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Computational Physics:     more books (100)

Methods in Computational Physics (Advances in Research and Applications, Volume 9- Plasma Physics by Unknown, 1970 Computational Physics: Proceedings of the Ninth Physics Summer School : The Australian National University, Canberra, Act 0200, Australia, 8-25 January 1996 by Physics Summer School 1996 (Australian National University), Henry J. Gardner, et all 1997-06 Methods In Computational Physics Advances In Research and Applications Volume 1 Statistical Physics by Berni et All Alder, 1963 Journal of Computational PhysicsVol. 215, No. 1June 10, 2006 by Journal of Computational Physics Staff, 2006 Journal of Computational PhysicsVol. 220, No. 2January 10, 2007 by Journal of Computational Physics Staff, 2007 Computational Physics Flux Coordinates and Magnetic Field Structure: A Guide to a Fundamental Tool of Plasma Theory (Springer Series in Computational Physics) by W.D. D'haeseleer, W.N.G. Hitchon, et all 1990-11-30 Computational Methods for Kinetic Models of Magnetically Confined Plasmas (Springer Series in Computational Physics) by J. Killeen, G.D. Kerbel, et all 1986-04 Computational Approaches in Condensed-Matter Physics: Proceedings of the 6th Nishinomiya-Yukawa Memorial Symposium, Nishinomiya, Japan, October 24, 1 (Springer Proceedings in Physics) by S. Miyashita, M. Imada, 1992-12 Journal of Computational PhysicsVol. 214, No. 1May 1, 2006 by Journal of Computational Physics Staff, 2006 Methods In Computational Physics Vol. 15 Vibrational Properties Of Solids Finite Difference Techniques for Vectorized Fluid Dynamics Calculations (Springer Series in Computational Physics) Methods in Computational Physics Volume 1 by Berni Alder, 1963 Computational Accelerator Physics (AIP Conference Proceedings)

lists with details

121. U Of I Computational Optical And Discharge Physics Group
     Projects on numerical plasma simulation, including HPEM code, Monte Carlo Module, and Feature Profile Model, developed at the computational Optical and Discharge physics Group, University of Illinois.  
     http://uigelz.ece.uiuc.edu/Projects/index.html

122. Cookies Required
     A joint publication of the IEEE Computer Society and the American Institute of physics. It covers computational science and engineering research for a broad range of technical fields. Current and past issues are browsable and searchable.  
     http://ojps.aip.org/cise/
     
     Extractions: What is Scitation? News Contact Us Help Welcome to Scitation. Sign In Register EXIT Home ... Usage Reports Welcome! Sign In Sign up for free Send Feedback ... Learn more about our new features! ALERT! This service requires a web browser and/or firewall/network configuration that supports and accepts cookies. You may have been redirected to this page for one or more of the following reasons: You are using a browser that supports cookies, but cookie acceptance is disabled. You are using an older browser that does not support cookies. You are utilizing a personal firewall that is configured to override your browser settings and reject cookies. You are accessing Scitation from a network or proxy that is configured to reject cookies. (1) Browsers that support cookies: You may be using a browser that does support cookies, but you have cookies disabled. Setting up your browser to accept cookies is straightforward in most current versions of Scitation's recommended browsers . Once you have enabled cookies, you may continue to the URL you requested or return to the previous page (2) Browsers that do not support cookies: If you are using a browser that does not support cookies, you must upgrade to a cookie-capable browser. Consult the Scitation

123. (Israel) Weizmann Institute Of Science, Rehovot
     The Carl F. Gauss Minerva Center for Scientific Computation. New fundamental computational approaches in physics, chemistry, applied mathematics and engineering, introducing, in particular, advanced multiscale (multi-resolution) and parallel-processing methods.  
     http://www.wisdom.weizmann.ac.il/~achi/gaussctr.html
     
     Extractions: Achi Brandt, Director The Gauss Center was officially inaugurated in the fall of 1993, thanks to a generous endowment from the Ministry for Science and Technology (BMFT) of the Federal Republic of Germany, through the joint committee for German-Israeli cooperation (Minerva). Its objective is to act as a catalyst for the development of new fundamental computational approaches in physics, chemistry, applied mathematics and engineering, introducing, in particular, advanced multi-scale (multi-resolution) and parallel-processing methods. The Gauss Center interacts with many fields of application, contributing to the transfer of algorithmic ideas back and forth among widely varying types of problems. It offers workshops, short courses, temporary supervision and graduate studies for full-time students, guest students, and visiting scientists. The Gauss Minerva Center's technical report series is available for downloading. So is also a detailed survey paper of all the current projects, briefly listed below.

