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Hayes W.D., Probstein R.F. — Hypersonic Flow Theory
Hayes W.D., Probstein R.F. — Hypersonic Flow Theory



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Название: Hypersonic Flow Theory

Авторы: Hayes W.D., Probstein R.F.

Язык: en

Рубрика: Физика/

Статус предметного указателя: Готов указатель с номерами страниц

ed2k: ed2k stats

Издание: 1st edition

Год издания: 1959

Количество страниц: 464

Добавлена в каталог: 18.10.2009

Операции: Положить на полку | Скопировать ссылку для форума | Скопировать ID
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Предметный указатель
Shock layer m scale, on circular cylinder 111, 155      
Shock layer m scale, on cone      148
Shock layer m scale, on cone 148      
Shock layer m scale, on conical body      126
Shock layer m scale, on conical body 126      
Shock layer m scale, on oscillating flat plate      136
Shock layer m scale, on oscillating flat plate 136      
Shock layer m scale, on sphere      110 111 160
Shock layer m scale, on sphere 110, 111, 160      
Shock layer m scale, on wedge      142
Shock layer m scale, on wedge 142      
Shock layer m scale, on yawed cone      126
Shock layer m scale, on yawed cone 126      
Shock layer m scale, on yawed cylinder      125
Shock layer m scale, on yawed cylinder 125      
Shock layer structure in Newtonian flow      79 110 111 118—129
Shock layer structure in Newtonian flow 79, 110, 111, 118—129      
Shock layer structure in thin shock layers      167 174—176 179—181
Shock layer structure in thin shock layers 167, 174—176, 179—181      
Shock layer structure in unsteady Newtonian flow      134 135
Shock layer structure in unsteady Newtonian flow 134, 135      
Shock layer structure with relaxation      394 395
Shock layer structure with relaxation 394, 395      
Shock layer structure, with relaxation      394 395
Shock layer thickness      28 176 182 197 see
Shock layer thickness compared with boundary layer thickness      284 285
Shock layer thickness compared with boundary layer thickness 284, 285      
Shock layer thickness on cone      148—150
Shock layer thickness on cone 148—150      
Shock layer thickness on wedge      142 Stand-off
Shock layer thickness on wedge 142      
Shock layer thickness see also “Stand-off distance”, 28, 176, 182, 197      
Shock layer thickness, compared with boundary layer thickness      284 285
Shock layer thickness, on cone      148—150
Shock layer thickness, on wedge      142
Shock layer, definition of      3
Shock layer, definition of 3      
Shock reflection coefficient      268—270 283
Shock reflection coefficient 268—270, 283      
Shock shape, attached to blunt ogives of revolution      189—196
Shock shape, attached to blunt ogives of revolution 189—196      
Shock shape, equation for      184 185 197
Shock shape, equation for 184, 185, 197      
Shock shape, for flat-nosed body      186 199 200
Shock shape, for flat-nosed body 186, 199, 200      
Shock tail      3 4 10 26
Shock tail 3, 4, 10, 26      
Shock wave relations      11—24
Shock wave relations 11—24      
Shock wave relations, similar solutions      56
Shock wave relations, similar solutions 56      
Shock wave relations, small-disturbance theory      33
Shock wave relations, small-disturbance theory 33      
Shock wave structure      375 385—387 391
Shock wave structure 375, 385—387, 391      
Shock wave thickness      28 278 382
Shock wave thickness 28, 278, 382      
Shock wave, curved      4 22—24
Shock wave, curved 4, 22—24      
Shock wave, normal      11—20
Shock wave, normal 11—20      
Shock wave, oblique      21 22 140 141 269
Shock wave, oblique 21, 22, 140, 141, 269      
Shock-expansion method      258 265—277
Shock-expansion method 258, 265—277      
Shock-expansion method in axisymmetric flow      273—276
Shock-expansion method in interaction problems      342
Shock-expansion method in three-dimensional flow      273 275
Shock-expansion method, analytical formulation of      273 282
Shock-expansion method, analytical formulation of 273, 282      
Shock-expansion method, effect of $\gamma$ in      272
Shock-expansion method, effect of $\gamma$ in 272
Shock-expansion method, in axisymmetric flow      273—276
Shock-expansion method, in axisymmetric flow 273—276      
Shock-expansion method, in interaction problems      342
Shock-expansion method, in interaction problems 342      
Shock-expansion method, in three-dimensional flow      273 275
Shock-expansion method, in three-dimensional flow 273, 275      
Shock-expansion method, successive approximations improving      282 283
Shock-expansion method, successive approximations improving 282, 283      
Shock-oriented coordinate system      171 235
