Modeling of warm dense hydrogen via explicit real-time electron dynamics: Electron transport properties

We extract electron transport properties from atomistic simulations of a two-component plasma by mapping the long-wavelength behavior to a two-fluid model. The mapping procedure is performed via Markov Chain Monte Carlo sampling over multiple spectra simultaneously. The free-electron dynamic structure factor and its properties have been investigated in the hydrodynamic formulation to justify its application to the long-wavelength behavior of warm dense matter. We have applied this method to warm dense hydrogen modeled with wave packet molecular dynamics and showed that the inferred electron transport properties are in agreement with a variety of reference calculations, except for the electron viscosity, where a substantive decrease is observed when compared to classical models.

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Publication Details

Journal
Physical review. E
Published
2025-04-15
DOI
https://doi.org/10.1103/physreve.111.045208
Citations
1
Primary Topic
High-pressure geophysics and materials
Type
article
Field-Weighted Citation Impact
1.87

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article

Modeling of warm dense hydrogen via explicit real-time electron dynamics: Electron transport properties

S. M. Vinko, G. Gregori, Patrick Hollebon, Pontus Svensson et al.
1 citations
Physical review. E
High-pressure geophysics and materials
1.87
article

Modeling of warm dense hydrogen via explicit real-time electron dynamics: Electron transport properties

S. M. Vinko, G. Gregori, Patrick Hollebon, Pontus Svensson, Daniel Plummer
article en
1 citations

Abstract

We extract electron transport properties from atomistic simulations of a two-component plasma by mapping the long-wavelength behavior to a two-fluid model. The mapping procedure is performed via Markov Chain Monte Carlo sampling over multiple spectra simultaneously. The free-electron dynamic structure factor and its properties have been investigated in the hydrodynamic formulation to justify its application to the long-wavelength behavior of warm dense matter. We have applied this method to warm dense hydrogen modeled with wave packet molecular dynamics and showed that the inferred electron transport properties are in agreement with a variety of reference calculations, except for the electron viscosity, where a substantive decrease is observed when compared to classical models.

Physical review. EVol. 111(4)
University of Oxford (GB), Centro Laser (IT), Central Laser Facility
Engineering and Physical Sciences Research Council, Science and Technology Facilities Council
Openalex Percentile: Top 19%
High-pressure geophysics and materials
1.87
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