 Shimizu, H., ...... 4E-4, 5H-6 Sasaki, A., ...... P2C-2 Shimizu, J., ...... P2C-2 Sasaki, H., ...... 3D-6 Shimizu, N., ...... 4I-2 Sasaki, K., ...... 2K-3, 2E-4 Shing, T.-K., ...... 4H-6 Sasaki, R., ...... P3F-1 Shinomura, R., ...... P2D-2 Sato, H., ...... P3J-1 Shiokawa, S., ...... P1F-7, 4I-2 Sato, M., ...... P1B-1, P1G-3 Shiosaki, T., ...... 4E-4, 5H-6 Sato, T., ...... 5G-2 Shipley, J., ...... P1B-5 Satoh, I., ...... 3F-1 Shortencarier, M., ...... 2C-2 Satoh, Y., ...... 5I-1, 5E-2, 5A-4, P3I-10 Shrestha, A., ...... 2K-1 Savoia, A., ...... 6D-3, P2K-11 Shui, Y., ...... 5D-6, P1J-10 Sawayama, T., ...... P2E-5 Shung, K., ...... P1E-6, P3L-2, 6A-5 Sboros, V., ...... 1I-5, P3B-1 Shung, K. K., ...... 6A-2 Schaar, J., ...... 1C-5 Shvetsov, A., ...... 5D-1 Schaar, J. A., ...... 1C-3, 1C-4 Si-Chaib, M. O., ...... P2E-1 Schaefer, R., ...... 3B-4 Siddiolo, A., ...... 3H-2 Schafer, M., ...... P2C-11 Siebers, S., ...... 2J-4, 6G-1 Scharenberg, R., ...... 1E-5 Silva, G., ...... PS-6, 1F-4 Scharenberg, S., ...... 1E-5 Sim, D. Y., ...... P2H-8, 3F-1, 3K-1 Scheipers, U., ...... 2J-4, 6G-1 Simu, U., ...... P1L-2 Scherzer, O., ...... 3B-1 Sinha, B., ...... 4E-2 Schiff, P., ...... 6G-2 Sinkus, R., ...... 1F-3, 1G-6 Schlote-Holubek, K., ...... P3D-5 Slager, C., ...... P1C-2, 1C-5 Schmidhammer, E., ...... 5J-2, 5A-3 Smagin, N., ...... P3G-2 Schmidt, B., ...... 6D-5 Small, S., ...... 2I-3 Schmidt, H., ...... P2I-2, 3A-5 Smalling, R., ...... 1B-3 Schmieder, K., ...... 2G-1 Smith, P., ...... 4D-3 Schmiedgen, M., ...... 5J-2, 5A-3 Smith, S., ...... 4G-5 Schmitt, C., ...... 2D-4 Smith, S. W., ...... 6K-3 Schmitz, G., ...... 1I-3, P2B-6 Snook, K., ...... 6I-1 Schneider, S., ...... 3F-5 Sok Kim, E., ...... 6H-6 Schoeb, P., ...... 3B-6 Soles, C. S., ...... 4E-5 Schoenecker, A., ...... 6C-5 Solovchuk, M., ...... 4D-5 Schreiter, M., ...... 3K-3, 5B-2 Soman, N., ...... P2C-1 Schreuer, J., ...... 5F-6 Somekh, M., ...... 3H-1, 3J-2 Schumann, P., ...... 2C-2 Song, S., ...... P2E-9 Schuurbiers, J., ...... P1C-2, 1C-5 Song, T. K, ...... P1D-6, P1D-2 Schwann, R., ...... P3A-7 Song, Y. L., ...... 4J-3 Schwartz, A. L., ...... P3I-3 Soparawala, R., ...... 2F-3 Schweitzer, P., ...... P1M-5, 3C-5 Souchon, G., ...... P3E-6 Scott, G., ...... 2I-6 Soulez, G., ...... 1C-6, 2D-4 Scott, K., ...... P3H-5 Souquet, J., ...... 1E-1 Scott, M., ...... 2I-4 Soussan, P., ...... P2G-3 Scott, W. G., ...... 2D-6 Spalazzi, J., ...... P2D-1 Secomski, W., ...... P1E-3, 2B-4, P3E-2 Sparks, D., ...... 6G-2 Segers, P., ...... 2B-2 Sreenivas, K., ...... 5K-5 Sehgal, C. M., ...... 2I-1 Sreenivasa Reddy, C., ...... 4E-3 Seip, R., ...... 2J-6 Sridhar, M., ...... 1G-5 Seki, S., ...... P3I-8 Srinivasan, K., ...... 3F-4 Senlik, M. N., ...... 6E-5 Srivastava, S., ...... 5J-6 Serruys, P., ...... 1C-5 Stab, H., ...... P1J-9 Serruys, P. W., ...... 1B-1 Stache, N., ...... P3A-7 Servois, V., ...... 1G-6 Stapleton, S., ...... 2G-3 Sethi, R., ...... 3A-1 Starr, F., ...... 2K-5 Sethuraman, S., ...... 1B-3 Steen, E., ...... PS-3, 1K-3, 6G-5 Setter, N., ...... P2J-4, P2J-5 Steichen, W., ...... P1J-8, 5F-2, 5F-3, 5H-5 Severin, F., ...... PS-8, 3H-5 Stephanou, P. J., ...... 5J-4 Sharples, S., ...... 3H-1, 3J-2 Stepinski, T., ...... P3F-7

