Stanford University E N G I N E E R I N G Chemical Engineering Stanford, CA 94305-5025

Total Page:16

File Type:pdf, Size:1020Kb

Stanford University E N G I N E E R I N G Chemical Engineering Stanford, CA 94305-5025 CHAITAN KHOSLA School of Engineering STANFORD Wells H. Hauser and Harold M. Petiprin Professor Keck, Room 337 CHEMI CAL Chair, Department of Stanford University E n g i n e e r i n G Chemical Engineering Stanford, CA 94305-5025 Fall 2010 Dear Chemical Engineering Alumni and Friends, As the new academic year begins, I’d like to tell you about some of the significant events in the Stanford Department of Chemical Engineering over the past year. Our 50th Birthday Party On May 11, at this year’s Mason Lectures, we celebrated the 50th anniversary of the founding of the Stanford Department of Chemical Engineering. And what a celebration it was! Special thanks to Gerry Fuller, Pam Juanes, and a core group of alumni including John Richardson, Eric Lutkin, Carol Fisher, and Lisa Hwang for making the event a huge success. What started as a dream in the brain of the late Professor David Mason half a century ago has now evolved into a department with 15 active faculty, approximately 75 undergraduate majors, more than 100 graduate students, and more than 20 postdoctoral researchers. Last year alone, students and faculty in the department collectively published more than 100 peer-reviewed papers in the primary literature. More than a dozen U.S. patents were awarded to researchers in the department. And somehow, if you ask any student or faculty member, they’ll shrug their shoulders and say that we’re only just getting started. Much has changed in the past 50 years, but some things remain the same. Foremost among the constants are our shared passion for teaching and learning and our unshakeable confidence that as long as Stanford chemical engineers remain well schooled in the foundational sciences of physics, chemistry, and biology, and as long as they are adequately introduced to the awesome conceptual and practical power of the preparative, analytical, and modeling tools that we call chemical engineering, good things will continue to happen. Which they do. In the spirit of acknowledging the preeminence of chemical engineering science to the mission of the department, we invited four stalwarts in the field to share with us their vision of the future of chemical engineering. Robert Davis is the Tisone Chair in the Department of Chemical and Biological Engineering and Dean of the College of Engineering and Applied Science at the University of Colorado at Boulder. His lecture on “Select Problems in Complex Flow with Small Reynolds Numbers” highlighted the pivotal role of transport phenomena in our discipline’s past, present, and future. Glenn Fredrickson is the Mitsubishi Chemical Professor in the Department of Chemical Engineering at the University of California, Santa Barbara. His lecture on “Field- Based Simulations for the Design of Polymer Nanostructures” was a vivid testimony to the enormous leverage that chemical engineers exercise in the area of soft materials design and engineering when they are armed with theoretical skills in statistical thermodynamics. Frances Arnold is the Dick and Barbara Dickinson Professor of Chemical Engineering, Bioengineering, and Biochemistry at Caltech. Her lecture on “How Proteins Adapt: Engineering by Evolution” Phone: 650.723.3132 • Fax: 650.723.9780 • E-mail: [email protected] • Web: cheme.stanford.edu gave us a glimpse into an exciting interface between chemical engineering and biotechnology. Cynthia Friend is the Theodore Williams Richards Professor of Chemistry in the Department of Chemistry and Chemical Biology at Harvard University. Her lecture on “Bridging Surface Science to Catalysis: Gold Shining Through the Pressure Gap” reminded us of the awesome power of catalysis in chemistry, chemical engineering, and society at large. The students, alumni, and faculty in the audience were truly privileged to hear such an inspirational series of lectures by this truly exceptional group of teacher-scholars. That evening we were also treated to a spectacular after-dinner talk by one of our very own alumnae, Dr. Mae Jemison, BS ’77. As the first African American woman to go into space in 1992, Mae did actually reach for the stars. Since then, she has been a successful engineer, doctor, entrepreneur, and catalyst for social change in the United States and across the globe. Her lecture recounted her experiences as a Stanford undergrad and exhorted fellow Stanford chemical engineers to consider the societal and environmental impact of their technological achievements. Nearly 200 of you joined us on May 11 to celebrate the department’s 50th birthday. Once again, I’d like to thank you for coming, and I hope that the occasion was both nostalgic and stimulating for you. Throughout his career, Dave Mason went to great lengths to foster the culture of the Stanford Chemical Engineering family. As guardians of that legacy, my colleagues and I were delighted that you gave us this opportunity to reconnect with you. We hope that