Elements of solid state physics
Elements of Solid State Physics Second Edition M. N. Rudden and J. Wilson University of Northumbria at Newcastle, Newcastle upon Tyne, UK This textbook provides a basic introduction to the principles of solid state physics and semiconductor devices and will prove essential for first and second year students of physics, materials science and electrical/electronic engineering courses. It assumes no prior knowledge of quantum or statistical mechanics and relies on simple models to illustrate the physical principles. However, the opportunity has been taken in this edition to extend the concept of energy bands to a consideration of E-k curves, and certain new material has been added, notably relating to superconductivity and optoelectronic devices, including lasers, following significant developments in these areas. Elements of Solid State Physics, Second Edition, presents the student with an essentially non-mathematical approach to the subject. Arranged in a logical sequence with many clear illustrations, each chapter has a number of worked examples and discussion points, as well as questions and answers. Readers of this fully revised and updated edition will receive a thorough grounding in the principles of solid state physics and should have sufficient knowledge about modern electronic devices to proceed to more advanced texts in this area. Main Contents: Some Aspects of Modern Physics; Structure of Crystalline Solids; Theories of Conduction and Magnetism; Energy Bands in Solids; Quantum Theory of Conduction; Semiconductor Devices.
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CLASSICAL THEORIES OF CONDUCTION AND MAGNETISM
ENERGY BANDS IN SOLIDS
QUANTUM THEORY OF CONDUCTION
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absolute zero absorption applied field arrangement atoms Bloch wall Bohr bond Calculate Chapter classical conduction band constant covalent bonds current flow defects depletion layer devices diagram diffraction diffusion diode direction dislocations distribution domain doped effect electric field electrons and holes emission emitted emitter energy bands energy gap energy levels equation example excited experimental face centred cubic Fermi level ferromagnetic given giving rise hydrogen atom illustrated in Figure increase integrated circuits intrinsic semiconductor ions kinetic large number lattice magnetic field material metal minority carriers motion n-side n-type negative charge number of electrons orbit oxide p-n junction particles photon planes positive charge potential difference quantum numbers quantum theory radiation recombination region resistance shell shown in Figure silicon single crystal sodium solid state physics specific heat specific heat capacity spins substrate surface thermal transition typical unit cell valence band valence electrons voltage wafer wave function wavelength width X-ray