Thermal conductivity of ionic systems from equilibrium molecular dynamics.

Thermal conductivities of ionic compounds (NaCl, MgO, Mg(2)SiO(4)) are calculated from equilibrium molecular dynamics simulations using the Green-Kubo method. Transferable interaction potentials including many-body polarization effects are employed. Various physical conditions (solid and liquid stat...

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Main Authors: Salanne, M, Marrocchelli, D, Merlet, C, Ohtori, N, Madden, P
Format: Journal article
Language:English
Published: 2011
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author Salanne, M
Marrocchelli, D
Merlet, C
Ohtori, N
Madden, P
author_facet Salanne, M
Marrocchelli, D
Merlet, C
Ohtori, N
Madden, P
author_sort Salanne, M
collection OXFORD
description Thermal conductivities of ionic compounds (NaCl, MgO, Mg(2)SiO(4)) are calculated from equilibrium molecular dynamics simulations using the Green-Kubo method. Transferable interaction potentials including many-body polarization effects are employed. Various physical conditions (solid and liquid states, high temperatures, high pressures) relevant to the study of the heat transport in the Earth's mantle are investigated, for which experimental measures are very challenging. By introducing a frequency-dependent thermal conductivity, we show that important coupled thermoelectric effects occur in the energy conduction mechanism in the case of liquid systems.
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spelling oxford-uuid:d8f9226c-b829-43b3-949f-6925b566dc7f2022-03-27T08:52:38ZThermal conductivity of ionic systems from equilibrium molecular dynamics.Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:d8f9226c-b829-43b3-949f-6925b566dc7fEnglishSymplectic Elements at Oxford2011Salanne, MMarrocchelli, DMerlet, COhtori, NMadden, PThermal conductivities of ionic compounds (NaCl, MgO, Mg(2)SiO(4)) are calculated from equilibrium molecular dynamics simulations using the Green-Kubo method. Transferable interaction potentials including many-body polarization effects are employed. Various physical conditions (solid and liquid states, high temperatures, high pressures) relevant to the study of the heat transport in the Earth's mantle are investigated, for which experimental measures are very challenging. By introducing a frequency-dependent thermal conductivity, we show that important coupled thermoelectric effects occur in the energy conduction mechanism in the case of liquid systems.
spellingShingle Salanne, M
Marrocchelli, D
Merlet, C
Ohtori, N
Madden, P
Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title_full Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title_fullStr Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title_full_unstemmed Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title_short Thermal conductivity of ionic systems from equilibrium molecular dynamics.
title_sort thermal conductivity of ionic systems from equilibrium molecular dynamics
work_keys_str_mv AT salannem thermalconductivityofionicsystemsfromequilibriummoleculardynamics
AT marrocchellid thermalconductivityofionicsystemsfromequilibriummoleculardynamics
AT merletc thermalconductivityofionicsystemsfromequilibriummoleculardynamics
AT ohtorin thermalconductivityofionicsystemsfromequilibriummoleculardynamics
AT maddenp thermalconductivityofionicsystemsfromequilibriummoleculardynamics