you will continue to find value in these family ties, and I look forward to welcoming you back at next year’s Mason Lectures. The 2011 Mason Lectures will be delivered by our very own George “Bud” Homsy, now a professor in the Department of Mathematics at the University of British Columbia. Bud’s lectures will be held May 2-3, 2011. Mark your calendars. New Hires Every new faculty member who joins the Stanford Department of Chemical Engineering greatly influences its mission and long-term direction. I am therefore thrilled to report that, within the past year, we have recruited two new faculty members to our department. Jens Norskov joined our faculty as a professor in June. He is also jointly appointed as a professor of photon science at the SLAC National Accelerator Laboratory. Jens is an accomplished computational scientist who has made seminal contributions to theoretical chemistry and its applications to heterogeneous catalysis. His research has direct relevance to a number of practical problems in energy science and materials science. Prior to Stanford, Jens was at the Technical University of Denmark, where he directed the Lundbeck Foundation’s Center for Atomic-Scale Materials Design. Jens is an elected member of the Royal Danish Academy of Science and Letters and an elected Fellow of the American Physical Society. Last year, he received the prestigious Somorjai Award for Creative Work in Catalysis from the American Chemical Society. At Stanford, Jens is interested in attacking important energy problems including electrochemical and photochemical fuel production, fuel cell design, and energy storage. If there is one message I have received from chemical engineers at peer institutions across the country in my travels in 2010, it is that we are incredibly lucky to have Jens join us. I know you will feel the same when you get to know him and his science. During the past year, under the leadership of Gerry Fuller, we also ran a broad-area search for a junior faculty member. I am pleased to announce the appointment of Elizabeth Sattely as an ChemE-2 assistant professor, effective January 2011. Beth received her PhD in chemistry from Boston College. Her thesis under the supervision of Amir Hoyveda focused on molybdenum-catalyzed synthesis of complex molecules. This work resulted in the publication of four papers in the Journal of the American Chemical Society and also contributed to a major breakthrough in organometallic catalysis published in Nature. In postdoctoral research under the supervision of Christopher Walsh at Harvard Medical School, Beth followed her scientific interests toward yet another horizon—microbial strategies for making complex natural products. Thus far, her postdoctoral research has resulted in the publication of three more papers in JACS. She also co-wrote a comprehensive review on current advances in the understanding of microbial biosynthetic pathways. In recognition of her achievements and potential as an independent investigator, she was awarded a prestigious “K99-R00” Award from the National Institutes of Health. At Stanford, Beth plans to establish a research program in the area of plant metabolism, which could enable innovations in biotechnology and the energy sector. We are delighted to have Beth join us next year. More Faculty News Following are some additional highlights of our faculty’s research and external recognition: Zhenan Bao received grants to start several new directions related to energy research in the past year. Her group received funding from the Global Climate and Energy Project to develop carbon-based transparent electrodes for solar cells. She is part of a Center on Advanced Organic Solar Cells funded by the newly established King Abdullah University of Science and Technology. She is also excited to start a program on carbon-based materials for energy storage recently funded by the Precourt Institute for Energy. Last year, Zhenan was the recipient of the 2009 Beilby Medal and Prize from the Royal Society of Chemistry for her contribution to printable electronics. She was also chosen by the National Science Foundation as an American Competitiveness and Innovation Fellow, which provides her two additional years of funding on one of her current grants. Zhenan notes the graduation of four PhD students in the past year: Maria Wang, Chemical Engineering; Bill Liu, Electrical Engineering; Jung Kyu Lee, Chemistry; and Ajay Virkar, Chemical Engineering. One of her former PhD students, Mark Roberts, will join the faculty of chemical engineering at Clemson University. One of her postdocs, Christopher Bettinger, will join the faculty of bioengineering at Carnegie Mellon University. She enjoyed traveling and giving plenary lectures in China, France, and Korea. She started a three-year term on the Board of Chemical Sciences and Technology for the National Academy of Sciences. Stacey Bent’s research program continues in the area of sustainable energy, with her group working toward cheaper and more efficient solar cells, fuel cells, and catalysts using surface chemistry and materials synthesis at the nanoscale.
