Ehrenreich H., Spaepen F. — Solid State Physics. Volume 49 :: Электронная библиотека попечительского совета мехмата МГУ

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Ehrenreich H., Spaepen F. — Solid State Physics. Volume 49

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Название: Solid State Physics. Volume 49

Авторы: Ehrenreich H., Spaepen F.

Аннотация:

Solid State Physics, Volume 49 continues the Series' tradition of excellence by focusing on the optical and electronic properties and applications of semiconductors. Three of the chapters deal with stress applications as well as the basic underlying science of semicondutors. All of the topics in this volume are at the cutting-edge of research in the semiconductor field and will be of great interest to the scientific community.

Язык:

Рубрика: Физика/

Статус предметного указателя: Готов указатель с номерами страниц

ed2k: ed2k stats

Год издания: 1995

Количество страниц: 509

Добавлена в каталог: 18.08.2015

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Предметный указатель

Plihal, M.      154
Ploog, K.      302
Poelman, D.      140
Poesch, P.      126
Poetz, W.      315 380 390(312)
Poirier, D.M., and Weaver, J.H.: Solid State Properties of Fullerenes and Fullerene-Based Materials      48 1
Poisson's equation, device transport models and      286
Poisson's equation, differential capacitance      376—377
Poisson's equation, equation of motion solution of density matrix      350
Polaron model of hopping mobilities in disordered materials      74—75
Polarons      see also "Solitons"
Polarons in conjugated polymers with nondegenerate ground states      42—45
Polarons in conjugated polymers, charge injection and      73
Polarons in conjugated polymers, FBC one-electron description of      49
Polarons in conjugated polymers, interchain interactions and stabilization of      46—47
Polarons in conjugated polymers, photoinduced absorption of PPV      57
Polarons, PPV and PT MIS diodes      103 106
Poli, P.      335 428(245)
Poly( $\beta$ '-dodecyloxy- $\alpha$ $\alpha$ , - $\alpha$ ', $\alpha$ "terthienyl), DDQ-doped FETs      108—109
Poly( $\beta$ '-dodecyloxy- $\alpha$ $\alpha$ , - $\alpha$ ', $\alpha$ "terthienyl), structure      22—23
Poly(2, 5-dialkoxy-p-phenylenevinylene) in soluble PPV derivative synthesis      18—20
Poly(2, 5-dialkoxy-p-phenylenevinylene), formula and energy gap      13
Poly(2, 5-dialkoxy-p-phenylenevinylene), producing      14
Poly(2, 5-thiophenevinylene), formula and energy gap      13
Poly(2-methoxy-5(2'-ethyl-hexyloxy)-p-phenylenevinylene) (MEH-PPV), structure      20
Poly(2-methoxy-5(2'-ethyl-hexyloxy)-p-phenylenevinylene), absorption and emission spectra      54
Poly(2-methoxy-5(2'-ethyl-hexyloxy)-p-phenylenevinylene), LEDs      118 126
Poly(2-phenyl-p-phenylenevinylene), photo-conductivity      60
Poly(3-alkylthiophene), formula and energy gap      13
Poly(3-alkylthiophene), H:H, H:T, T:T linkages      23
Poly(3-alkylthiophene), microcrystalline structure      30
Poly(3-alkylthiophene), p-doping      67—68
Poly(3-alkylthiophene), producing      14
Poly(3-alkylthiophene), synthesis of      22—23
Poly(alkathiophenes)      119
Poly(p-phenylene) PPP, formula and energy gap      13
Poly(p-phenylene) PPP, synthesis, description      23—25
Poly(p-phenylene) PPP, synthesis, difficulty of      14
Poly(p-phenylene), blue EL from      120—124
Poly(p-phenylenevinylene)      see also "PPV devices"
Poly(p-phenylenevinylene), benzenoid and quinoid forms of      43
Poly(p-phenylenevinylene), conductivity of      60
Poly(p-phenylenevinylene), difficulty of synthesizing      14
Poly(p-phenylenevinylene), dispersive transport in      75—76
Poly(p-phenylenevinylene), excitons and      48—49
Poly(p-phenylenevinylene), formula and energy gap      13
Poly(p-phenylenevinylene), intrinsic ambipolar Debye length for      67
Poly(p-phenylenevinylene), ionization potentials      61—63
Poly(p-phenylenevinylene), mechanical properties      31
Poly(p-phenylenevinylene), microcrystalline structure      30
Poly(p-phenylenevinylene), molecular scale studies of      29
Poly(p-phenylenevinylene), nonideal contacts and      72
Poly(p-phenylenevinylene), nonradiative decay      81 82—83
Poly(p-phenylenevinylene), optical absorption and emission      51—52
Poly(p-phenylenevinylene), photoconduction and photovoltaic efficiencies      145
Poly(p-phenylenevinylene), photoinduced absorption      56—57