124. Workshop On Computational Complexity And Statistical Physics
     Santa Fe, New Mexico, USA; 46 September 2001.  
     http://cnls.lanl.gov/~gistrate/conference/cfp.html
     
     Extractions: Recently, there has been increasing interest among computer scientists, physicists and mathematicians in the study of phase transitions in combinatorial problems. The most challenging instances of such problems are often found near a threshold in parameter space, where certain characteristics of the problem change dramatically. However, the precise nature of the link between algorithmic complexity and phase transitions remains tentative. A better understanding of critical phenomena in this context will be invaluable to improving our current notions of algorithmic performance. This 3-day workshop aims to bring together researchers in theoretical and experimental computer science, physics and mathematics. The goal is to provide an interdisciplinary forum for the exchange of ideas, enabling a better understanding of the state-of-the-art, and more ambitiously, charting the course towards a theory of critical phenomena in algorithmic problems. It is expected that some of the papers presented at the workshop will be included in an edited volume, to be published in the Santa Fe Institute "Studies in the Sciences of Complexity" series.

125. Journal Of Nonlinear Mathematical Physics, Home Page
     Papers on fundamental mathematical and computational methods in mathematical physics. Full text, free from vol.5 (1998).  
     http://www.sm.luth.se/~norbert/home_journal/

126. Indextest.html
     Multidisciplinary research and engineering at the interface of biology, chemistry, physics, and computational biology  
     http://bdiv.lanl.gov/

127. Marius Clore Group / NIH
     G. Marius Clore; Laboratory of Chemical physics, NIDDK, NIH; Research Macromolecular NMR of protein complexes, development and application of improved NMR and computational methods for NMR structure determination.  
     http://spin.niddk.nih.gov/clore/

128. MadMax Optics - FMM Toolbox™ For MATLAB©
     Provides robust, fast, and highorder accurate solvers for a core set of partial differential equations - including the Laplace, Poisson and modified Helmholtz equations. free These arise throughout classical and modern physics, in areas such as electrostatics, magnetostatics, incompressible flow, astrophsyics, and computational chemistry.  
     http://www.madmaxoptics.com/technology/products/FMMToolbox.asp

129. Modern Methods Of Time-Frequency Analysis
     Special session at the Erwin Schrödinger Institute for Mathematical physics (ESI), Vienna, Austria. Topics Group theoretical methods, operator theory, and nonorthogonal expansions; Time-frequency methods for pseudo-differential operators; Non-orthogonal expansions and greedy algorithms; Noncommutative computational harmonic analysis. 4 April - 9 July 2005.  
     http://www.univie.ac.at/NuHAG/ESI05/
     
     Extractions: Organizers: Hans G. Feichtinger, K. Gröchenig, J.J. Benedetto We are presently running a special semester on modern time-frequency analysis spring 2005 at ESI The conference in Strobl (late May) has to be seen as a separate event in this respect and different funding rules apply. (New) registration and updates, change of dates or information about the talks can be entered into our DATABASE here ! (note that it is not linked with the ESI secretaries, so that hotel arrangements etc. have to be made via E-mail to them directly) Complete ESI-visitors list some PICTURES from the first two meeting + HASSIP workshop and midtermmeeting (new "thumbnails"). Some NEW PICTURES from the June - Workshop. SURVEY of SCHEDULES and PREVIEW: (people) click here !! (overview) over participation and talks. Thes is no a complete list of ESI-Talks so far! ACCESS to NuHAG talks (also for the purpose of editing and adding links!!

130. RANDOM STRUCTURES
     Two linked workshops within the Computation, Combinatorics and Probability programme at the Isaac Newton Institute, Cambridge, UK. Part I Combinatorial and computational Aspects of Statistical physics; 2630 August 2002. Part II Random Graphs and Structures; 26 September 2002.  
     http://www.newton.cam.ac.uk/programmes/CMP/cmpw02.html
     
     Extractions: The heading "random structures" is intended to cover both the finite (random graphs, partial orders, etc.) and infinite (configurations of some physical model on an infinite lattice). Our aim is to bring together combinatorialists, probabilists, physicists and theoretical computer scientists to engage in an interdisciplinary meeting that will study random structures from various directions. Structure There will be two linked workshops: Combinatorial and computational aspects of statistical physics and Random graphs and structures . The overarching theme that unites these two is that of phase transition, broadly interpreted. A rough distinction between the two workshops might be that the first deals with phase transitions in infinite systems (e.g., the Ising model on the 2-dimensional square lattice), and the second with "phase transitions" in finite structure (e.g., random graphs or random partial orders). However, this distinction is certainly not intended to be a hard-and-fast. Computational questions - such as the extent to which phase transitions may coincide with the boundary between tractable and intractable - will certainly be addressed.