79 Stevenson, A. C., ...... 3A-1 Thomenius, K., ...... 1E-2, 2A-4 Sthal, F., ...... P3H-4 Thompson, R. S., ...... 2E-5 Stotzka, R., ...... P3D-5 Thury, A., ...... 1C-5 Streibel, K., ...... 3B-5 Thybaut, C., ...... 5F-6 Streicher, A., ...... P1L-5 Tianlu, C., ...... P1G-5, P2E-3, P2E-4 Stride, E., ...... P3B-3 Tien, Ch., ...... 4D-1 Strobel, D., ...... 2J-4 Tiercelin, N., ...... PS-12, 4I-6 Strobel, J., ...... 6F-2 Tilmans, H., ...... P2G-3 Su, D., ...... 5C-5 Tisserand, E., ...... P1M-5 Sugimoto, M., ...... 4I-2 Tittmann, B., ...... 3K-5 Sugita, N., ...... 2F-6 Tittonen, I., ...... 5K-2 Sugiura, T., ...... 5G-2 Tokunaga, Y., ...... P1G-11 Sumi, C., ...... 2A-2, P2D-5 Tomar, M., ...... 5K-5 Sun, F., ...... 4C-4 Tomikawa, Y., ...... P1H-7 Sun, J.-H., ...... 4A-5 Torp, H., ...... PS-3, P1A-2, 1K-3, P3A-1, Sun, L., ...... P1E-6 P3A-2, P3D-4, P3D-7, 6G-5 Sun, Y., ...... P2B-3 Tortoli, P., ...... 2B-3, 2B-4, 2G-4 Sutin, A., ...... P3C-2 Townsend, R. J., ...... 4J-2 Suzuki, M., ...... P3F-9 Trahey, G, ...... 1F-1, 2J-1, P3E-4, 4K-6 Suzumori, K., ...... 4C-1 Trahey, G. E., ...... 6K-3 Sveshnikov, B., ...... P1J-1, P1K-1, P2H-2 Tran, T. A., ...... 1A-2 Sviridov, V. T., ...... P3I-3 Tran-Huu-Hue, L.-P., ...... P3L-1 Sychev, M., ...... P2H-2 Tranquart, F.,P1E-1, 1A-2, P1E-7, P3A-6, Sylvia, B., ...... 5B-5 P3E-6, 4F-1, 6K-1 Synnevaag, J., ...... 6J-1 Troge, A., ...... 6I-3 Szabo, T., ...... 1K-5 Trots, I., ...... P3D-1 Tsai, C. S., ...... 4J-3 Tadigadapa, S., ...... 4J-5 Tsai, S. C., ...... 4J-3 Tai, C., ...... P3I-12 Tseng, K. J., ...... P1I-1 Takagi, H., ...... 5E-2 Tsubouchi, K., ...... 5D-5 Takagi, K., ...... P1H-3, 4B-4 Tsui, P.-H., ...... P2A-6 Takano, T., ...... P1H-7 Tsuji, T., ...... 3F-1, 3H-3 Takasaki, M., ...... 5G-4 Tsujino, J., ...... 6F-3, 6F-5, 6F-6 Takasuka, K., ...... 5A-1 Tsutsumi, J., ...... 5A-4 Takatsu, R., ...... 4K-4 Tu, J., ...... 2K-6 Takauchi, S., ...... P1L-6, P3K-2 Tuinhout, A., ...... 5A-5 Takayama, R., ...... 5E-5 Tung, Y. S., ...... P2C-5 Takeda, H., ...... 4E-4, 5H-6 Tunis, A., ...... 2H-5 Takeda, N., ...... P2H-8 Turnbull, D. H., ...... 1D-1, 2G-2, 6A-4 Takenaka, T., ...... 6I-4 Turo, A., ...... P1G-4, P3F-3 Takeuchi, M., ...... P1H-4, P2F-4 Tuta, K., ...... P2A-1 Takeuchi, S., ...... 3C-1, P3L-4 Tymochko, M., ...... P3H-6 Talman, J., ...... 4G-3 Tyson, N., ...... 3C-6 Talmant, M., ...... P3C-2 Talu, E., ...... P3B-2 Uchida, T., ...... 3C-1 Tam, W. Y., ...... P1J-7 Udesen, J., ...... P1A-7, 2B-6 Tamura, K., ...... P1B-1 Ueda, M., ...... 5I-1, 5E-2, 5A-4 Tanaka, A., ...... P3E-1 Ueha, S., ...... P1I-4, PS-16 Tanaka, H., ...... 3F-1 Uehara, K., ...... 5D-5 Tanaka, M., ...... 3D-6, 4H-5 Ueno, M., ...... P3J-1 Tanaka, S., ...... 4E-4 Ueoka, T., ...... 6F-3, 6F-5, 6F-6 Tanase, M. E., ...... P1D-4 Ueshima, Y., ...... 5A-1 Tang, M. X., ...... P2B-1 Ujalayan, P., ...... P3I-2 Taniguchi, K., ...... P2E-5 Umemura, S., ...... P2C-2 Tanji, K., ...... 5G-2 Umemura, S.-I., ...... 2K-3, 2E-4, 2F-6 Tanter, M., ...... 1E-4, 1G-6 Upadhyayula, A., ...... P1F-8 Tao, J., ...... P1G-5 Ura, T., ...... P1E-2 Tasinkevych, Y., ...... P1K-9 Urban, M., ...... PS-6, 1F-4, 2A-3 Tasker, D., ...... 4F-5 Urheim, S., ...... PS-3, 6G-5 Tavakkoli, J., ...... 2G-3 Tay, C., ...... P1H-2 Vaezy, S., ...... 2J-2, 2K-5, P2C-6, P3M-1, Taziev, R., ...... P1J-5 6K-6, P2C-10 Tejado, J. J., ...... 3D-5 Vaithilingam, S., ...... 4G-4 ten Cate, F. J., ...... 1K-6 Valero, H. P., ...... 4E-2 Tencate, J., ...... P3C-2 van Burken, G., ...... 1K-2 Teston, F., ...... P2K-4 van Damme, L. C. A, ...... 1B-5 Thijssen, J. M., ...... 1G-2, 2A-6 van de Vosse, F., ...... 1J-5 Thomas, R., ...... 1E-2 van den Berg, M., ...... 3K-6

