Curriculum Vitae
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Curriculum Vitae Simon J. L. Billinge Dept. Applied Physics and Applied Mathematics Condensed Matter Physics and Materials Science Dept. Columbia University Brookhaven National Laboratory 200 Mudd, MC 4701 (Mailing Address), P.O. Box 5000 1105A Mudd (Office) Upton, NY 11973-5000 500 W 120th St (631) -344-5661 (phone) New York, NY 10027 (212) 854-2918 (phone); (212) 854 -1909 (fax) [email protected], http://bgsite.apam.columbia.edu/ Professional Preparation University of Oxford, Materials Science, 1986 BA University of Pennsylvania Materials Science and Eng., 1992 Ph.D. Los Alamos National Laboratory Condensed Matter Physics, 1992 -1994 Postdoc Appointments 2008-present Professor of Materials Science and Applied Physics and Applied Mathematics, Columbia University 2008-present Physicist, Condensed Matter Physics and Materials Science Department, Brookhaven National Laboratory 2012 Long Term Visitor, Institute Laue Langevin, Grenoble, France 2011-2012 Long Term Visitor, European Synchrotron Radiation Facility, Grenoble, France 2003-2007 Professor of Physics, Michigan State University 2001-2002 Visiting Professor, University of Rome, ‘La Sapienza’ 1999-2003 Associate Professor of Physics, Michigan State University 1994-1999 Assistant Professor of Physics, Michigan State University 1992-1994 Director’s Post-doctoral Research Fellow, Los Alamos National Laboratory Awards, and Honors 2015 Texas A&M Clearfield Endowed Lecturer 2014 Fellow of the Neutron Scattering Society of America 2012 Neutron Scattering Society of America Service Award for outstanding service 2012 Editor of Acta Crystallographica Section A: Foundations of Crystallography 2011 Fulbright Research Scholar 2011-2012 2011 Carnegie Foundation of New York honored as one of 24 Outstanding Immigrants 2011 Co-editor of Journal Acta Crystallographica Section A: Foundations of Crystallography 2010 J. -
Assistant Professor of Physics
THE BIOLOGICAL PHYSICIST The Newsletter of the Division of Biological Physics of the American Physical Society Vol 5 No 4 October 2005 DIVISION OF BIOLOGICAL PHYSICS EXECUTIVE COMMITTEE Chair Peter Jung In this Issue [email protected] Immediate Past Chair FEATURE Denis Rousseau [email protected] A Conversation with Mal Teich S. Bahar…………………………………………….…....….......2 Chair-Elect Marilyn Gunner [email protected] ANNOUNCEMENT Biological Physics Prize Awarded to A. G. Redfield….…...6 Vice-Chair Dean Astumian MARCH MEETING UPDATE [email protected] 2006 March Meeting Symposium Schedule………………...7 Secretary/Treasurer Put Capitol Hill on your 2006 March Meeting Itinerary!.. ..8 Shirley Chan [email protected] PRE HIGHLIGHTS……………………………………….….…….9 APS Councillor Robert Eisenberg JOB ADS…………………..…………………………….…..…..12 [email protected] At-Large Members: MARCH MEETING SUPPLEMENT Ka Yee C. Lee List of DBP Symposia, Focus Sessions, [email protected] and Invited Speakers....………………….…..follows page 16 Herbert Levine [email protected] Lois Pollack [email protected] This issue of THE BIOLOGICAL PHYSICIST Stephen Quake brings you a feature interview with Boston University’s Mal [email protected] Teich, who has recently published, with co-author Steve Stephen J. Hagen Lowen, a new book on Fractal-Based Point Processes [email protected] (Wiley 2005). Chao Tang [email protected] We also bring you the announcement of the winner of Newsletter Editor the Biological Physics Prize, important information about the Sonya Bahar upcoming March Meeting, including a listing of all [email protected] Symposia and Focus Sessions, and a tentative schedule of Website Coordinator Symposia. (Remember that the abstract submission Andrea Markelz deadline is Wednesday November 30!) Finally, we bring [email protected] you PRE Highlights, and a plentiful batch of job ads, as the Website Assistant fall academic hiring season gets into full swing. -
BIRS Workshop 04W5017, July 17 - 22, 2004 Modeling Protein Flexibility and Motions