131. Jeffrey C. Lagarias
     University of Michigan. computational Complexity Theory, Cryptography, Diophantine Approximation, Discrete and computational Geometry, Dynamical Systems, Harmonic Analysis; Mathematical physics, Optimization, Number Theory. Publications, courses.  
     http://www.math.lsa.umich.edu/~lagarias/

132. Birdsall Charles K.
     computational plasma physics, object oriented electromagnetic PIC, applications of relativistic ebeam high power microwaves. Plasma Theory and Simulation Group (PTSG), University of California at Berkeley, USA.  
     http://divine.EECS.Berkeley.EDU/~birdsall/

133. School Of Computing, Mathematical And Information Sciences
     computational Mathematics Group. Interests include Acoustics, Bubble dynamics, Diffusion in gels and Plasma physics.  
     http://www.it.bton.ac.uk/Research/cmg/
     
     Extractions: undergraduate postgraduate professional consultancy ... contacts Information about... Faculty of MIS Brighton Business School School of Service Management CENTRIM B.U.R.K.S. (Resource Kit) CMIS Intranet Undergraduate Courses Postgraduate Courses Courses for Working Professionals Consultancy Research Contact Us Search for CMIS Staff University of Brighton Student Intranet Staff Central Computational Mathematics Group PRINCIPAL STAFF : Dr. Roma Chakrabarti, Dr. Steve Ellacott Dr. Paul Harris , Dr. David Henwood, Mr. Keith Parramore and Dr. William Wilkinson. For further information about staff, look at the CMIS Staff Search CURRENT RESEARCH STUDENTS: David Chappell, Philip Newman The Computational Mathematics Group is involved with a number of on-going research projects. The details of some of these are listed below.

134. Computational Science Group
     RuprechtKarls-Universität Heidelberg. computational Science Group Introduction to the Statistical physics of Polymers  
     http://wwwcp.tphys.uni-heidelberg.de/
     
     Extractions: Sprechstunde: Per E-Mail-Vereinbarung donnerstags 13 bis 14 Der Inhalt der Vorlesung Theoretische Biophysik wird in Kürze hier einzusehen sein. Für diejenigen, die am zweiten Test zur Vorlesung Theoretische Physik IV nicht teilnehmen konnten, wird eine Nachklausur angeboten. Diese wird in der ersten Semesterwoche angeboten. Der genaue Termin wird an dieser Stelle zu einem späteren Zeitpunkt bekannt gegeben. Die Anmeldung erfolgt per E-Mail. Seminarthemen zum Seminar Theoretische Physik IV: Statistische Mechanik

135. Discrete Random Walks 2003
     Theory and Applications in Combinatorics, computational Biology, Computer Science, Probabilities, and Statistical physics. Institut Henri Poincaré, Paris, France; 15 September 2003.  
     http://algo.inria.fr/DRW2003/
     
     Extractions: Retrospective in Combinatorics Honoring Stanley's 60th birthday (MIT, June 22-26, 2004) DRW2003: Scope of the conference Scientific committee Cyril Banderier , CNRS, LIPN, Université de Paris-Nord (Villetaneuse, France) Mireille Bousquet-Mélou , CNRS, LaBRI, Université de Bordeaux 1 (Talence, France) Ira Gessel , Brandeis University (USA) Christian Krattenthaler Didier Piau , LaPCS, Université Claude Bernard Lyon-I (Lyon, France) Philippe Robert , INRIA (Rocquencourt, France)

136. MainPage
     Postdoctoral Researcher at Brandeis University. Research interests are computational fluid dynamics, particlesolid and plasma interaction physics, plasma physics, biophysics of membrane proteins.  
     http://people.brandeis.edu/~gennady/

137. Callen, James D.
     Theoretical and computational plasma physics, controlled thermonuclear fusion, magnetic confinement of plasmas. Center for Plasma Theory and Computation, University of WisconsinMadison.  
     http://www.engr.wisc.edu/ep/faculty/callen_james.html

138. Department Of Physics - UCSL Project
     The Undergraduate computational Science Lab (UCSL) is a joint venture between the departments of physics, Chemistry, and Applied Computer Science.  
     http://www.phy.ilstu.edu/UCSL/UCSL.html
     
     Extractions: Degree Programs Research Programs Physics Courses Faculty and Staff ... Home The Undergraduate Computational Science Lab (UCSL) is a joint venture between the departments of Physics, Chemistry, and Applied Computer Science. The lab provides the basis for development of both curricular and research initiatives in multidisciplinary conputational science. Faculty from these departments have developed a sequence of interdisciplinary and specialized courses designed to enhance students' knowlege of and experience with solving science problems with computational methods.

139. Computational Plasma Physics
     computational plasma physics and controlled fusion, stellarator theory. Division of computational Fluid Dynamics, Courant Institute of Mathematical Sciences, New York University, USA.  
     http://www.math.nyu.edu/faculty/garabedi/index.html

140. COCHEM'03
     Nonlinear phenomena in computational chemical physics. Barcelona, Spain; 914 June 2003.  
     http://www.imub.ub.es/cochem/

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