80 van den Bosch, A., ...... 1K-1 Wang, L., ...... P1M-6, 3B-5 van der Geest, R. J., ...... 1K-2 Wang, M., ...... 4I-5 van der Meer, S., ...... 1I-2 Wang, N., ...... 4J-3 van der Sar, E., ...... 5A-5 Wang, Q., ...... P3L-3 van der Spek, P., ...... 1K-1 Wang, S., ...... P3I-12 van der Steen, A., ...... P1C-2, 1C-5, 1J-5 Wang, S.-H., ...... P2A-6, P2C-12 van der Steen, A. F. W, . 1B-5, 1C-1, 1K-2, Wang, W., ...... 5D-6, P1J-10 1C-3, 1C-4, 1K-4, 1K-6, P3M-3, Wang, X., ...... P1G-1 P3B-4 Wang, X.-Y., ...... P3F-6 van Geuns, R. J., ...... 1K-6 Warriner, R., ...... P1A-3 van Geuns, R. J. M., ...... 1K-2 Watanabe, Y., ...... P2F-5, P2F-6 van Hees, N., ...... 2A-6 Wauters, J., ...... 2B-2 van Neer, P., ...... 1J-5 Weber, J., ...... 3K-3, 5B-2 van Stralen, M., ...... 1K-2, 1K-4 Webster, R., ...... P1L-4 van Wamel, A., .... 1A-1, 1I-3, 1I-4, P3B-4 Wei, C.-W., ...... P1A-6 Vanhelmont, F., ...... 5A-5 Weigel, R., ...... 5J-2 Varady, M., ...... 4J-1 Weihnacht, M.,P2H-1, P2I-4, 3A-5, 5H-1, Varslot, T., ...... P3A-1, 6K-4 5D-2 Vasic, D, ...... 6H-3 Weijers, G., ...... 2A-6 Vasseur, J., ...... 4A-4 Weinstein, D., ...... 4H-1 Velard, R., ...... 4H-4, P2G-4 Weiss, E. C., ...... 2H-6 Venkateswar, S., ...... 4E-3 Weitzel, W. F., ...... 2D-1 Ventura, P., ...... 5F-3 Wells, P. N. T., ...... 2C-1 Vera, A., ...... P3K-1 Welp, C., ...... 2J-4 Vercelloni, N., ...... 5J-3, 5K-6 Wen, J., ...... P3I-4 Verdonck, P., ...... 2B-2 Wentzel, J ., ...... 1C-5 Vergara, L., ...... P2F-1, P2I-6, P2E-7 Wentzel, J., ...... P1C-2 Vermesan, O., ...... 3B-6 Werner, J., ...... 2J-4 Verona, E., ...... P2H-5 White, N. M., ...... 4J-2 Versluis, M., ...... 1I-2, 1I-4, 3K-6 White, R. M., ...... 5J-4 Vestrheim, M., ...... P1F-1 Wickline, S., ...... 1D-5, 2F-1, P2C-1, 2I-4 Vetelino, J., ...... PS-7, 3A-2, 3F-3 Wiemer, M., ...... P2K-7 Vicini, P., ...... 2E-6 Wijshoff, H., ...... 3K-6 Vignon, F., ...... 1E-4 Wilkening, W., ..... 2G-1, 2F-5, 3D-3, 6J-6 Vilkomerson, D., ...... 2D-5 Wilkens, V., ...... 2J-3, P3B-3 Vincent, B., ...... 3I-6, 5H-3 Willatzen, M., ...... P1M-6 Vincent, P., ...... 