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Wide-Gap Chalcopyrites / edited by Susanne Siebentritt, Uwe Rau.

Por: Colaborador(es): Tipo de material: TextoTextoSeries Springer Series in Materials Science ; 86Editor: Berlin, Heidelberg : Springer Berlin Heidelberg, 2006Descripción: xiii, 257 páginas 122 ilustraciones, 1 en color. recurso en líneaTipo de contenido:
  • texto
Tipo de medio:
  • computadora
Tipo de portador:
  • recurso en línea
ISBN:
  • 9783540312932
Formatos físicos adicionales: Edición impresa:: Sin títuloClasificación LoC:
  • QC173.45-173.458
Recursos en línea:
Contenidos:
Cu-Chalcopyrites–Unique Materials for Thin-Film Solar Cells -- Band-Structure Lineup at I–III–VI2 Schottky Contacts and Heterostructures -- Defects and Self-Compensation in Semiconductors -- Confine Cu to Increase Cu-Chalcopyrite Solar Cell Voltage -- Photocapacitance Spectroscopy in Copper Indium Diselenide Alloys -- Recombination Mechanisms in Cu(In,Ga)(Se,S)2 Solar Cells -- Shallow Defects in the Wide Gap Chalcopyrite CuGaSe2 -- Spatial Inhomogeneities of Cu(InGa)Se2 in the Mesoscopic Scale -- Electro-Optical Properties of the Microstructure in Chalcopyrite Thin Films -- Electronic Properties of Surfaces and Interfaces in Widegap Chalcopyrites -- Interfaces of Cu-Chalcopyrites -- Bandgap Variations for Large Area Cu(In,Ga)Se2 Module Production.
Resumen: Chalcopyrites, in particular those with a wide band gap, are fascinating materials in terms of their technological potential in the next generation of thin-film solar cells and in terms of their basic material properties. They exhibit uniquely low defect formation energies, leading to unusual doping and phase behavior and to extremely benign grain boundaries. This book collects articles on a number of those basic material properties of wide-gap chalcopyrites, comparing them to their low-gap cousins. They explore the doping of the materials, the electronic structure and the transport through interfaces and grain boundaries, the formation of the electric field in a solar cell, the mechanisms and suppression of recombination, the role of inhomogeneities, and the technological role of wide-gap chalcopyrites.
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Springer eBooks

Cu-Chalcopyrites–Unique Materials for Thin-Film Solar Cells -- Band-Structure Lineup at I–III–VI2 Schottky Contacts and Heterostructures -- Defects and Self-Compensation in Semiconductors -- Confine Cu to Increase Cu-Chalcopyrite Solar Cell Voltage -- Photocapacitance Spectroscopy in Copper Indium Diselenide Alloys -- Recombination Mechanisms in Cu(In,Ga)(Se,S)2 Solar Cells -- Shallow Defects in the Wide Gap Chalcopyrite CuGaSe2 -- Spatial Inhomogeneities of Cu(InGa)Se2 in the Mesoscopic Scale -- Electro-Optical Properties of the Microstructure in Chalcopyrite Thin Films -- Electronic Properties of Surfaces and Interfaces in Widegap Chalcopyrites -- Interfaces of Cu-Chalcopyrites -- Bandgap Variations for Large Area Cu(In,Ga)Se2 Module Production.

Chalcopyrites, in particular those with a wide band gap, are fascinating materials in terms of their technological potential in the next generation of thin-film solar cells and in terms of their basic material properties. They exhibit uniquely low defect formation energies, leading to unusual doping and phase behavior and to extremely benign grain boundaries. This book collects articles on a number of those basic material properties of wide-gap chalcopyrites, comparing them to their low-gap cousins. They explore the doping of the materials, the electronic structure and the transport through interfaces and grain boundaries, the formation of the electric field in a solar cell, the mechanisms and suppression of recombination, the role of inhomogeneities, and the technological role of wide-gap chalcopyrites.

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