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| Editorial by Bernard Bouquin (pdf 28
kB - page 1) |
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Simulation, a new technique,
an ancient tradition, foreword
by Michel Serres (pdf 208
kB - p. 2-5) |
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| Understanding, design, action: the threefold purpose of simulation, by Étienne
Klein (pdf 1.4
MB - p. 6-14) |
| Simulation as methodology
for R&D, by Didier Besnard |
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 What is a numerical simulation? by Bruno Scheurer,
Frédéric Ducros and Ulrich Bleder (pdf 1.1 MB) |
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| SIMULATION FOR UNDERSTANDING |
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Modeling climate, by Pascale Braconnot and Olivier Marti (pdf 2
MB - p. 15-22) |
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Computational resources for high-performance
numerical simulation,
by François
Robin (pdf 1.1
MB) |
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Simulating nuclear-waste
disposal and storage,
by
Imad Toumi, Emmanuel
Mouche and Alain
Bengaouer (pdf 1.7
MB -
p. 23-25) |
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Simulation of materials, by Georges Martin and Gilles Zerah (pdf 3.1
MB - p. 26-33) |
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Modeling biological macromolecules,
by Martin J. Field (pdf 3.2
MB - p. 34-38) |
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Molecular modeling (pdf 500
kB) |
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The changing guise of theory for predictive physics,
by Jean Zinn-Justin (pdf 1.9
MB -
p. 39-44) |
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Simulations in particle physics, by Bruno Mansoulié |
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Modeling surfaces, interfaces
and nanostructures,
by Marie-Catherine
Desjonquères,
Daniel Grempel,
Hervé Ness,
Cyrille Barreteau
and Daniel Spanjaard (pdf 1.7
MB -
p. 45-49) |
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Behavioral modeling, by Nicolas Leclerc, Annie Masson
and Jacques Van der Vliet (pdf 1.4
MB - p. 50-52) |
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| SIMULATION FOR DESIGN |
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The Simulation Program:
weapons assurance without nuclear testing, by Didier Besnard (pdf 2.5
MB - p. 53-63) |
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 Physical modeling: the example of opacity, by Daniel Bouche and Claude Guet |
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Inertial-confinement thermonuclear fusion in
the laboratory,
by Daniel Vanderhaegen,
Sylvie Jacquemot
and Philippe
Baclet |
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Ultra-high-speed diagnostics, the key to detonics
experiments,
by Jean-Pierre
Leyrat and Xavier
Clément |
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Nuclear fuel: modeling the Advanced Plutonium Assembly,
by Richard Lenain (pdf 2.3
MB -
p. 64-69) |
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The contribution of critical mockups in the simulation of nuclear
reactors,
by Philippe Fougeras
and Daniel Rippert |
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Analytical experiments and integral experiments (pdf 1.3
MB) |
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Advances in software engineering, by Thierry N'kaoua (pdf 1.4
MB) |
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Predicting the 3D structure of proteins, by Henri Orland
and Bernard Gilquin (pdf 3.2
MB -
p. 70-73) |
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Simulation of biological
systems, by Xavier Gidrol (pdf 2.6
MB - p. 74-79) |
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Photonic modeling of DNA chips, by Stéphane Gétin |
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Virtual welding, by André Fontes, Yves Lejail, Ève Lariotte
and Hélène Burlet (pdf 1.5
MB - p. 80-83) |
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Optimization of compact heat exchangers by numerical simulation,
by Pierre Mercier
and Patrice
Tochon (pdf 1.4
MB -
p. 84-88) |
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Modeling and simulation of turbulent flows, by Frédéric Ducros (pdf 190
kB) |
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| SIMULATION FOR ACTION |
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Nuclear reactors: from simulation to simulators, by Bernard Faydide (pdf 2.2
MB - p. 89-95) |
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Simulation of intervention
in a hostile environment,
by Laurent Chodorge
(pdf 1.6
MB -
p. 96-98) |
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Advances in virtual prototyping, by Claude Andriot (pdf 1.5
MB - p. 99-102) |
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Simulating hydrocarbon
fires, by Georges Duffa
and Thanh-Hà Nguyen-Bui (pdf 1.4
MB - p. 103-105) |
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Simulation of non-destructive
testing: the Civa software,
by Pierre Calmon
(pdf 1.4
MB -
p. 106-108) |
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Glossary (pdf 560
kB)
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Clockwise from the top:
Computation, with the Cronos2 software program from CEA‘s
Saphyr system, of the fine structure of the thermal flux at the interface
of uranium and MOX fuel assemblies in a water-cooled reactor, close to
a reflector.
CEA/DEN/SAC/DM2S/SERMA
Three-dimensional structure of transferrin with, at center,
shown as rods, the amino acids (carbon atoms shown in green, nitrogen
in blue and oxygen in red) involved in complexation of iron (orange).
The remainder of the protein is shown in a ribbon representation, with
a helices (red and yellow) and b sheets (blue arrows). The complexation
site is in the hinge region of the protein that permits the site to open
and close, thus explaining the mechanism of iron complexation and release.
David Rinaldo (CEA-CNRS-UJF/IBS/Molecular Dynamics Laboratory)
Molecular-dynamics simulation of the joining of dislocations
in a material under the impact of irradiation-induced atom-displacement
cascades. White spheres represent the atoms materializing the two dislocations
and their junction; orange, green and red spheres represent irradiation-induced
defects - vacancies, interstitials and displaced atoms respectively.
CEA/DEN/DECM/SRMP/N. V. Doan
An operator moves in a 3D environment rendered by the
Phare platform and displayed by a stereoscopic visualization system comprising
two work surfaces (wall and floor) and stereoscopic retroprojectors.
F. Vigouroux/CEA/List
3D simulation carried out with the Tera supercomputer,
set up at the end of 2001 at CEA‘s DAM-Ile de France Center, at
Bruyères-le-Châtel (Essonne département).
CEA
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