Poly(p-phenylenevinylene), PL efficiency      81—84
Poly(p-phenylenevinylene), precursor-route, description      16—18
Poly(p-phenylenevinylene), quantum chemical calculations      39
Poly(p-phenylenevinylene), quenching of luminescence in      143
Poly(p-phenylenevinylene), synthesis of soluble derivatives      18—22
Poly(p-phenylenevinylene), synthesis, p-doping and      67—68
Poly(phenyl-phenylenevinylene), structure      20
Polyacetylene field-effect devices, charge storage in mid-gap states      91—92
Polyacetylene field-effect devices, FETs      100—103
Polyacetylene field-effect devices, MIS diodes      92—100
Polyacetylene, continuum modeling of excited-state chains of      37
Polyacetylene, continuum modeling, bond alternation defects and solitons      39—41
Polyacetylene, difficulty of synthesizing      14
Polyacetylene, discovery of high conductivity of      4
Polyacetylene, Durham-route, dark conductivity and photoconductivity      58—59
Polyacetylene, Durham-route, photoinduced absorption studies of      54—57
Polyacetylene, Durham-route, precursor      15—16
Polyacetylene, Durham-route, Schottky-barrier diodes and      9
Polyacetylene, experimental observations of optical properties, excitations      51
Polyacetylene, photoconduction and photovoltaic efficiencies      145
Polyacetylene, physical properties      31
Polyacetylene, production of      5—6
Polyacetylene, quantum chemical calculations      39
Polyacetylene, structural types      4—5
Polyaniline in flexible LEDs      142
Polyaniline, electrode work functions      27
Polyaniline, field-effect devices with grid of      115
Polyaniline, formula and energy gap      13
Polyaniline, synthesis of conducting      26—27
Polydiacetylene, formula and energy gap      13
Polydiacetylene, photoconductivity in crystalline      60—61
Polymer LEDs, angular distribution of light emitted      140
Polymer LEDs, energy barriers at electrodes      63
Polymer LEDs, excitons      135—136
Polymer LEDs, flexible substrates      142
Polymer LEDs, hole mobility      129
Polymer LEDs, silicon substrates      142—143
Polymer LEDs, technological issues      143—144
Polymer LEDs, transient response      129—130
Polymeric photoconductive and photovoltaic devices      145—148
Polymerization to produce MISFETs      8
Polymerization, CN-PPV synthesis      21
Polymerization, intrinsically conducting polymer films      14
Polymers      23 see
Polypyrrole (PPy), formula and energy gap      13
Polypyrrole (PPy), synthesis      25—26
Polythiophene (PT), difficulty of synthesizing      14
Polythiophene (PT), FETs      107—111
Polythiophene (PT), formula and energy gap      13
Polythiophene (PT), MIS diodes      103—107
Polythiophene (PT), sexithiophene oligomer      29
Polythiophene (PT), synthesis of poly(3-alkylthiophene)s      22—23
Pommerehne, J.      141
Pomp, A.      88 109(255) 110(255)
Pond, R.C., and Hirth, J.P.: Defects at Surfaces and Interfaces      47 287
Pope, M.      3 11 32(2) 47(2) 50(2) 51(2) 52(2) 82(2) 116(28)
Porod, W.      303 307
Pothier, H.      308
Powell, M.J.      144
PPV      see "Poly(p-phenylenevinylene)" "PPV
PPV devices, diodes, carrier photogeneration in      147—148
PPV devices, diodes, electroluminescent      12
PPV devices, diodes, MIS      103—107
PPV devices, FETs      107—111
PPV devices, LEDs      117—118
PPV devices, LEDs, electrical characteristics      124—130
PPV devices, LEDs, emission color      118—120
PPV devices, LEDs, multilayer      130—134
PPV devices, LEDs, photoinduced absorption studies      134—136
PPV devices, LEDs, PLDMR studies      136—137
Precursor polymers, thin films from      14
Precursor routes in soluble PPV derivative synthesis      19—20
Precursor routes to poly(p-phenylene)      24
Precursor routes, Durham, to polyacetylene      15—16
Precursor routes, sulfonium in soluble PPV derivative synthesis      19
Precursor routes, sulfonium, polyelectrolyte      16—17
Prener, J.S.      206 233(2)
Prete, P.      219 272
Pretre, A.      300 310(84)
Price, P.J.      287 300 303 306 447
Prigogine, I.      288
Prior, K.A.      225 270
Priz, G.A.      216
Prober, D.E.      295 296 298
Processibility, PPP improvements to      24—25
Prock, A.      140
Projection operators      324—327 346
Prosa, T.J.      30
Protonation      26 27
Puls, J.      221 272
Punkka, E.      107
PWE method      see "Plane-wave expansion method"
Pylenes      4—5 see
Q factor, PBG material defect modes and      167