Recommended publications
  • 2020 Stanford Bio-X Fellowship Brochure
    STANFORD BIO-X PHD FELLOWSHIPS 2020 Stanford Bio-X Fellows Group Photo 2019 The Stanford Bio-X Graduate Fellowships The mission of the Stanford Bio-X Program is to catalyze discovery by crossing the boundaries between disciplines to bring interdisciplinary solutions, to create new knowl- edge of biological systems, and to benefit human health. Since it was established in 1998, Stanford Bio-X has charted a new approach to life science research by bringing together clinical experts, life scientists, engineers, and others to tackle the complexity of the human body. Currently over 980 Stanford Faculty and over 8,000 students, postdocs, researchers, etc. are affiliated with Stanford Bio-X. The generous support from donors, including the Bowes Foundation, enables the program to remain successful—at any given time, Stanford Bio-X is training at least 60 Ph.D fellows, and Fall 2020 brings 21 new fellows to the program. The Stanford Bio-X Graduate Fellowship Program was started to answer the need for training a new breed of visionary science leaders capable of crossing the bound- aries between disciplines in order to bring novel research endeavors to fruition. Since its inception in 2004, the three-year fellowships, including the Stanford Bio-X Bowes Fellowships and the Bio-X Stanford Interdisciplinary Graduate Fellowships (Bio-X SIGFs), have provided 318 graduate students with awards to pursue interdisciplinary research and to collaborate with multiple mentors, enhancing their potential to gen- erate profound transformative discoveries. Stanford Bio-X Fellows become part of a larger Stanford Bio-X community of learning that encourages their further networking and development.
    [Show full text]
  • Stanford University Engineering Chemical Engineering Stanford, CA 94305-5025
    STANFORD CURTIS W. FRANK School of Engineering William M. Keck, Sr. Professor Stauffer III, Room 111 CHEMICAL Chair, Department of Stanford University EngineerinG Chemical Engineering Stanford, CA 94305-5025 November 2004 Dear Chemical Engineering Alum, It is a pleasure to take this opportunity to tell you about the past year in the Department of Chemical Engineering. Let me begin this annual letter with our most exciting news. We successfully completed two of our three open faculty searches with two extremely strong candidates: Zhenan Bao and Andrew Spakowitz. As you will see from the following descriptions of their work, Zhenan and Andy will add important new dimensions to the research and teaching portfolios of the department. Zhenan Bao joined us in March 2004 as an Associate Professor after eight years at Lucent Technologies – Bell Labs Innovations as a distinguished member of the technical staff. In her research, she takes an interdisciplinary approach to address technologically important issues related to using organic materials for electronic devices. One of her major contributions has been the development of high-performance organic semiconductors for large area flexible circuits and displays. Her current research interests include the understanding of self-assembly at different length scales using building blocks such as organic molecules and nano-objects. Her primary focus lies in chemical and biological sensors, nano-electronic devices, and molecular memories. Zhenan plans to develop new courses that integrate frontier research topics into traditional chemical engineering classes. She currently serves as a member of the executive board of directors for the Materials Research Society and as a member of the executive committee for the Polymer Materials Science and Engineering Division of the American Chemical Society.
    [Show full text]
  • Bubbling with Enthusiasm | Cover Story | Chemical & Engineering News
    Bubbling With Enthusiasm | Cover Story | Chemical & Engineering News http://pubs.acs.org/cen/coverstory/88/8812cover.html Chemical & Engineering News Serving the chemical, life sciences and laboratory worlds Cover Story Home » March 22, 2010 Issue » Cover Story » Bubbling With Enthusiasm March 22, 2010 Volume 88, Number 12 pp. 14 - 18 A love of chemistry has taken Richard Zare in many directions throughout his long career Celia Henry Arnaud Courtesy of Richard Zare View Enlarged Image RING OF LIGHT Zare works with a ring laser in the early 1980s. Courtesy of Richard Zare View Enlarged Image BRIGHT LIGHTS Zare is best known for his work bringing lasers to the study of chemistry. Courtesy of Richard Zare View Enlarged Image 1 of 6 3/22/2010 09:22 Bubbling With Enthusiasm | Cover Story | Chemical & Engineering News http://pubs.acs.org/cen/coverstory/88/8812cover.html NEXT GENERATION Zare shows kids what happens when a ping-pong ball with a tiny hole is dipped in liquid nitrogen. “Enthusiasm” is the word that people mention most often when describing Richard N. Zare, the recipient of the 2010 Priestley Medal, the highest honor bestowed by the American Chemical Society. And he brings that enthusiasm to everything he does—research, teaching, and public service. Zare has loved science for as long as he can remember. His father failed out of graduate studies in chemistry at Ohio State University, so chemistry was treated with respect tinged with sadness in the Zare household. Whenever Zare expressed interest in the chemistry texts around the house, his father would tell him that they only lead to unhappiness.
