Nano electronic devices; semiclassical and quantum transport modeling
➤ Gửi thông báo lỗi ⚠️ Báo cáo tài liệu vi phạmNội dung chi tiết: Nano electronic devices; semiclassical and quantum transport modeling
Nano electronic devices; semiclassical and quantum transport modeling
Dragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling Goodnick EditorsNano-Electronic DevicesSemiclassical and Quantum Transport ModelingỄỊ SpringerEditorsDragica VasileskaSchool of Electrical. Computer and Energy Engineering Arizona State University Tempe. ArizonaUSAvasileska@asu.eduStephen M. GoodnickSchool of Electrical. Computer and Energy Enginee Nano electronic devices; semiclassical and quantum transport modeling ring Arizona State University Tempe. ArizonaUSAstephen.goodnick@asu.eduISBN 978-1 -4419-8839-3 e-ISBN 978-1-4419-8840-9DOI 10.1007/978-1-4419-8840-9SpNano electronic devices; semiclassical and quantum transport modeling
ringer New York Dordrecht Heidelberg LondonLibrary of Congress Control Number: 2011928232© Springer Scicncc+Busincss Media. LLC 2011All rights reserveDragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling C. 233 Spring Street. New York. NY 10013, USA), except for brief excerpts in connection with reviews or scholarly analysis. Use in connection with any form of information storage and retrieval, electronic adaptation, computer software, or by similar or dissimilar methodology now known or hereafter d Nano electronic devices; semiclassical and quantum transport modeling eveloped is forbidden.The use in this publication of trade names, trademarks, service marks, and similar terms, even if they are not identified as sucNano electronic devices; semiclassical and quantum transport modeling
h, is not to he taken as an expression of opinion as to whether or not they are subject to proprietary rights.Printed on acid-free paperSpringer is paDragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling f the art in transport modeling relevant for the simulation of nanoscale semiconductor devices. At the time of the publication of this book, advances in conventional planar semiconductor device scaling have resulted in production devices with gate lengths approaching 22 nanometers (at the time of wr Nano electronic devices; semiclassical and quantum transport modeling iting this preface), while research devices with gate lengths of just a few nanometers have been demonstrated. The semiconductor industry has been domNano electronic devices; semiclassical and quantum transport modeling
inated by Si based Metal Oxide Semiconductor (MOS) transistors for over 40 years. However, al present, there is an increasing drive to integrate a divDragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling raphene. At the same time, there have been extraordinary advances in new types of self-assembled materials such as carbon nanotubes, and semiconductor nanowires, which offer the potential for new families of fully three-dimensional devices that will allow scaling to continue to atomic dimensions. As Nano electronic devices; semiclassical and quantum transport modeling characteristic length scales decrease, the physics of transport changes dramatically. For large dimensions compared to the mean free path for scatterNano electronic devices; semiclassical and quantum transport modeling
ing (and the related phase coherence length), the semi-classical diffusive picture of charge transport holds, governed by the Boltzmann transport equaDragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling urely quantum mechanical framework in terms of current associated with probability flux, usually from some idealized reservoir of carriers, i.e. contacts. The actual situation in current nanoscale devices is somewhere in between these two pictures, which in the past has been referred to as a mesosco Nano electronic devices; semiclassical and quantum transport modeling pic system (somewhere between microscopic and macroscopic). This regime perhaps the most interesting in terms of phenomena, but the most difficult toNano electronic devices; semiclassical and quantum transport modeling
theoretically describe, in which both quantum mechanical phase coherent phenomena co-exist with phase randomizing, dissipative scattering processes, wDragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M. Nano electronic devices; semiclassical and quantum transport modeling oblem of transport in mesoscopic semiconductor systems, ranging from semi-classical to fully quantum mechanical, in order to understand the advantages and limitations of each, as well as elucidating the complex and interesting phenomena encountered in ultra-small devices. Nano electronic devices; semiclassical and quantum transport modeling Dragica VasileskaStephen M. Goodnick EditorsNano-ElectronicDevicesSemidassical and Quantum Transport Modeling0 SpringerDragica Vasileska • Stephen M.Gọi ngay
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