Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model

碩士 === 國立高雄大學 === 應用數學系碩士班 === 97 === The quantum-corrected energy transport (QCET) model consisting of seven self-adjoint nonlinear PDEs describes the steady state of electron and hole flows, their energy transport, and classical and quantum potentials within a nano-scale semiconductor device. We e...

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Main Authors: Kuan-Chou Chen, 陳冠州
Other Authors: Jinn-Liang Liu
Format: Others
Language:en_US
Published: 2009
Online Access:http://ndltd.ncl.edu.tw/handle/08377225612337194130
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spelling ndltd-TW-097NUK055070032016-06-22T04:13:45Z http://ndltd.ncl.edu.tw/handle/08377225612337194130 Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model 非拋物型能帶對量子校正的能量運輸模型中之能量鬆弛之影響 Kuan-Chou Chen 陳冠州 碩士 國立高雄大學 應用數學系碩士班 97 The quantum-corrected energy transport (QCET) model consisting of seven self-adjoint nonlinear PDEs describes the steady state of electron and hole flows, their energy transport, and classical and quantum potentials within a nano-scale semiconductor device. We extend the energy relaxation term of QCET model to include the non-parabolic band structure for electron. We get explicit expressions of energy relaxation term involving the non-parabolic band effects and depending on the electron temperature. It shows that the non-parabolic effects are very significant for hot-electron nanodevices. Jinn-Liang Liu 劉晉良 2009 學位論文 ; thesis 37 en_US
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description 碩士 === 國立高雄大學 === 應用數學系碩士班 === 97 === The quantum-corrected energy transport (QCET) model consisting of seven self-adjoint nonlinear PDEs describes the steady state of electron and hole flows, their energy transport, and classical and quantum potentials within a nano-scale semiconductor device. We extend the energy relaxation term of QCET model to include the non-parabolic band structure for electron. We get explicit expressions of energy relaxation term involving the non-parabolic band effects and depending on the electron temperature. It shows that the non-parabolic effects are very significant for hot-electron nanodevices.
author2 Jinn-Liang Liu
author_facet Jinn-Liang Liu
Kuan-Chou Chen
陳冠州
author Kuan-Chou Chen
陳冠州
spellingShingle Kuan-Chou Chen
陳冠州
Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
author_sort Kuan-Chou Chen
title Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
title_short Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
title_full Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
title_fullStr Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
title_full_unstemmed Non-Parabolic Band Effects on Energy Relaxation for the Quantum-Corrected Energy Transport Model
title_sort non-parabolic band effects on energy relaxation for the quantum-corrected energy transport model
publishDate 2009
url http://ndltd.ncl.edu.tw/handle/08377225612337194130
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