    [Show full text]
  • Multi-Omic Approaches for Biosynthetic Pathway Prediction in Plants
    Propositions 1. Although guilt-by-association (the principle behind many gene function prediction approaches) promotes “throwing data against the wall to see what sticks”, there is value in interpreting what did not “stick”. (this thesis) 2. To aid data interoperability and re-use, the design of new -omics experiments should always consider the design of previous ones with similar objectives or parameters. (this thesis) 3. Skilled computational scientists make themselves irrelevant for routine tasks, and indispensable for novel ones. 4. Within Academia excess attention is given to the name and prestige of journals, laboratories and authors. 5. The basics of “programming” and “computer science” will soon be seen as analogous to “literacy” and “numeracy”. 6. Children should be taught about life that most adults, if not all, are making it up as they live. Propositions belonging to the thesis, entitled Multi-omics Approaches for Biosynthetic Pathway Prediction in Plants Hernando Suarez Wageningen, 8 February 2021 Multi-omics approaches for biosynthetic pathway prediction in plants Hernando Suarez 2 Thesis committee Promotors Prof. Dr. Ir. D. de Ridder Professor of Bioinformatics Wageningen University & Research Co-promotor Dr. M.H. Medema Assistant Professor of Bioinformatics Wageningen University & Research Other members Prof. Dr. C.S. Testerink, Wageningen University & Research Dr. M.F. Seidl, Utrecht University Dr. S.E. O’Connor, Max Planck Institute of Chemical Ecology, Jena, Germany Dr. R. Cavill, Maastricht University This research was conducted under the auspices of the Graduate School Experimental Plant Sciences 3 Multi-omics approaches for biosynthetic pathway prediction in plants Thesis submitted in fulfilment of the requirements for the degree of doctor at Wageningen University by the authority of the Rector Magnificus, Prof.
    [Show full text]
  • 2016 JGI Secondary Metabolite Abstract Book
    Microbial and Plant Systems Modulated by Secondary Metabolites Meeting May 2–4, 2016 Walnut Creek, California Meeting Abstracts All information current as of April 29, 2016 JGI Contact: Denise Yadon DOE Joint Genome Institute [email protected] The Joint Genome Institute is a user facility of the Department of Energy Office of Science DOE Joint Genome Institute: www.jgi.doe.gov DOE Office of Science: science.energy.gov Agenda Agenda Monday, May 2 (Walnut Creek Marriott) 5:00 – 5:10 PM Opening Remarks Host: Susannah Tringe, JGI 5:10 – 6:00 PM Opening Key Note: Niche adaptation of Julia Vorholt, ETH Zurich the Arabidopsis leaf microbiota 6:00 – 9:00 PM Poster Session and Reception *Refreshments served Tuesday, May 3 (JGI Room 149A) 9:00 – 10:10 AM Overview of the JGI Capabilities Chair: Yasuo Yoshikuni, JGI * Will include morning break & working lunch 9:00 – 9:10 AM Welcome and Introduction Susannah Tringe, JGI *Morning refreshments served 9:10 – 9:25 AM JGI Synthesis Science Yasuo Yoshikuni, JGI 9:25 – 9:40 AM JGI Synthesis Platform Sam Deutsch, JGI 9:40 – 9:55 AM IMG-ABC: A Resource for Biosynthetic Michalis Hadjithomas, JGI Gene Cluster Discovery and Analysis 9:55 – 10:10 AM JGI Metabolomics Trent Northen, JGI 10:10 – 10:30 AM Break 10:30 – 12:05 PM SESSION I: Science from the JGI User Communities 10:30 – 10:35 AM Introduction Yasuo Yoshikuni, JGI 10:35 – 11:05 AM Investigating Plant Terpene Metabolic Philipp Zerbe, Diversity for Pharmaceutical and University of California, Davis Agricultural Applications 11:05 – 11:35 AM Volatile Metabolites