5A-2 Williams, J., ...... 6A-2 Viola, F., ...... P3A-5 Williams, R., .... P1F-8, 2D-2, 2G-3, 6A-1 Vlaanderen, E., ...... 1J-5 Wilm, M., ...... P2K-8, 5F-2, 6C-1 Vletter, W. B., ...... 1K-6 Wilmer, A., ...... 2B-2 Vogt, M., ...... 1E-5 Wingqvist, G., ...... 3A-3, 5C-2 Voisin, D., ...... P3M-6 Witte, R., ...... 1B-4, 2C-4 Volatier, A., ...... PS-10, 4H-3 Wodnicki, R., ...... 1E-2 Vollmann, J., ...... P1G-10 Woelky, M., ...... 5A-3 von Garssen, H.-G., ...... 6E-4 Wojcik, J., ...... P3A-8 Voormolen, M. M., ...... 1K-2, 1K-4, 1K-6 Wójcik, J., ...... P1E-3 Vos, H., ...... 2G-4 Wolf, P., ...... 2J-1, 4G-5 Vos, H. J., ...... 1C-1 Wong, J., ...... 4F-4 Vykhodtseva, N., ...... 2K-4 Wong, K. Y., ...... P1J-7 Wong, S., ...... 2I-6 Wada, K., ...... P1E-2, 5I-1 Wood, A. K. W., ...... 2I-1 Wade, C., ...... 5A-6 Woodson, A., ...... 1D-5, 2F-1 Wagner, K., ...... 5J-2, 5D-3, 5I-6 Worthington, A., ...... 2H-5 Wagner, K. Ch., ...... 5E-3 Wouters, P. F., ...... P1B-2 Wagner, P., ...... 6D-1 Wright, O. B., ...... 4A-2 Walker, W., P1D-1, P1D-5, P1E-5, 2C-5, Wright, P., ...... 5E-1 6J-3 Wright, W. M. D., ...... P3D-3 Walker, W. F., ...... P3A-5 Wu, B., ...... P3F-6 Wall, B., ...... 5D-2 Wu, C. C., ...... P2C-5 Wall, K., ...... P1D-3 Wu, C.-H., ...... P2C-3 Wallace, J., ...... 3B-5 Wu, H., ...... 5D-6, P1J-10 Wallace, K., ...... PS-2, 2H-1, 6J-2 Wu, M., ...... 1J-3 Walsh, M., ...... P2J-3 Wu, P., ...... 3C-4 Wang, C. R., ...... P1A-6 Wu, T.-T., ...... 4A-5, 4A-6, P3I-13 Wang, D., ...... P1G-8, 3F-2 Wu, T.-Y., ...... 4H-6 Wang, G. I., ...... 1H-1 Wu, Z., ...... P3K-3 Wang, H., ...... P1J-10 Wygant, I., ..... PS-17, P2K-1, 4G-2, 4F-4, Wang, H.-L., ...... 2B-5 4G-4, 6D-2 Wang, J., ...... P1E-9 81 Xia, C., ...... 4I-5 Yong, Y.-K., ...... 4H-5, 5J-5, 5J-6 Xie, H., ...... PS-5, 1G-1, 2D-1 Yoo, Y. M., ...... P3D-6 Xie, Y., ...... P1K-6, 5K-1 York, C., ...... 3A-2 Xu, J., ...... P1H-2 Yoshida, S., ...... 3B-2 Xu, L., ...... 2A-5 Yoshikawa, H., ...... 2E-4, 2F-6 Xu, X., ...... P3L-2 Yoshikuni, M., ...... 6F-3 Xu, X.