BIRS Workshop 04w5017, July 17 - 22, 2004 Modeling Protein Flexibility and Motions Chief Organizer: Walter Whiteley (Mathematics and Statistics, York University) March 8, 2006 Organizers: Michael Thorpe (Physics, Arizona State University), Leslie Kuhn (Biochemistry, Michigan State University). Overview of the Subject Following from work on the genome, the focus is shifting to protein structure and function. Much of the function of a protein is determined by its 3-D structure and motions (often in complexes of several molecules). The structure of many new proteins is being determined by x-ray crystallography and by nuclear magnetic resonance techniques. One can then study both local flexibility (adapting shape to fit with other molecules) and larger motions. One can also study the impact of other contacts such as ligands (drugs), or binding into complexes of proteins, DNA etc. in changing the shape and flexibility. An important area of current research in biochemistry, computational geometry and in applied mathematics is the computer modeling of such behavior: which sections are rigid, under certain conditions; the possible motions; unfolding pathways; multiple configurations with different biological functions; and paths between these configurations. Figure 1: Showing the various elements in the body-bar representation of a folded protein structure that are used in many algorithms for rigidity including FIRST. The mathematical theory of rigidity, and related techniques from geometric constraint theory (CAD, robotics), are one set of tools for such computer modeling. Applications of such techniques 1 to protein flexibility have been expanding over the last few years, centered on the program FIRST. A short summary of the current state of the art for the combinatorics central to the rigidity methods and the robotics methods includes three factors: 1. -
08W5104 Rigidity, Flexibility, and Motion: Theory, Computation and Applications to Biomolecules
08w5104 Rigidity, Flexibility, and Motion: Theory, Computation and Applications to Biomolecules Walter Whiteley (York University) Maria Kurnikova (Carnegie Mellon University), David Richardson (Duke University) Jack Snoeyink (University of North Carolina) Michael Thorpe (Arizona State University) July 6–July 11, 2008 1 Overview of the Field Following from work on the genome, the focus is shifting to protein and RNA structure and function. Much of the function of a biomolecule is determined by its 3-D structure (shape) and motions (often in combi- nation). While static structures of many new proteins is being determined by x-ray crystallography and by nuclear magnetic resonance techniques (work represented by several invitees),understanding the function of biomolecules requires understanding of conformational changes of these structures in time, e.g. dynamics. Therefore much interest has been focused recently in experimental and computational approaches to study dynamics of biomolecules on different timescales ranging from femtoseconds (local vibrations) to motions on the micro-to millisecond timescale (large-scale motions). In other words, the emphasis now is to describe a biomolecule in an ensemble of appropriate conformations rather than just as a single, static structure. In this context the impact of other contacts such as ligands (drugs), or binding of other proteins, RNA, DNA etc. to the multidimensional energy landscape need to be addressed. It is apparent that experimental approaches yield important but limited information. Computational approaches have to play a crucial role in this goal. Computer modeling of possible motions; the conformational accessible space, unfolding pathways; multiple configurations with different biological functions and paths between these are just some of the objectives of current computational geometry and applied mathematics. -
Childhood Directions in Kipling's Early Stories
Reading the Child between the British Raj and the Indian Nation A thesis submitted for the degree of Doctor of Philosophy in the Faculty of Humanities 2013 Veronica Barnsley School of Arts, Languages and Cultures Contents Abstract 5 Declaration 6 Copyright Statement 6 Acknowledgements 7 Introduction 9 Between the British Raj and the Indian Nation 29 The Emergence of the Child 33 Of Child Of Nation: Constancy 42 Of Child Of Nation: Growth 48 Transculture/Transgenre 62 1. Sweet and Versatile: The Child in Kipling’s Indian fiction 67 The Child as Hook and Anchor 77 Plain Tales and ‘Small Books’: Kipling’s Early Stories 84 Rulers and Mascots: ‘His Majesty the King’ and ‘The Drums’ 89 Imitation/Separation: ‘Wee Willie Winkie’ and ‘Baa Baa Black Sheep’ 94 The Child of Old: ‘The Story of Muhammad Din’ 99 ‘Because I am a man, because I am a wolf’: The Jungle Books 103 2 Making the Child Master: ‘Toomai of the Elephants’ 109 ‘Thou art a man-cub’: Mowgli the Boy 111 ‘Beyond his age’: Mowgli the Man 116 Conclusion: ‘It is but a tale I told thee’ 122 2. Infancy and India in the Works of Flora Annie Steel 133 Model Memsahib = Woman Writer 139 The (Dis)appearance of the Child 148 Housekeeping: the Indian Servant as Child 154 Housekeeping: The British Child 162 The Child Story-teller 168 On the Face of the Waters: Mutiny History and the British Family 173 The Angelic Child 179 ‘That other child over across the seas’ 184 ‘Every feeling is historical’ 187 Conclusion 194 3.