C R C Critical Reviews in Solid State Sciences · 1970 · 150 citations · 152 references
Natural SciencesMaterials SciencePhysicsCondensed Matter PhysicsMagnetic MaterialsSemiconductor MaterialsFerromagnetic MaterialsFerromagnetismMagnetic Properties Of SolidsMagnetism In SolidsSemiconductor PhysicsSpintronicsElectrical Transport PropertiesExchange Interaction ModelingFerromagnetic SemiconductorsMagnetic Memory EffectsMagnetic PropertiesMagnetic SemiconductorsMagnetoresistanceTransport In Semiconductors
Abstract As far as the electrical conductivity is concerned, solids are usually classified as metals, semiconductors, or insulators. In metals the concentration of the charge carriers responsible for the electrical conductivity is large, whereas in semiconductors and insulators the carrier concentration is much smaller. The distinction between semiconductors and insulators is based on a difference in the nature of the conductivity. For semiconductors the charge carriers (electrons or holes) occupy the states of energy bands; these states are not Iocalized on particular atoms, but spread throughout the entire crystal. In such a situation the mobility of the carriers can be quite high and would, in fact, be infinite in a rigid periodic lattice; in this model the thermal motion of the atoms induces a scattering of the carriers and thus limits the conductivity to finite values. The classical examples of semiconductors are the elements Si and Ge and compounds such as GaAs, InSb, CdTe, ZnS, etc.
152
Clarence Zener · Physical Review · 1951 · 6.7K citations
Indirect Exchange Coupling of Nuclear Magnetic Moments by Conduction Electrons
M. Ruderman, C. Kittel · Physical Review · 1954 · 3.8K citations
Natural Sciences, Chemistry, Physics +15
T. Holstein · Annals of Physics · 1959 · 3.3K citations
Impurity Conduction at Low Concentrations
Allen H. Miller, Elihu Abrahams · Physical Review · 1960 · 2.6K citations
Robert Karplus, J. M. Luttinger · Physical Review · 1954 · 1.7K citations