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Zel'dovich Ya.B., Raizer Yu.P. — Physics of Shock Waves and High-Temperature Hydrodynamic Phenomena (vol. 1)
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Название: Physics of Shock Waves and High-Temperature Hydrodynamic Phenomena (vol. 1)
Авторы: Zel'dovich Ya.B., Raizer Yu.P.
Аннотация: The physical and chemical processes occurring in gases at high temperatures are the focus of this outstanding text by two distinguished physicists. They discuss essential physical influences on the dynamics and thermodynamics of continuous media, combining material from such disciplines as gas dynamics, shock-wave theory, thermodynamics and statistical physics, molecular physics, spectroscopy, radiation theory, astrophysics, solid-state physics, and other fields. Originally published in two volumes
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Рубрика: Физика /
Статус предметного указателя: Готов указатель с номерами страниц
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Год издания: 1966
Количество страниц: 464
Добавлена в каталог: 11.10.2005
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Предметный указатель
Isentropic equation, perfect gas 178
Isentropic exponent 4 207
Isotropic distribution of radiation 110
Ivanov-Kholodnyi, G.S. 392[79] 396[79] 416 438—440
Ivanova, A.V. 268 434(2)
Jarmain, W.R. 321[22] 430
Jaynes, E.T. 124[10] 424
Johannesen, N.H. 362[62] 438
Josephson, V. 242 428
Kantrowitz, A. 213 361 426 435
Kapitza, P.L. 124 424
Kaye, G.W.C. 196[8] 379[42] 425 436
Kazakova, R.K. 99[10] 423
Keck, J.C. 269[8] 305[8] 321[8] 326[8] 330[8] 332[8] 332[31] 332[45] 333[8] 364[70] 429 431 432 438
Keldysh, L.V. 125 340 343[73] 424 433
Kholev and Poltavchenko shock tube 242
Kholev, S.R. 213 242 426—428
Kibel', N.A. 86 422
Kinematic viscosity 73 75
Kinetic energy, degenerate electron gas 220
Kinetic pressure 225—277
King, G.W. 337[36] 431
Kingston, A.E. 412 412[89] 413[89] 439
Kirchhoffs law 118 120 129
Kivel, B. 269[8] 305[8] 313[21] 319[21] 321[8] 321[21] 324[21] 326[8] 326[21] 328[21] 330[8] 332[8] 332[31] 332[32] 332[43] 332[44] 333[8] 335[32] 368[53] 429 430 431(3) 432 437
Klein, J.J. 375[40] 378[40] 436
Knight, H.T. 367[68] 438
Knotzel, H. 361[19] 435
Knotzel, L. 361[19] 435
Kochin (Kotchine), N.E. 86 422
Kolb T-tube 240 241
Kolb, A.C. 240 241 427
Kompaneets, A.S. 99 173 346[82] 423 434
Kondrasheva, I.L. 99[10] 423
Kondrat'ev, V.N. 304[20] 313[20] 430
Kr, photoionization 276
Kramers' formula 265
Kramers, H.A. 259 260
Kramers-Unsold formula 271
Krestnikova, L.I. 242 428
Krokhin, O.N. 338[72] 348 433 434
Kryukov, P.G. 338[72] 433
Kudrin, L.P. 200[13] 425
Kudryavtsev, E.M. 332[48] 432
Kudryavtseva, E.V. (ed.) 243[14] 428
Kuznetsov, N.M. 413[90] 439
Laby, T.H. 196[8] 379[42] 425 436
Ladenburg, R.W. (ed.) 234[3] 243[3] 427
Lagar'kov, A.N. 297 432
Lagrangian coordinates 4—7
Laidler, K.J. 370[38] 379[38] 436
Lambda-type doubling 308
Lambrey, M. 337[37] 431
Landau, L.D. 1 29[1] 70 74[1] 95 101 116[4] 120 171[6] 179 216 220 223 251 253[2] 254[2] 327[29] 355 357 392[82] 421[57] 422 423(2) 424(3) 426 428(2) 431 435(2) 438 439
Langmuir probe 245
Larkin, A.I. 200[34] 427
Laser beam, breakdown in 338—343
Laser beam, heating in 343—348
Laser effect 122—124
Lasers 119 122
Latter, R. 227[31] 230 231 426
Lee, R.J. 239[6] 427
Leskov, L.V. 353 362[4] 367[4] 434
Levgold, S. 362[65] 438
Levitt, B.P. 338[59] 432
Lewis, B. (ed.) 234[3] 243[3] 427
Lewis, M. 200[12] 425
Li, cross section for photoprocesses 404
Li, photoionization 267 268 276
Lifetime of activated complex 371
Lifshitz, E.M. 1 29[1] 70 74[1] 95 116[4] 120 171[6] 179 216 220 223 251 253[2] 254[2] 327[29] 355 392[82] 422 423 424(3) 426 428(2) 431 435 439
Light mean free path see “Photon mean free path”
Limiting compression 58 (see also “Limiting density ratio across a shock”)
Limiting density ratio across a shock 52 59
Limiting density ratio across a shock, with dissociation and ionization 209—212
Limiting density ratio across a shock, with radiation 214 215
Limiting velocity for steady flow 42