Qadri, S.B.      215 216
Qian, G.X.      154
Quade, W.      419
Quantization as overriding property of small systems      293
Quantization in devices      286—288
Quantum chemistry of charged excited states      45—46
Quantum chemistry of ground states      45—46
Quantum devices, Boltzmann transport, differences from, description      289—291
Quantum devices, Boltzmann transport, differences from, phase interference      294—297
Quantum devices, Boltzmann transport, differences from, statistical thermodynamics and quantum potentials      291—293
Quantum devices, moment equations and modeling      342—346
Quantum devices, open systems and contacts, ballistic transport      298—301
Quantum devices, open systems and contacts, boundaries and contacts, role of      301—303
Quantum devices, open systems and contacts, description      297—298
Quantum devices, overview      283—286
Quantum devices, potentially important, overview      303—304
Quantum devices, potentially important, resonant-tunneling diodes      304—306
Quantum devices, quantization in      286—289
Quantum devices, quantum dots      306—308
Quantum dots, description      306—308
Quantum dots, epitaxy      231—232
Quantum dots, fabrication of      229—233
Quantum dots, resonant-tunneling diodes and      306 447—448
Quantum dynamics, transition from classical to      288
Quantum effects in semiconductors      284—286 see
Quantum efficiency, photoconductive and photovoltaic device      146—147
Quantum efficiency, photoluminescent      81—84
Quantum equations, Boltzmannn-like approaches      334—336
Quantum equations, density matrices and related functions      314—327
Quantum equations, Kubo formula and Langevin equations      327—334
Quantum equations, moment equations for classical-quantum transition      336—346
Quantum equations, overview      308—314
Quantum kinetic equation      327
Quantum potentials for GaAs MESFETs      344—346
Quantum potentials in multiple-barrier structures      357—361
Quantum potentials, hydrodynamic moment equations and      341—342
Quantum potentials, quantum distribution and nonlocal      337
Quantum potentials, statistical thermodynamics and      291—293
Quantum potentials, statistics of single barrier      353—357
Quantum trajectories, ballistic transport and      298—301
Quantum transport modeling, density matrices      346—378
Quantum transport modeling, density matrices, alternative approaches      370—375
Quantum transport modeling, density matrices, differential capacitance      375—378
Quantum transport modeling, density matrices, dissipation and current flow      361—370
Quantum transport modeling, density matrices, multiple-barrier structures      357—361
Quantum transport modeling, density matrices, single barrier, statistics of      353—357
Quantum transport modeling, devices, Boltzmann transport, difference from      291—297
Quantum transport modeling, devices, open systems and contacts      298—303
Quantum transport modeling, devices, overview      283—286
Quantum transport modeling, devices, potentially important      303—308
Quantum transport modeling, equations, quantum      308—346
Quantum transport modeling, equations, quantum, Boltzmann-like approaches      334—336
Quantum transport modeling, equations, quantum, density matrices and related      314—327
Quantum transport modeling, equations, quantum, Kubo formula and Langevin equations      327—334
Quantum transport modeling, equations, quantum, moment equations, classical versus quantum      336—346
Quantum transport modeling, Green's functions      404—448
Quantum transport modeling, Green's functions, femtosecond laser excitation      429—435
Quantum transport modeling, Green's functions, Green — Kubo formula      435—442
Quantum transport modeling, Green's functions, high-field systems, homogenous      417—429
Quantum transport modeling, Green's functions, low-field systems, homogenous      406—417
Quantum transport modeling, Green's functions, resonant-tunneling diode      442—448
Quantum transport modeling, open systems and contacts      297—303
Quantum transport modeling, open systems and contacts, ballistic transport      298—301
Quantum transport modeling, open systems and contacts, boundaries and contacts      301—303
Quantum transport modeling, overview      283—286
Quantum transport modeling, quantization in devices      286—288