-C., ...... P1E-6 Yoshino, Y., ...... P2F-4 Yoshizawa, A., ...... 2F-6 Yagi, S., ...... P1B-1 Yoshizawa, M., ...... P3E-1 Yajima, A., ...... P3J-1 Ytterdal, T., ...... 1E-3 Yakovleva, T., ...... P3E-3 Yu, A., ...... P1A-3 Yamada, H., ...... P2F-4 Yu, F., ...... 2H-3 Yamada, Y., ...... P1F-3 Yu, W., ...... 4I-5 Yamaguchi, M., ...... P1K-8, P3I-4, P3I-6 Yup Lee, S., ...... 3F-4 Yamaguchi, Y., ...... 5I-5 Yamakawa, M., ...... P2D-2, P2D-3 Zabelin, A. N., ...... 4E-6 Yamakoshi, Y., ...... 1A-3 Zachary, J. F., ...... 2H-2 Yamanaka, K., .. P2H-8, 3F-1, 3K-1, 3H-3, Zaitsev, B., ...... 4K-1 P3F-1 Zanin, A. L., ...... P3K-1 Yamanouchi, K., ...... P3I-10 Zapf, M., ...... P3D-5 Yamashita, Y., ...... 6B-2 Zderic, V., ...... 2J-2, 2K-5, P3M-1, 6K-6, Yamazaki, D., ...... P2H-4 P2C-10 Yambe, T., ...... 3D-6 Zeng, J., ...... 4C-5 Yanagimura, H., ...... 2A-2 Zenk, J., ...... 6G-1 Yanagitani, T., ...... P2F-5, P2F-6 Zeqiri, B., ...... P1F-2 Yanase, N., ...... 5B-3 Zhai, L., ...... 1F-2 Yañez, Y., ...... P1G-4, P3F-3 Zhang, C., ...... P1G-8 Yang, C.-H., ...... 3I-1 Zhang, D., ...... P1L-4, 3C-3 Yang, J., ...... P1H-2 Zhang, H., ...... P1G-1, P1G-8, P3H-7 Yang, M., ...... PS-2, 2H-1 Zhang, Q., ...... P3G-1 Yang, S.-M., ...... P3F-6 Zhang, Q. M., ...... P3L-3 Yang, Z., ...... PS-4, 1D-2, 1D-4 Zhang, S. H., ...... P3L-3 Yantchev, V., ...... P1K-2 Zhang, X., P1B-6, 3I-2, 3I-3, 5D-6, P1J-10 Yao, H., ...... 2K-1, 6K-5 Zhao, C., ...... 4C-5, 4C-6 Yaralioglu, G., ...... 1E-2, 6D-2, 6E-6 Zhao, H., ...... P1G-1 Yasumoto, T., ...... 5B-3 Zhgoon, S., ...... 5D-1 Yeh, C.-K., ...... P1C-3, P2C-9 Zhigang, Z., ...... P1G-5 Yeh, D., PS-17, P2K-1, 4G-2, 4F-4, 4G-4, Zhou, Q., ...... P3L-2 6D-2 Zhou, S., ...... P2K-2, P3M-4 Yen, J., ...... P1E-6 Zhou, Y.-Q., ...... 2D-2 Yin, J., ...... 6A-1 Zhuang, X., ...... P2K-1, 4G-4, 6D-2, 6E-3 Yin, X., ...... 2K-2 Zidek, H., ...... 5D-3 Ylilammi, M., ...... P2F-3, P2G-5 Zimer, L. S., ...... 2I-1 Yogi, T., ...... 4B-4 Zipparo, M., ...... P3M-2 Yokoyama, N., ...... 5I-5 Zyryanova, A. V., ...... 4I-1 Yokoyama, T., ...... 5A-4

