A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature

In this paper, a novel mathematical—physical model of the generalized elasto-thermodiffusion (hole/electron interaction) waves in semiconductor materials is studied when the hyperbolic two-temperature theory in the two-dimensional (2D) deformation is taken into account. Shear (purely transverse) wav...

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Main Authors: Merfat H. Raddadi, Kh. Lotfy, E. S. Elidy, A. El-Bary, Ramdan. S. Tantawi
Format: Article
Language:English
Published: MDPI AG 2022-10-01
Series:Crystals
Subjects:
Online Access:https://www.mdpi.com/2073-4352/12/10/1458
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author Merfat H. Raddadi
Kh. Lotfy
E. S. Elidy
A. El-Bary
Ramdan. S. Tantawi
author_facet Merfat H. Raddadi
Kh. Lotfy
E. S. Elidy
A. El-Bary
Ramdan. S. Tantawi
author_sort Merfat H. Raddadi
collection DOAJ
description In this paper, a novel mathematical—physical model of the generalized elasto-thermodiffusion (hole/electron interaction) waves in semiconductor materials is studied when the hyperbolic two-temperature theory in the two-dimensional (2D) deformation is taken into account. Shear (purely transverse) waves are dissociated from the remainder of the motion and remain unaffected by external fields. The coupled system of partial differential equations of the main interacting fields has been solved. Using the Laplace transform method, the governing equations of motion and heat conduction can be formulated in 2D. The hole charge carrier, displacement, thermal, and plasma boundary conditions are applied on the interface adjacent to the vacuum to obtain the basic physical quantities in the Laplace domain. The inversion of the Laplace transform with the numerical method is applied to obtain the complete solutions in the time domain for the main physical fields under investigation. The effects of thermoelastic, the phase-lag of the temperature gradient and the phase-lag of the heat flux, the hyperbolic two-temperature parameter, and comparing between silicon and germanium materials on the displacement component, carrier density, hole charge carrier, and temperature distribution have been discussed and obtained graphically.
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spelling doaj.art-f139b4b38db641a7933fc390a08ad8322023-11-23T23:38:48ZengMDPI AGCrystals2073-43522022-10-011210145810.3390/cryst12101458A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two TemperatureMerfat H. Raddadi0Kh. Lotfy1E. S. Elidy2A. El-Bary3Ramdan. S. Tantawi4Department of Mathematics, College of Science, Taibah University, P.O. Box 344, Madinah 30002, Saudi ArabiaDepartment of Mathematics, College of Science, Taibah University, P.O. Box 344, Madinah 30002, Saudi ArabiaDepartment of Mathematics, Faculty of Science, Zagazig University, Zagazig P.O. Box 44519, EgyptArab Academy for Science, Technology and Maritime Transport, Alexandria P.O. Box 1029, EgyptDepartment of Mathematics, Faculty of Science, Zagazig University, Zagazig P.O. Box 44519, EgyptIn this paper, a novel mathematical—physical model of the generalized elasto-thermodiffusion (hole/electron interaction) waves in semiconductor materials is studied when the hyperbolic two-temperature theory in the two-dimensional (2D) deformation is taken into account. Shear (purely transverse) waves are dissociated from the remainder of the motion and remain unaffected by external fields. The coupled system of partial differential equations of the main interacting fields has been solved. Using the Laplace transform method, the governing equations of motion and heat conduction can be formulated in 2D. The hole charge carrier, displacement, thermal, and plasma boundary conditions are applied on the interface adjacent to the vacuum to obtain the basic physical quantities in the Laplace domain. The inversion of the Laplace transform with the numerical method is applied to obtain the complete solutions in the time domain for the main physical fields under investigation. The effects of thermoelastic, the phase-lag of the temperature gradient and the phase-lag of the heat flux, the hyperbolic two-temperature parameter, and comparing between silicon and germanium materials on the displacement component, carrier density, hole charge carrier, and temperature distribution have been discussed and obtained graphically.https://www.mdpi.com/2073-4352/12/10/1458electrons and holeshyperbolic two-temperatureelasto-thermodiffusionLaplace transformsemiconductors
spellingShingle Merfat H. Raddadi
Kh. Lotfy
E. S. Elidy
A. El-Bary
Ramdan. S. Tantawi
A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
Crystals
electrons and holes
hyperbolic two-temperature
elasto-thermodiffusion
Laplace transform
semiconductors
title A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
title_full A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
title_fullStr A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
title_full_unstemmed A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
title_short A Novel Photo Elasto-Thermodiffusion Waves with Electron-Holes in Semiconductor Materials with Hyperbolic Two Temperature
title_sort novel photo elasto thermodiffusion waves with electron holes in semiconductor materials with hyperbolic two temperature
topic electrons and holes
hyperbolic two-temperature
elasto-thermodiffusion
Laplace transform
semiconductors
url https://www.mdpi.com/2073-4352/12/10/1458
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