    [Show full text]
  • Net Loss to Adjusted EBITDA: Non-GAAP Reconciliations Three Months Ended December 31 Year Ended December 31 $ in Thousands 2020 2019 2020 2019
    Nature Inspired. Technology Driven.™ FOURTH QUARTER 2020 FINANCIAL RESULTS CONFERENCE CALL, MARCH 4, 2021 © CALYXT, INC. ALL RIGHTS RESERVED Forward Looking Statements We have made these forward-looking statements in reliance on the safe harbor provisions of the Private Securities Litigation Reform Act of 1995. In some cases, you can identify these statements by forward-looking words such as “anticipates,” “believes,” “continue,” “estimates,” “expects,” “targets,” “intends,” “may,” “might,” “plans,” “potential,” “predicts,” “projects,” “should,” “will,” or the negative of these terms and other similar terminology. Forward-looking statements in this report include statements about the potential impact of the COVID-19 pandemic on our business and operating results; our future financial performance; product pipeline and development; our business model and strategies for commercialization and sales of commercial products; regulatory progression; potential collaborations, partnerships and licensing arrangements and their contribution to our financial results, cash usage, and growth strategies; and anticipated trends in our business. These and other forward-looking statements are predictions and projections about future events and trends based on our current expectations, objectives and intentions and premised on current assumptions. Our actual results, level of activity, performance, or achievements could be materially different than those expressed, implied, or anticipated by forward-looking statements due to a variety of factors, including,
    [Show full text]
  • Division of Organic Chemistry
    ORGN DIVISION OF ORGANIC CHEMISTRY S. Silverman and E. McLaughlin, Program Chairs SUNDAY MORNING Section A Pennsylvania Convention Center 116 New Reactions & Methodology S. M. Silverman, Organizer 8:00 1. Copper catalyzed reductive carbonylation of alkyl iodides. S. Zhao, N.P. Mankad 8:20 2. Sulfenate-anion-catalyzed diastereoselective aziridination of imines. Z. Zheng, P.J. Walsh 8:40 3. Cyanoalkylcopper species in carbon-carbon bond forming reactions. D.L. Silverio 9:00 4. New reactivity enabled by cation-π interactions. P.J. Walsh 9:20 5. Dipolar alkynyl-prins (DAP) cyclization for the rapid construction of complex polycycles. S. Abdul-Rashed, G. Alachouzos, A. Frontier 9:40 6. Subphthalocyanines and perylene-diimide derivatives in organic photovoltaics. L. Chockalingam Kasi Viswanath 10:00 7. Silylated α-aminonitriles for late-stage functionalization. T. Mathew, T. Yamato, S.G. Prakash 10:20 8. Synthesis of differentially substituted diynes via tandem nucleophilic addition/fragmentation pathways. A. Tavakoli, G.B. Dudley 10:40 9. Analogues of Bestmann’s ylide, Ph3P=C=C=O: Syntheses, structures and Lewis acid catalyzed cyclizations with organic substrates. C. Krempner 11:00 10. Diastereoselective alkynylations of β-(Bromo)iminium ions via copper(I) catalysis. S.O. Santana, W. Guan, M.P. Watson 11:20 11. Modular three-component difunctionalization of aryl/cyclohexenyl triflates via arynes and cyclohexynes. S. Cho, Q. Wang 11:40 12. 1,2-aminocyanation of alkenes via distal migration. Y. Kwon, Q. Wang Section B Pennsylvania Convention Center 117 Heterocycles & Aromatics S. M. Silverman, Organizer 8:00 13. Formal [4+2] cycloaddition between alkynes and allene-ynes to generate functionalized toluenes.