82 NOTES

83 DE DOELEN FLOOR PLAN

ground floor

LIFT

TOILET

COFFEE TOILET CORNER Poster TOILET Sessions

VAN EXPO HAL CAPPELLEN ZAAL Room 6 OOR

TO FI Registration

COAT-CHECK & Information

COAT- CHECK TOILET

LIFT LIFT

KRUISPLEIN ENTRANCE

first floor

TO THIRD FLOOR

LIFT LIFT

Exhibits Exhibits WESTIN HOTEL

VAN DER FOYER MANDELE ZAAL COFFEE CORNER COFFEE CORNER Exhibits

Room 3 LIFT S

ON ESK

D RABOBANK ZAAL

ON Room 2

SESSI JURRIAANSE ZAAL

TER

POS

REGISTRATI

TOILET

84 DE DOELEN FLOOR PLAN

third floor

TOILET

COFFEE CORNER

Room 1 WILLEM FOYER BURGER ZAAL

LIFT

COFFEE CORNER

LIFT LIFT TOILET

Committee Committee Speaker Service Meetings Meetings Center (SSC) VAN BEUNINGEN ZAAL SCHADEE ZAAL HUDIG ZAAL

fourth floor

TOILET

LIFT

Room 4 MEES ZAAL FORTIS BANK ZAAL

LIFT LIFT TOILET

VAN DER Room 5 VORM ZAAL RUYS ZAAL

85 NOTES

86 NOTES