Parametric instabilities in semiconducting quantum plasma with effect of Fermi pressure and Bohm potential

In this theoretical study, we investigate non linearity in semiconductor quantum plasma which is the Couse of parametric interaction between pump wave and acoustic fluctuation. The non-linear interaction result into amplitude modulation in acoustic wave. The quantum plasma is subjected to static magnetic field applied in angle $\theta$ and an inhomogeneous density. quantum correction through Fermi temperature and Bohm potential terms modifies the threshold characteristic and growth rate. We apply Quantum hydrodynamic model to investigate how these waves interact, considering how the magnetic field and inhomogeneous density affect the process. These results can better explain wave patterns in quantum plasmas and may enhance technologies such as semiconductors and plasma devices. The plasma inhomogeneity amplifies the instability in regions of high-density gradient, and the magnetic field has a limited role in balanced configurations, consistent with classical findings.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-20
DOI
https://doi.org/10.5281/zenodo.18818229
Primary Topic
Dust and Plasma Wave Phenomena
Type
article
Field-Weighted Citation Impact
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article

Parametric instabilities in semiconducting quantum plasma with effect of Fermi pressure and Bohm potential

Sanjay Dixit, Kamni Pawar
Zenodo (CERN European Organization for Nuclear Research)
Dust and Plasma Wave Phenomena
article

Parametric instabilities in semiconducting quantum plasma with effect of Fermi pressure and Bohm potential

Sanjay Dixit, Kamni Pawar
article en

Abstract

In this theoretical study, we investigate non linearity in semiconductor quantum plasma which is the Couse of parametric interaction between pump wave and acoustic fluctuation. The non-linear interaction result into amplitude modulation in acoustic wave. The quantum plasma is subjected to static magnetic field applied in angle $\theta$ and an inhomogeneous density. quantum correction through Fermi temperature and Bohm potential terms modifies the threshold characteristic and growth rate. We apply Quantum hydrodynamic model to investigate how these waves interact, considering how the magnetic field and inhomogeneous density affect the process. These results can better explain wave patterns in quantum plasmas and may enhance technologies such as semiconductors and plasma devices. The plasma inhomogeneity amplifies the instability in regions of high-density gradient, and the magnetic field has a limited role in balanced configurations, consistent with classical findings.

Zenodo (CERN European Organization for Nuclear Research)
Oriental University (RU), Czech Academy of Sciences, Oriental Institute (CZ), Barkatullah University (IN)
Openalex Percentile: Top 39%
Dust and Plasma Wave Phenomena
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