Modeling the Density-of-States Spectrum Under Strain in Doped Silicon p‑Si<B, Mn>

Keywords: Doped silicon, Deformation energy, Uniaxial pressure, v, Density of states, Energy spectrum of Si⟨B,Mn⟩, Si⟨B,TD⟩

Abstract

A deformation (strain) model of the spectrum of the density of localized states Nss(E,X) in p‑Si⟨B,Mn⟩ under uniaxial pressure X is presented. It is shown that the shifts of trap levels can be described by the deformation energy Ed = κX, a mechanical analogue of kT. At a fixed temperature T = 77 K, increasing X leads to a shift and restructuring of the spectrum: thermodonor (TD) levels move toward the conduction band, whereas manganese (Mn) levels shift toward the valence band, which agrees with the opposite trends observed in ρ(X) and μ(X).

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Published
2026-06-10
Cited
How to Cite
Rakhmanov, M., Tursunov, I., Mamatkarimov, O., Sharibaev, N., & Sharipbaev, S. (2026). Modeling the Density-of-States Spectrum Under Strain in Doped Silicon p‑Si<B, Mn&gt;. East European Journal of Physics, (2), 245-250. https://doi.org/10.26565/2312-4334-2026-2-26