Symmetry and Symmetry-Breaking in Semiconductors

Enables readers to gain detailed insight into creating effective Hamiltonians for semiconductors

Provides a theoretical framework for Zyncblende- and for Wurzite-type semiconductors

Gathers the group theory elements required to develop and calculate numerous symmetry-breaking problems in semiconductors

Autorentext

Prof. Dr. Bernd Hönerlage is emeritus at the University of Strasbourg and former senior researcher at the CNRS (France). His research focuses on ultrafast dynamics in bulk semiconductors and nano-objects, especially the non-linear optics and time resolved spectroscopy of bulk semiconductor material and nano-crystals. He has more than 30 years of teaching experience in condensed matter and nano-physics.

Prof. Dr. Ivan Pelant is senior researcher at the Institute of Physics of The Czech Academy of Sciences and Professor of Quantum Optics and Optoelectronics at Charles University, Prague (Czech Republic). His research focuses on optical properties of semiconductors, non-linear optics, nanostructures and nanophotonics.

Inhalt

Introduction.- Symmetry-Breaking in Spin-Degenerate Conduction-Bands of Zincblende-Type Crystals.- Symmetry-Breaking Effects in Valence Bands of Zincblende-Type Crystals.- Exciton Ground State in Zincblende-Type Semiconductors.- Pseudo-Spin Development of the Exciton Ground State in Zincblende-Type Semiconductors.- Invariant Expansion and Electron-Band Structure Effects in Wurtzite-Type Semiconductors.- Excitons in Wurtzite-Type Semiconductors.- Light-Matter Interaction and Exciton-Polaritons in Semiconductors.- Appendix.- Index.