Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena

Possible mechanisms of transformation of defects in semiconductor structures under action of electromagnetic radiation in the microwave range and pulsed magnetic field have been analyzed. Electrical-resonance effects under nonthermal action of electromagnetic fields have been considered, namely: res...

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Main Author: G.V. Milenin
Format: Article
Language:English
Published: National Academy of Sciences of Ukraine. Institute of Semi conductor physics. 2019-03-01
Series:Semiconductor Physics, Quantum Electronics & Optoelectronics
Subjects:
Online Access:http://journal-spqeo.org.ua/n1_2019/P039-046abstr.html
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author G.V. Milenin
author_facet G.V. Milenin
author_sort G.V. Milenin
collection DOAJ
description Possible mechanisms of transformation of defects in semiconductor structures under action of electromagnetic radiation in the microwave range and pulsed magnetic field have been analyzed. Electrical-resonance effects under nonthermal action of electromagnetic fields have been considered, namely: resonant detachment of dislocations and destruction of impurity complexes in semiconductor crystals, electrical-resonance transformation of defects in semiconductor crystals under action of weak pulsed magnetic fields; magnetic-resonance effects on defects in semiconductor crystals under action of weak magnetic and electromagnetic fields. It has been shown that alternative interaction mechanisms should be used to explain a large number of reliably established magnetically induced effects and phenomena associated with the nonthermal effects of microwave fields. There are two the most probable mechanisms: (i) spin-dependent reactions of paramagnetic defects in semiconductor crystals, as a result of which detachment and subsequent movement of dislocations in the field of internal stresses and (ii) resonant phenomena of various nature occur, which, generally, do not require high energies, and have been realized when the oscillation frequencies of the system and the external action coincide. A sharp increase in the amplitude of oscillations leads to detachment of dislocations and destruction of impurity complexes with subsequent movement and diffusion under action of a mosaic of internal mechanical stresses in the crystal. The principal physical identity of the influence of a weak magnetic field and nonthermal action of microwave radiation on a semiconductor material has been shown.
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spelling doaj.art-6bad4723e65b4a99b726bf0008eeb10a2022-12-21T23:16:43ZengNational Academy of Sciences of Ukraine. Institute of Semi conductor physics.Semiconductor Physics, Quantum Electronics & Optoelectronics1560-80341605-65822019-03-012213946https://doi.org/10.15407/spqeo22.01.039Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomenaG.V. Milenin0V. Lashkaryov Institute of Semiconductor Physics, National Academy of Sciences of Ukraine, 41, prospect Nauky, 03028 Kyiv, UkrainePossible mechanisms of transformation of defects in semiconductor structures under action of electromagnetic radiation in the microwave range and pulsed magnetic field have been analyzed. Electrical-resonance effects under nonthermal action of electromagnetic fields have been considered, namely: resonant detachment of dislocations and destruction of impurity complexes in semiconductor crystals, electrical-resonance transformation of defects in semiconductor crystals under action of weak pulsed magnetic fields; magnetic-resonance effects on defects in semiconductor crystals under action of weak magnetic and electromagnetic fields. It has been shown that alternative interaction mechanisms should be used to explain a large number of reliably established magnetically induced effects and phenomena associated with the nonthermal effects of microwave fields. There are two the most probable mechanisms: (i) spin-dependent reactions of paramagnetic defects in semiconductor crystals, as a result of which detachment and subsequent movement of dislocations in the field of internal stresses and (ii) resonant phenomena of various nature occur, which, generally, do not require high energies, and have been realized when the oscillation frequencies of the system and the external action coincide. A sharp increase in the amplitude of oscillations leads to detachment of dislocations and destruction of impurity complexes with subsequent movement and diffusion under action of a mosaic of internal mechanical stresses in the crystal. The principal physical identity of the influence of a weak magnetic field and nonthermal action of microwave radiation on a semiconductor material has been shown.http://journal-spqeo.org.ua/n1_2019/P039-046abstr.htmlmicrowave radiationnonthermal actionweak magnetic fieldresonant phenomenaspin reorientation
spellingShingle G.V. Milenin
Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
Semiconductor Physics, Quantum Electronics & Optoelectronics
microwave radiation
nonthermal action
weak magnetic field
resonant phenomena
spin reorientation
title Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
title_full Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
title_fullStr Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
title_full_unstemmed Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
title_short Transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
title_sort transformation of structural defects in semiconductor under action of electromagnetic and magnetic fields causing resonant phenomena
topic microwave radiation
nonthermal action
weak magnetic field
resonant phenomena
spin reorientation
url http://journal-spqeo.org.ua/n1_2019/P039-046abstr.html
work_keys_str_mv AT gvmilenin transformationofstructuraldefectsinsemiconductorunderactionofelectromagneticandmagneticfieldscausingresonantphenomena