Evaluation of relaxation to steady state using a collisionalradiative model based on the analogy of transfer entropy

This study introduces and reexamines a novel evaluation method that integrates Malliavin derivatives with fractal properties to predict plasma fluctuations within a collisional-radiative model framework using transfer entropy. This approach is applied to nanoparticle technologies across various industrial sectors and forensic science. The influence of interactions with metastable atoms on the overall system is investigated in glow discharge plasma. The effects of gas temperature, pressure, electron temperature, and density on system behavior are evaluated. Furthermore, the system's tendency to reach a steady state is verified to be significantly influenced by the atomic state. This method is expected to improve the understanding of plasma physics and accelerate chemical analysis and semiconductor miniaturization.

Publication Details

Journal
Tokyo Tech Research Repository (Tokyo Institute of Technology)
Published
2025-08-14
Primary Topic
History of Science and Natural History
Type
article
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article

Evaluation of relaxation to steady state using a collisionalradiative model based on the analogy of transfer entropy

Tokyo Tech Research Repository (Tokyo Institute of Technology)
History of Science and Natural History
article

Evaluation of relaxation to steady state using a collisionalradiative model based on the analogy of transfer entropy

article en

Abstract

This study introduces and reexamines a novel evaluation method that integrates Malliavin derivatives with fractal properties to predict plasma fluctuations within a collisional-radiative model framework using transfer entropy. This approach is applied to nanoparticle technologies across various industrial sectors and forensic science. The influence of interactions with metastable atoms on the overall system is investigated in glow discharge plasma. The effects of gas temperature, pressure, electron temperature, and density on system behavior are evaluated. Furthermore, the system's tendency to reach a steady state is verified to be significantly influenced by the atomic state. This method is expected to improve the understanding of plasma physics and accelerate chemical analysis and semiconductor miniaturization.

Tokyo Tech Research Repository (Tokyo Institute of Technology)
Industry, innovation and infrastructure
Openalex Percentile: Top 35%
History of Science and Natural History
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