    [Show full text]
  • Funding Plant Biology in Hard Times 5 Days by RICHARD DIXON in Austin University of North Texas, Denton Enjoy The
    May/June 2016 • Volume 43, Number 3 p. 7 p. 14 p. 25 ASPB Announces ASPB; Making a 2016 Summer 2016 Awards Difference in 2015 Undergraduate Research Fellows THE NEWSLETTER OF THE AMERICAN SOCIETY OF PLANT BIOLOGISTS President’s Letter Funding Plant Biology in Hard Times 5 Days BY RICHARD DIXON in Austin University of North Texas, Denton Enjoy the ’m not sure that I know When I moved to the United Outdoors any research scientist who States in 1988 and started to Iwouldn’t claim that fund- participate on federal grant ing is tight these days. With panels, I was impressed by It’s All About historically low success rates their relatively broad remit, the Food at federal agencies, industry as the system from which I consolidating and pulling had just moved had recently back from supporting science become more difficult to Music Lover’s in the public sector, and state maneuver—only Arabidopsis funding for public universities one year, something else the Paradise no longer what it used to be, next. Although discipline times are hard. Several of the specific, the programs at federal programs that have Rick Dixon USDA and NSF did not spec- Annual been staples for funding plant ify more circumscribed areas biology in the past now have success rates but in large part allocated funding based on Party of less than 10%; this seems a far cry from the best science. Furthermore, most of the the days when I was on panels that funded grants in those days were single investigator around 35% of proposals, some as merit- grants, and if you made good progress, you President’s based awards in which a proposal from a could hopefully count on continued fund- Symposium lab that had shown a strong track record in ing that would see you through your tenure the past would, rightly or wrongly, undergo evaluation and beyond.
    [Show full text]
  • Stanford Energy Research: Year In
    STANFORD ENERGY RESEARCH YEAR IN REVIEW 2018 – 2019 StorageX Initiative Stanford Energy Research | Year in Review 2018 – 2019 Photo: GSB 2017 Promoting Sustainable Solutions Experts navigate a critical moment in energy and climate science. By Marc Tessier-Lavigne “We all stand at the threshold of a major energy transformation at a colossal scale. This transformation will shape the economy, the environment, and the international security and geopolitics of the 21st century. Every nation, region, business and industry ought to pay close attention to this, because it will affect everyone.” Arun Majumdar, co-director with Sally Benson of the Stanford Precourt Institute for Energy, delivered this call to action in his opening address at the inaugural Stanford Global Energy Forum, a gathering of policymakers, technology entrepreneurs, scientists and other energy thought leaders. The forum highlighted the critical juncture we have reached in energy and climate science—a moment that presents both complex problems and new opportunities. The interlinked challenges of tackling climate change and providing clean, reliable energy on a global scale are, without question, defining issues of the 21st century. Stanford is leading the charge to develop new energy strategies and to confront climate change through our Photo: L.A. Cicero research and education missions and through the university’s own operations. Under Stanford’s long-range vision, our sustainability design team has been tasked with prioritizing challenges. Stanford students and postdocs receive support for initiatives that Stanford can undertake to develop transitioning their entrepreneurial ideas from the laboratory sustainability solutions for our region, nation and world. to the marketplace, including through the TomKat Center for We will achieve one of the goals set out in our long-range Sustainable Energy’s Innovation Transfer Program and the vision when Stanford’s second solar power generating plant Stanford Woods Institute for the Environment’s Realizing goes online in 2021.
