Physical Properties of Tritium in the Presence of the Tungsten Nanoparticle at High Pressures and Temperatures

The physical properties of tritium were determined; its extraction from nuclear plants is required to prevent its penetration into the cooling system and reduce the release of isotopes into the environment. The structural, kinetic, and adsorption properties of compressed tritium containing the tungsten nanoparticle were calculated by ab initio molecular dynamics modeling in the temperature range of 293 ≤ T ≤ 2873 K. The first peak of the partial radial distribution function of W–3H decreases, and the self-diffusion coefficient of tritium continuously increases with temperature. A large number of peaks are present in the spectral density of atomic vibrations of the whole system over the entire temperature range under study. It was concluded that tritium has a high tendency to be adsorbed on the tungsten nanoparticle, and the temperature of the system is the main criterion of the level of this adsorption.

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Publication Details

Journal
Russian Journal of Physical Chemistry A
Published
2025-12-01
DOI
https://doi.org/10.1134/s0036024425702449
Primary Topic
Fusion materials and technologies
Type
article
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article

Physical Properties of Tritium in the Presence of the Tungsten Nanoparticle at High Pressures and Temperatures

А. Е. Галашев, A. F. Anisimov
Russian Journal of Physical Chemistry A
Fusion materials and technologies
article

Physical Properties of Tritium in the Presence of the Tungsten Nanoparticle at High Pressures and Temperatures

А. Е. Галашев, A. F. Anisimov
article en

Abstract

The physical properties of tritium were determined; its extraction from nuclear plants is required to prevent its penetration into the cooling system and reduce the release of isotopes into the environment. The structural, kinetic, and adsorption properties of compressed tritium containing the tungsten nanoparticle were calculated by ab initio molecular dynamics modeling in the temperature range of 293 ≤ T ≤ 2873 K. The first peak of the partial radial distribution function of W–3H decreases, and the self-diffusion coefficient of tritium continuously increases with temperature. A large number of peaks are present in the spectral density of atomic vibrations of the whole system over the entire temperature range under study. It was concluded that tritium has a high tendency to be adsorbed on the tungsten nanoparticle, and the temperature of the system is the main criterion of the level of this adsorption.

Russian Journal of Physical Chemistry AVol. 99(12)
Ural Federal University (RU), Institute of High Temperature Electrochemistry (RU)
Openalex Percentile: Top 68%
Fusion materials and technologies
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