Shock-oriented coordinate system 171, 235      
Shoulder, choking phenomenon at      186
Shoulder, choking phenomenon at 186      
Shower-bath analogy      172 173
Shower-bath analogy 172, 173      
Sibulkin M.      300
Sibulkin, M.      300
Sibulkin, M. 300      
Siegel K.M.      375
Siegel, K.M.      375
Siegel, K.M. 375      
Similar boundary layers, constant-pressure solutions for      293—298
Similar boundary layers, constant-pressure solutions for 293—298      
Similar boundary layers, frozen solutions for      307 310 311
Similar boundary layers, frozen solutions for 307, 310, 311      
Similar boundary layers, hypersonic solutions for      293 303—306 354—357
Similar boundary layers, hypersonic solutions for 293, 303—306, 354—357      
Similar boundary layers, Pr = 1 solutions for      306 307
Similar boundary layers, Pr=1 solutions for      306 307
Similar boundary layers, Pr=1 solutions for 306, 307      
Similar boundary layers, stagnation point solutions for      293 298—303
Similar boundary layers, stagnation point solutions for 293, 298—303      
Similar boundary layers, with vorticity interaction      372
Similar boundary layers, with vorticity interaction 372      
Similar boundary layers, with vortieity interaction      372
Similar solutions for laminar boundary layers      290 292—312
Similar solutions for laminar boundary layers 290, 292—312      
Similar solutions of small-disturbance theory      52—67
Similar solutions of small-disturbance theory 52—67      
Similar solutions of small-disturbance theory, assumptions underlying      10
Similar solutions of small-disturbance theory, assumptions underlying 10      
Similar solutions of small-disturbance theory, Lagrangian coordinate in      59
Similar solutions of small-disturbance theory, Lagrangian coordinate in 59      
Similar solutions of small-disturbance theory, Russian work in      53
Similar solutions of small-disturbance theory, Russian work in 53      
Similar solutions of small-disturbance theory, with strong interaction      354 356 363 364
Similar solutions of small-disturbance theory, with strong interaction 354, 356, 363, 364      
Similarity line      55
Similarity line 55      
Singular point      198 199 220
Singular point 198, 199, 220      
Singularities of flow field, fundamental      232 234 247 249
Singularities of flow field, fundamental 232, 234, 247, 249      
Skeat P.R.      272 273 282
Skeat, P.R.      272 273 282
Skeat, P.R. 272, 273, 282      
Skin friction      286
Skin friction 286      
Skin friction coefficient      296
Skin friction coefficient 296      
Skin friction coefficient in constant-pressure solutions      295 296
Skin friction coefficient in free molecule similitude      408
Skin friction coefficient in locally similar solutions      307 309
Skin friction coefficient in Pr = 1 solutions      307 308
Skin friction coefficient in strong interaction      358 359
Skin friction coefficient in turbulent boundary layers      328—332
Skin friction coefficient in weak interaction      348
Skin friction coefficient, by integral methods      321
Skin friction coefficient, by integral methods 321      
Skin friction coefficient, in constant-pressure solutions      295 296
Skin friction coefficient, in constant-pressure solutions 295, 296      
Skin friction coefficient, in free molecule similitude      408
Skin friction coefficient, in free molecule similitude 408      
Skin friction coefficient, in locally similar solutions      307 309
Skin friction coefficient, in locally similar solutions 307, 309      
Skin friction coefficient, in Pr=1 solutions      307 308
Skin friction coefficient, in Pr=1 solutions 307, 308      
Skin friction coefficient, in strong interaction      358 359
Skin friction coefficient, in strong interaction 358, 359      
Skin friction coefficient, in turbulent boundary layers      328—332
Skin friction coefficient, in turbulent boundary layers 328—332      
Skin friction coefficient, in weak interaction      348
Skin friction coefficient, in weak interaction 348      
Skin friction coefficient, modified      408
Skin friction coefficient, modified 408      
Skin friction coefficient, with transverse curvature      353 364
Skin friction coefficient, with transverse curvature 353, 364      
Skin friction coefficient, with vorticity interaction      372 373
Skin friction coefficient, with vorticity interaction 372, 373      
Slender-body assumption      9 31 34 38
Slender-body assumption 9, 31, 34, 38      
Slender-body flows      6 28 30—69
Slender-body flows 6, 28, 30—69      
Slender-body flows, rarefied      381—383 389
Slender-body flows, rarefied 381—383, 389      
Slender-body theory, subsonic, transonic or supersonic      35 36
