Mechanical properties of nanoparticle membranes
Small
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Small
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Soft Matter
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ACS Macro Letters
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Macromolecules
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Journal of Chemical Physics
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Computational Materials Science
Hydrocarbon polymers, foams and nanocomposites are increasingly being subjected to extreme environments. Molecular scale modeling of these materials offers insight into failure mechanisms and complex response. Prior classical molecular dynamics (MD) simulations of the principal shock Hugoniot for two hydrocarbon polymers, polyethylene (PE) and poly (4-methyl-1-pentene) (PMP) have shown good agreement with density functional theory (DFT) calculations and experiments conducted at Sandia National Laboratories. We extended these results to include low-density polymer foams using nonequilibrium MD techniques and found good quantitative agreement with experiment. Here, we have measured the local temperature during void collapse to investigate the formation of hot spots and their relationship to polymer dissociation in foams.
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Physical Review Letters
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Journal of Chemical Physics
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ACS Macro Letters
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ACS Macro Letters
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Small
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Journal of Chemical Physics
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Proposed for publication in Journal of Physical Chemistry C.
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