    [Show full text]
  • Center for Catalytic Science and Technology Research Report
    2007 www.che.udel.edu/ccst Center for Catalytic Science and Technology Research Report Center for Catalytic Science & Technology University of Delaware 150 Academy Street Newark, DE 19716-3117 Phone: (302) 831-8056 Fax: (302) 831-2085 Meet the CCST Faculty Colburn Laboratory Mark A. Barteau Douglas J. Buttrey Jingguang G. Chen Douglas J. Doren ASSOCI A TE DIRECTOR DIRECTOR ASSOCI A TE DIRECTOR Professor of Professor of Professor of Professor of Chemical Engineering Chemical Engineering Chemical Engineering Chemistry and Biochemistry Jochen A. Lauterbach Raul F. Lobo S. Ismat Shah Douglass F. Taber he Center for Catalytic Science and Technology was founded at the University of Delaware in 1978. The Center has pioneered multidisciplinary research in the scientific and engineering principles of catalysis. Over the last two decades, the TCenter has provided research opportunities in all aspects of catalysis to more than 300 students and postdoctoral fellows in the academic departments that it spans (Chemical Engineering, Chemistry & Biochemistry, and Materials Science & Engineering). ASSOCI A TE DIRECTOR ASSOCI A TE DIRECTOR The hallmark of the Center’s research continues to be its strong connection to industrial Professor of Professor of Professor of Physics Professor of practice. These ties have been forged through a number of mechanisms, including the Chemical Engineering Chemical Engineering and Materials Science Chemistry and Center’s Industrial Sponsors Program, industrially supported grant and contract research, Biochemistry collaborative projects with industrial scientists and engineers, and industrial sabbaticals and exchanges of research personnel. The Center’s laboratories, virtually all newly constructed Andrew V. Teplyakov Klaus H. Theopold Dionisios G. Vlachos Brian G.
    [Show full text]
  • Charles Bruce Musgrave Professor of Chemical and Biochemical Engineering University of Colorado at Boulder
    Charles Bruce Musgrave Professor of Chemical and Biochemical Engineering University of Colorado at Boulder EDUCATION Ph.D. Materials Science California Institute of Technology, Pasadena, California September 1994 Advisor: William A. Goddard, III M.S. Materials Science California Institute of Technology, Pasadena, California May 1990 B.S. Materials Science and Engineering University of California, Berkeley, California May 1988 EMPLOYMENT EXPERIENCE 2012 – Professor of Chemical and Biological Engineering University of Colorado Boulder, Boulder, CO 2012 – Fellow, Materials Science and Engineering Program University of Colorado Boulder, Boulder, CO 2012 – Director of the Graduate Program of the Department of Chemical and Biological Engineering University of Colorado Boulder, Boulder, CO 2011 – Professor by Courtesy of Chemistry and Biochemistry University of Colorado Boulder, Boulder, CO 2011 – Associate Chair of Chemical and Biological Engineering University of Colorado Boulder, Boulder, CO 2011 – Fellow, Renewable and Sustainable Energy Institute University of Colorado Boulder, Boulder, CO 2008 – 2012 Associate Professor of Chemical and Biological Engineering University of Colorado Boulder, Boulder, CO 2004-2008 Assistant Professor of Chemical Engineering Stanford University, Stanford, CA 2004-2005 Visiting Professor of Chemistry and Chemical Biology Harvard University, Cambridge, MA 1996-2004 Assistant Professor of Chemical Engineering and Materials Science and Engineering Stanford University, Stanford, CA 1995-1996 Postdoctoral Research
    [Show full text]
  • MESD Newsletter 2011Cover Page Draft
    American Institute of Chemical Engineers Materials Engineering and Sciences Division Newsletter Volume 42 Issue 1 http://mesd.aiche.org August 2011 INSIDE this issue Notes from the Chair 1 Notes From the Chair 2 Upcoming Meetings and Deadlines Dear MESD Members and Friends, 3 Election Biographies It’s been an exciting year in MESD! Spearheaded 4 Election Instructions 5 MESD Officers by past chair, Don Baird, and with generous support from Owens Corning, MESD has instituted a young Technology, Efrosini Kokkoli of the University of investigator award. The Owens Corning Early Career Minnesota, and Ian Suni of Clarkson University. Award recognizes “the outstanding independent There are also two Division Director positions open – contributions to the scientific, technological, those being vacated by Thomas Kuech of the University of educational, or service areas of materials science and Wisconsin – Madison and Holly Stretz of Tennessee Tech engineering” of a division member who is under 40 University. We have three candidates for these two years of age. I am also pleased to announce the positions: Stacey Bent of Stanford University, Sanat Kumar launching of MESD’s new and improved website of Columbia University, and Gregory Parsons of North (thanks, Pete!!) at http://mesd.aiche.org. Do check Carolina State University. Directors serve for two years. back frequently for up-to-date information about the Doug Kalika of the University of Kentucky will continue division! We are also joined by Scott Berger, of his reliable service as Secretary-Treasurer, and is running Center for Chemical Process Safety at the AIChE, as unopposed for this position.
    [Show full text]