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Sole distributors for the USA and Canada, Elsevier Science Pub. Co.
The hopping process, which differs substantially from conventional transport processes in crystals, is the central process in the transport phenomena discussed in this book. Throughout the book the term ``hopping'' is defined as the inelastic tunneling transfer of an electron between two localized electronic states centered at different locations. Such processes do not occur in conventional electronic transport in solids, since localized states are not compatible with the translational symmetry of crystals. The rapid growth of interest in hopping transport has followed in the footstep.
5. Comparison with other theories6. Problems and connections; 7. Conclusions; References; CHAPTER 3. Non-Ohmic Microwave Hopping Conductivity; 1. Introduction; 2. Linear (Ohmic) microwave hopping conductivity; 3. Non-linear resonant microwave hopping conductivity; 4. Non-linear relaxational (non-resonant) absorption; 5. Conclusions; References; CHAPTER 4. Thermal Conduction due to Hopping Processes in Amorphous Solids; 1. Introduction; 2. The model; 5. Phonon and fracton lifetimes and the fracton hopping rate; 4. The hopping contribution to the thermal conductivity
5. The anharmonic coupling parameter6. Internal consistency; 7. Finite-lifetime effects: deviation of Khop(T) from proportionality to T at high temperatures; 8. Summary; Acknowledgements; References; CHAPTER 5. The Hopping Thermopower; 1. Introduction; 2. Theory; 3. Experimental results and discussion; References; CHAPTER 6. Slow Processes in Disordered Solids; 1. Introduction; 2. Hamiltonians and dynamics; 3. The glassy state; 4. Survey of some slow relaxation systems; 5. The dynamical behavior of a simple system; 6. Long-time behavior and the glass temperature
7. Relation to experiments and conclusionsReferences; CHAPTER 7. Hopping Conductivity in the Intermediate Frequency Regime; 1. Introduction; 2. Models for AC response in the intermediate frequency regime; 3. Experimental tests of the models for the intermediate frequency regime; 4. Conclusions; Acknowledgements; References; CHAPTER 8. Hopping in Mesoscopic Samples; 1. Introduction; 2. Theory and modelling: zero field; 3. Samples; 4. Experimental results and discussion: zero field; 5. Magnetic field effects: theory; 6. Experiment and discussion: magnetic field results; 7. Conclusions
volume editors, M. Pollak, B. Shklovskiĭ.
Includes bibliographical references and indexes.
Amsterdam ; New York : North-Holland; New York, NY, USA : Sole distributors for the USA and Canada, Elsevier Science Pub. Co., 1991
Modern problems in condensed matter sciences ; v. 28