Lin, S.C. 213 386[73] 415 415[72] 416 426 438(2)
Lindner, Fraulein Dr. 379[44] 437
Line broadening 287 292
Line spectra 112
Line width, total 287
Local radiation equilibrium 151—156
Lochte-Holtgreven, W. 234[16] 245[16] 428
Logan, J.G., Jr. 332[30] 431
Longitudinal viscosity coefficient 76
Lorentz line shape 126
Loschmidt number 441
Losev, S.A. 234[2] 234[19] 239[2] 239[19] 243[2] 243[19] 321[24] 332[33] 353 358 359[77] 361[5] 362[5] 362[77] 367[77] 367 367[5] 368[5] 368[77] 427 428 430 431 434 436 439
Magnetic annular shock tube 242
Magnetic piston 240—242
magnetic quantum number 316
Magnetic shock tubes see “Electromagnetic shock tubes”
Manakova, M.A. 219 426
Mandel'shtam, S.L. 338[70] 338[71] 343[71] 344[71] 347[71] 433(2)
Mannella, G. 364[22] 435
Margenau, H. 200[12] 425
Marks, L.W. 239[6] 427
Marshak, R.E. 231[33] 426
Masers 122
Mass action law 186 190
Mass action law, for ionization 194
Massey, H.S.W. 389 391[45] 401[45] 406[45] 412[45] 437
Matthews, D.L. 362[61] 367 436 438
Maximum exhaust velocity for unsteady flow 102 103 237
Maxwell distribution function 258 444
Maxwell stress tensor 168
Mayer, H. 313[21] 319[21 321[21] 324[21] 326[21] 328[21] 430
McWhirter, R.W.P. 412 412[89] 413[89] 439
Mean absorption coefficient 166
Mean absorption coefficient, bremsstrahlung 260
Mean absorption coefficient, multiply ionized gas 278—281
Mean absorption coefficient, singly ionized gas 275
Mean free path, molecular 70 (see also “Photon Planck Radiation and
Menzel, D.H. 266[4] 425
Metastable equilibrium 189 350
Metropolis, N. 231[33] 426
Meyerand, R.G., Jr. 338[65] 338[68] 339[65] 343[65] 433(2)
Meyerott, R.E. 326[28] 332[32a] 332[28] 335[28] 431(2)
Microscopic reversibility, principle of 120
Microwave absorption and reflection 245
Milne problem 160
Minck, R.W. 338[67] 433
Model', I.Sh. 213 336 426 431
Molecular band spectra 303 ff.
Molecular band spectra, infrared 308
Molecular band spectra, structure of 308—312
Molecular transport of momentum 70
Molmud, P. 106[17] 423
Moment of inertia, linear molecule 181
Momentum density of radiation 168—171
Momentum flux density tensor 2 168
Momentum flux density tensor, of radiation 168—172
Monatomic gas 177
Moore, C.E. 196[7] 425
Morozov, Yu.I. 172[8] 424
Multiple ionization, approximate calculations for 201—207
Multiple shock compression 59
Mustel', E.P. 107 423
Myers, H. 201[14] 218[14] 425
N, absorption coefficients 334
N, concentration in ionized air 197
N, cross section for photoprocesses 404
N, first excited electronic state, energy 182
N, ionization of 389
N, ionization potential 192 385
N, photoionization 267
N, statistical weight, ground state 182
Na, cross section for photoprocesses 404
Na, photoionization 267 268
Natural line width 114 285 292
Ne, excitation of 391
Ne, ionization of 389
Neal, R.A. 415[72] 438
Negative ions, photon absorption by see “Photodetachment”
Nemchinov, I.V. 106 423
Nernst theorem 230
Nicholls, R.W. 321[22] 430
Nikitin, E.E. 368 436
Nikol'skii, G.M. 392[79] 396[79] 439
NO, absorption by 324
NO, absorption coefficients 324
NO, activation energy for decomposition 378
NO, activation energy for formation 377 378
NO, concentration in air 190
NO, dissociation energy 184
NO, doublet splitting, ground state 182
NO, electronic states and band systems 305 314 319—321 324
NO, first excited electronic state, energy 182
NO, formation in dissociated air 187
NO, formation of 189 374—378
NO, Frank—Condon factors for -system 319 320
NO, ionization of 389
NO, ionization potential 385
NO, oscillator strength 333 334
NO, potential curves 314
NO, reaction rate constant for formation of 191
NO, relaxation time in formation of 378
NO, rotational energy 178
NO, statistical weight, ground state 182
NO, vibrational energy 178
Nonuniformly heated body, radiation from 138
Nonuniformly heated body, radiation spectrum 139 140
Norman, G.E. 276 276[55] 303[49] 303[52] 332[56] 335[58] 429(2) 432(5)
O, absorption coefficients 334
O, concentration in ionized air 197
O, cross section for photoprocesses 404
O, first excited electronic state, energy 182
O, ground triplet state, energy spacing 182