Quantum transport modeling, quantum devices      303—308
Quantum transport modeling, quantum devices, quantum dots      306—308
Quantum transport modeling, quantum devices, resonant-tunneling diodes      304—306
Quantum transport modeling, Wigner distribution      378—404
Quantum transport modeling, Wigner distribution, dissipation, role of      399—404
Quantum transport modeling, Wigner distribution, equation-solving methods      381—391
Quantum transport modeling, Wigner distribution, resonant-tunneling diode, double-barrier      391—399
Quantum well devices      see also "Quantum dots" "Quantum
Quantum well devices, blue LEDs      246 254
Quantum well devices, blue-green diode lasers      253—254
Quantum well devices, lasers, developmental milestones      206
Quantum well devices, lasers, gain and simulated emission of ZnSe-based      267—282
Quantum well devices, lattice mismatch strain      212—213
Quantum wells in resonant-tunneling diodes      305—306
Quantum wells, DBRTD charge storage      395—396
Quantum wells, development of      207
Quantum wells, double-barrier structures in      358
Quantum wells, electronic states, confinement and band offsets, electronic      210—217
Quantum wells, electronic states, ZnCdSe/ZnSe 2D      217—225
Quantum wells, excitons, quantum wires and dots      229—233
Quantum wells, excitons, tellurium isoelectronic centers and exciton-phonon interaction      225—229
Quantum wells, quantum dots and      307
Quantum wells, ZnCdSe/ZnSe 2D quantum wells      217—225
Quantum wires, fabrication of      229—233
Quantum wires, modeling using real-space lattice Green's functions      440
Quasi-equilibrium density matrices      333
Qui, J.      208 241 244(10 78) 251(78) 256 259
Qui, Y.      196 197(97)
qw      see "Quantum wells"
Rabin, Herbert      see "Compton W.D."
Radiative decay, exciton decay and      80
Radiative decay, optical interference in LEDs and      140—141
Radiative decay, PPV LEDs      118
Radiative decay, SSH model and      46
Rajagopal, A.K.      see "Joshi S.K."
Rajakarunanayake, Y.      215
Raman-active modes in polyacetylene MIS devices      97—98
Ramasesha, S.      46
Ramdas, A.K.      215 216
Rammal, R.      295
Rammer, J.      322 323(204) 334(204) 405(204) 422(204)
Randall, J.N.      306
Rangarajan, R.      187
Rappe, A.M.      154 160(31 32) 161 162 163 164 190 191 192(86) 193 194
Raschke, M.      302
Rasolt, M.: Continuous Symmetries and Broken Symmetries in Multivalley Semiconductors and Semimetals      43 94
Ratier, B.      108
Rauscher, U.      53
Ravaioli, U.      287 298 302 311 312 380 390(312) 442 443 448
Real-space lattice Green's functions      440
Recombination, electron-hole, blue-green LEDs      248—249
Recombination, electron-hole, electronic confinement and      211
Recombination, electron-hole, suppressing in PBG materials      155—156
Recombination, electron-hole, suppressing in semiconductors      165—166
Recombination, electron-hole, two-carrier current devices      78—80
Recursive Green's functions      440
Red shifts, conjugated polymer      52—53
Reduction potentials      62
Reed, M.A.      286 306 310(13)
Refractive indices, organic LED      137—139
Reggiani, L.      330 335 408 418 419 428(245) 448
Regional approximation method      80
Regiorandom polymers      23
Regioregular polymers, Poly(3-alkythiophene)s      30
Regioregular polymers, synthesis and advantages      23
Register, L.F.      298 310 442
Rehahn, M.      24
Reif, F.      see "Cohen M.H."
Reitz, John R.: Methods of the One-Electron Theory of Solids      1 1
Relaxation of vibrationally excited conjugated molecules      34
Relaxation-time approximation      399—400
Remler, E.A.      319
Remling, C.      430 433(383)
Ren, J.      242 247 249
Resendes, D.G.      329
Reservoirs, conductance of localized tunneling/scattering barriers      297—298
Reservoirs, projection operator and dissipative processes      362
Resistivity, calculating force balance equations using      333
Resonance fluorescence      167—169
Resonant processes, Foerster transfer and      51
Resonant-tunneling diodes      see also "Double-barrier resonant-tunneling diodes"
Resonant-tunneling diodes, description      304—306
Resonant-tunneling diodes, modeling using Green's functions      442—448
Resonant-tunneling diodes, quantum dots in      307

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