Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.

This work employs molecular dynamic (MD) approaches to characterize the mechanical properties of nanocrystalline materials via a full atomistic simulation using the ab initio derived ReaxFF potential. Herein, we demonstrate methods to efficiently simulate key mechanical properties (ultimate strength...

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Online Access:http://hdl.handle.net/2047/D20238431
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spelling ndltd-NEU--neu-cj82pr03d2021-05-27T05:11:38ZMechanical characterization via full atomistic simulation: applications to nanocrystallized ice.This work employs molecular dynamic (MD) approaches to characterize the mechanical properties of nanocrystalline materials via a full atomistic simulation using the ab initio derived ReaxFF potential. Herein, we demonstrate methods to efficiently simulate key mechanical properties (ultimate strength, stiffness, etc.) in a timely and computationally inexpensive manner. As an illustrative example, the work implements the described methodology to perform full atomistic simulation on ice as a material platform, which - due to its complex behavior and phase transitions upon pressure, heat exchange, energy transfer etc. - has long been avoided or it has been unsuccessful to ascertain its mechanical properties from a molecular perspective.http://hdl.handle.net/2047/D20238431
collection NDLTD
sources NDLTD
description This work employs molecular dynamic (MD) approaches to characterize the mechanical properties of nanocrystalline materials via a full atomistic simulation using the ab initio derived ReaxFF potential. Herein, we demonstrate methods to efficiently simulate key mechanical properties (ultimate strength, stiffness, etc.) in a timely and computationally inexpensive manner. As an illustrative example, the work implements the described methodology to perform full atomistic simulation on ice as a material platform, which - due to its complex behavior and phase transitions upon pressure, heat exchange, energy transfer etc. - has long been avoided or it has been unsuccessful to ascertain its mechanical properties from a molecular perspective.
title Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
spellingShingle Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
title_short Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
title_full Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
title_fullStr Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
title_full_unstemmed Mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
title_sort mechanical characterization via full atomistic simulation: applications to nanocrystallized ice.
publishDate
url http://hdl.handle.net/2047/D20238431
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