O, ionization of 389
O, ionization potential 192 385
O, photoionization 267 268
O, statistical weight, ground state 182
Okhotsimskii, D.E. 99[10] 423
Olfe, D.B. 332[46] 432
One-sided integrated radiant energy flux, equilibrium radiation 117 118
One-sided spectral radiant energy flux, equilibrium radiation 117 118 spectral”)
Optical characteristics 110
Optical pyrometry 245
Optical thickness 111 135 151
Optically thick body 135 136
Optically thin body 135 137
Orbital quantum number 306
Oscillator strength 290—292
Oscillator strength, for the continuum 298—300
Oscillator strength, hydrogen—like atoms 296 297
Oscillator strength, molecular transitions 321—323 332
Oscillator strength, negative, for emission 291
Oscillator, bound electron as 284—286
Osipov, A.I. 234[2] 234[19] 239[2] 239[19] 243[2] 243[19] 353 356[14] 358 359[77] 361[5] 362[5] 362[66] 362[77] 366 367[76] 367[77] 367[5] 368[5] 368[77] 427 428 434—436 438 439(2)
Overlapping of spectral lines 294
Oxidation of nitrogen 189 191 374—382
p, u diagrams 90 91
p, V diagrams 55—69
Palmer, H.B. 368[35] 436
Partial pressures 186
Partition functions 179—182
Partition functions, activated complex 372 373
Partition functions, free electron 194
Partition functions, harmonic oscillator 181
Partition functions, m-ion 194
Partition functions, monatomic gas 182 (see also “Electronic Rotational and
Pashinin, P.P. 338[70] 338[71] 343[71] 344[71] 347[71] 433(2)
Patch, R.W. 368[69] 438
Patrick, R.M. 242 428
Pauli exclusion principle 220
Pease, R.N. (ed.) 234[3] 243[3] 427
Peclet number 72
Peebles, G.H. 231[33] 427
Pekeris, C.L. 266[4] 428
Penner, S.S. 234[1] 243[1] 281[50] 323[25] 332[47] 427 430 431 432(2)
Perfect black body 118
Perfect gas 3 183
Perfect gas, constant specific heats 176—178
Petralia, S. 353[10] 435
Petschek, H. 391[50] 421[50] 437
Phase transition of solids 69
Photodetachment 268
photoelectric effect 113 114
Photoexcitation 406
Photoionization 112 264—269 384 385 402—406
Photoionization, cross section 265 266
Photon absorption 110
Photon and electron collision processes, relation between 256
Photon distribution function 108
Photon emission, probability of 119
Photon gas 116
Photon lifetime 111
Photon mean free path 111
Photon mean free path, absorption 115
Photon mean free path, scattering 115 (see also “Radiation mean free path”)
Photon number as invariant of electromagnetic field 172—175
Photon scattering 110
Photorecombination 112 384 385 402—406
Photospheres see “Stellar photospheres”
Pilipetskii, N.F. 341 434
Pinch effect 242
Pitaevskii, L.P. 407 409 411[87] 411[88] 412 412[87] 412[88] 439(2)
Planck constant 441
Planck distribution function 121
Planck function 116
Planck mean free path 166
Plane photosphere problem 158—164
Planet, W. 332[32] 335[32] 431
Plasmas, relaxation in 416—421
Pleshanov, A.S. 188[5] 191[5] 425
Point explosion 93
Point explosion, with counterpressure 99—101 (see also “Strong explosion”)
Poisson's adiabatics see “Isentropes”
Poisson's equation, with spherical symmetry 224
Poltavchenko, D.S. 242 427
Polyatomic molecules, dissociation 183
Polyatomic molecules, linear 178
Polyatomic molecules, nonlinear 178
Polymorphous transformation of solids 69 (see also “Phase transition of solids”)
Population inversion 123
Potential pressure 225—227
Poynting vector 108 169
Prandtl front thickness 82
Predvoditelev,A.S.,et al. 187[3] 191[3] 424
Pressure, approximate relation for, with multiple ionization 205
Pressure, degenerate electron gas 220
Pressure, from Coulomb interactions 217
Pressure, ionized gas 193
Pressure, radiation see “Radiation pressure”
Priming electrons 340 384 401
Probability of atomic transitions 288—292
Probability of molecular transitions 316—321
Prokhindeev, A.V. 338[70] 433
Prokhorov, A.M. 338[71] 343[71] 344[71] 347[71] 433
Prokofev, V.A. 213 426
Proton mass 441
Quantum numbers, molecular 304 306—308 316
Quasi-energy 125
Quasi-equilibrium 120
Quasi-momentum 126
Rabinovich, M.S. 343[74] 433
Radiant energy conservation 130
Radiant heat exchange in a fluid 141—144
Radiation 107 ff. 246
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