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The book provides a technical account of the basic physics of those nanostructures that are the foundation of the hardware of all manner of computers. It will be read by semiconductor physicists and electronic engineers and advanced research students world-wide.
List of contents
- Part 1: Basics
- 1: Acoustic Modes
- 2: Optical Modes
- 3: Polar Modes in Zinc Blende
- 4: Boundary Conditions
- 5: Scalar and Vector Fields
- Part 2: Hybrid Modes in Nanostructures
- 6: Hybrid Modes in a Non-Polar Slab
- 7: Single Heterostructure
- 8: Quantum Well
- 9: Quantum Wire
- 10: Quantum Dot
- Part 3: Electron-Phonon Interaction
- 11: General Remarks
- 12: Electrons
- 13: Scattering Rate in Single Heterostructure
- 14: Scattering Rate in a Quantum Well
- 15: Scattering Rate in a Quantum Wire
- 16: The Electron-Phonon Interactiong in a Quantum Dot
- 17: Coupled Modes
- 18: Hot Phonon Lifetime
About the author
Brian K. Ridley gained his B.Sc. in physics from University of Durham in 1953, and later his Ph.D. on colour centres in the alkali halides in 1957. He worked at the Mullard Research Laboratory, Redhill, 1956-1964; before moving to the Department of Physics at the University of Essex, 1964-present. He has been a Full Professor from 1984, Research Professor from 1991-2007, and Professor Emeritus from 2008. He also holds Visiting appointments at Cornell,Stanford, Lyngby, Princeton, Lundt, Santa Barbara, Hong Kong. He was elected Fellow of the Royal Society in 1994, awarded the Paul Dirac Prize and Medal in 2001 by the Institute of Physics, and awarded Prize of the HCIS International Conference, Modena, in July 2003.
Summary
The book provides a technical account of the basic physics of nanostructures, which are the foundation of the hardware found in all manner of computers. It will be of interest to semiconductor physicists and electronic engineers and advanced research students. Crystalline nanostructures have special properties associated with electrons and lattice vibrations and their interaction. The result of spatial confinement of electrons is indicated in the nomenclature of nanostructures: quantum wells, quantum wires, quantum dots. Confinement also has a profound effect on lattice vibrations. The documentation of the confinement of acoustic modes goes back to Lord Rayleigh's work in the late nineteenth century, but no such documentation exists for optical modes. It is only comparatively recently that any theory of the elastic properties of optical modes exists, and a comprehensive account is given in this book. A model of the lattice dynamics of the diamond lattice is given that reveals the quantitative distinction between acoustic and optical modes and the difference of connection rules that must apply at an interface. The presence of interfaces in nanostructures forces the hybridization of longitudinally and transversely polarized modes, along with, in polar material, electromagnetic modes. Hybrid acoustic and optical modes are described, with an emphasis on polar-optical phonons and their interaction with electrons. Scattering rates in single heterostructures, quantum wells and quantum wires are described and the anharmonic interaction in quantum dots discussed. A description is given of the effects of dynamic screening of hybrid polar modes and the production of hot phonons.
Additional text
[A] book of some elegance which deftly presents the principal properties of phonons in nanostructures... nothing but lavish praise for the efforts of the author and publisher in the production of this book
