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010   $a3-540-89526-4
024 7 $a10.1007/978-3-540-89526-8
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035   $a(DE-He213)978-3-540-89526-8
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100   $a20100301d2009      u|             0
101 0 $aeng
135   $aurnn|008mamaa
181   $ctxt
182   $cc
183   $acr
200 10$aTransport Equations for Semiconductors$b[electronic resource] /$fby Ansgar Jüngel
205   $a1st ed. 2009.
210  1$aBerlin, Heidelberg :$cSpringer Berlin Heidelberg :$cImprint: Springer,$d2009.
215   $a1 online resource (XVII, 315 p. 27 illus.) 
225 1 $aLecture Notes in Physics,$x0075-8450 ;$v773
300   $aBibliographic Level Mode of Issuance: Monograph
311   $a3-540-89525-6 
320   $aIncludes bibliographical references and index.
327   $aBasic Semiconductor Physics -- Microscopic Semi-Classical Models -- Derivation of Macroscopic Equations -- Collisionless Models -- Scattering Models -- Macroscopic Semi-Classical Models -- Drift-Diffusion Equations -- Energy-Transport Equations -- Spherical Harmonics Expansion Equations -- Diffusive Higher-Order Moment Equations -- Hydrodynamic Equations -- Microscopic Quantum Models -- The Schr#x00F6;dinger Equation -- The Wigner Equation -- Macroscopic Quantum Models -- Quantum Drift-Diffusion Equations -- Quantum Diffusive Higher-Order Moment Equations -- Quantum Hydrodynamic Equations.
330   $aSemiconductor devices are ubiquitous in the modern computer and telecommunications industry. A precise knowledge of the transport equations for electron flow in semiconductors when a voltage is applied is therefore of paramount importance for further technological breakthroughs. In the present work, the author tackles their derivation in a systematic and rigorous way, depending on certain key parameters such as the number of free electrons in the device, the mean free path of the carriers, the device dimensions and the ambient temperature. Accordingly a hierarchy of models is examined which is reflected in the structure of the book: first the microscopic and macroscopic semi-classical approaches followed by their quantum-mechanical counterparts.
410  0$aLecture Notes in Physics,$x0075-8450 ;$v773
606   $aSolid state physics
606   $aSpectroscopy
606   $aMicroscopy
606   $aOptical materials
606   $aElectronic materials
606   $aPhysics
606   $aSolid State Physics$3https://scigraph.springernature.com/ontologies/product-market-codes/P25013
606   $aSpectroscopy and Microscopy$3https://scigraph.springernature.com/ontologies/product-market-codes/P31090
606   $aOptical and Electronic Materials$3https://scigraph.springernature.com/ontologies/product-market-codes/Z12000
606   $aMathematical Methods in Physics$3https://scigraph.springernature.com/ontologies/product-market-codes/P19013
615  0$aSolid state physics.
615  0$aSpectroscopy.
615  0$aMicroscopy.
615  0$aOptical materials.
615  0$aElectronic materials.
615  0$aPhysics.
615 14$aSolid State Physics.
615 24$aSpectroscopy and Microscopy.
615 24$aOptical and Electronic Materials.
615 24$aMathematical Methods in Physics.
676   $a537.622
700   $aJüngel$b Ansgar$4aut$4http://id.loc.gov/vocabulary/relators/aut$065694
906   $aBOOK
912   $a996466683303316
996   $aTransport Equations for Semiconductors$9774071
997   $aUNISA