Slender-body theory, subsonic, transonic or supersonic 35, 36      
Slender-body theory, subsonic, transonic, or supersonic      35 36
Slip phenomena      27 340 379 387
Slip phenomena 27, 340, 379, 387      
Slip phenomena in axisymmetric stagnation region      380
Slip phenomena, in axisymmetric stagnation region      380
Slip phenomena, in axisymmetric stagnation region 380      
Slip phenomena, on slender body      383
Slip phenomena, on slender body 383      
Small density ratio assumption      9
Small density ratio assumption 9      
Small density ratio assumption in constant-density solutions      139 145 153 160
Small density ratio assumption in Newtonian flow      73 74 88
Small density ratio assumption, in constant-density solutions      139 145 153 160
Small density ratio assumption, in constant-density solutions 139, 145, 153, 160      
Small density ratio assumption, in Newtonian flow      73 74 88
Small density ratio assumption, in Newtonian flow 73, 74, 88      
Small density ratio assumption, with thin shock layers      166 173 181 195
Small density ratio assumption, with thin shock layers 166, 173, 181, 195      
Small-disturbance theory      10 30—69
Small-disturbance theory 10, 30—69      
Small-disturbance theory, examples from      47—52
Small-disturbance theory, examples from 47—52      
Small-disturbance theory, similar solutions in      52—67
Small-disturbance theory, similar solutions in 52—67      
Small-disturbance theory, unsteady      67—69
Small-disturbance theory, unsteady 67—69      
Small-disturbance theory, with strip theory      44—47
Small-disturbance theory, with strip theory 44—47      
Smith A.M.O.      313
Smith, A.M.O.      313
Smith, A.M.O. 313      
Smoothing process      233—236 247
Smoothing process 233—236, 247      
Sonic line      202—208 223 229 249
Sonic line 202—208, 223, 229, 249      
Sonic point in shock layer, average      198
Sonic point in shock layer, average 198      
Sonic point on body      204—206 221—223
Sonic point on body 204—206, 221—223      
Sonic point on shock      22 207
Sonic point on shock 22, 207      
Sonic singular point      220—223
Sonic singular point 220—223      
Southwell R.V.      226 228
Southwell, R.V.      226 228
Southwell, R.V. 226, 228      
Sparrow E.M.      323
Sparrow, E.M.      323
Sparrow, E.M. 323      
Specific heat at constant pressure      263 264
Specific heat at constant pressure 263, 264      
Specular reflection      397 398
Specular reflection 397, 398      
Specular reflection in infinite speed ratio flows      404
Specular reflection, hypersonic similitude with      407
Specular reflection, hypersonic similitude with 407      
Specular reflection, in infinite speed ratio flows      404
Specular reflection, in infinite speed ratio flows 404      
Specular reflection, Newton's model with      73
Specular reflection, Newton's model with 73      
Speed of sound      13 27
Speed of sound 13, 27      
Speed ratio      400
Speed ratio 400      
Sphere constant-density solution for      158—162 238 239 244 388
Sphere constant-density solution for 158—162, 238, 239, 244, 388      
Sphere constant-density solution for, flow about      242—244
Sphere constant-density solution for, in free molecule flow      414 415
Sphere constant-density solution for, Newtonian solution for      82 110 111
Sphere flow about 242—244      
Sphere in free molecule flow      414 415
Sphere in free molecule flow 414, 415      
Sphere Newtonian solution for 82, 110, 111      
Sphere, constant-density solution for      158—162 238 239 244 388
Sphere, flow about      242—244
Sphere, Newtonian solution for      82 110 111
Spherical shock wave, solutions with      236—242
Spherical shock wave, solutions with 236—242      
Squire H.B.      300
Squire, H.B.      300
Squire, H.B. 300      
Stability of inverse solution procedure      230—234 246 247
Stability of inverse solution procedure 230—234, 246, 247      
Stability of iteration, scheme      178 214
Stability of iteration, scheme 178, 214      
Stagnation point boundary layer solutions      293 298—303
Stagnation point boundary layer solutions 293, 298—303      
Stagnation region, difficulty in      171 177
Stagnation region, difficulty in 171, 177      
Stagnation temperature in terms of speed ratio      405
Stagnation temperature in terms of speed ratio 405      
Stalder J.R.      396 406
Stalder, J.R.      396 406
Stalder, J.R. 396, 406      
Stand-off distance at critical point      185 187
Stand-off distance at critical point 185, 187      
Stand-off distance at general stagnation point      164
Stand-off distance at general stagnation point 164      
Stand-off distance in method of integral relations      221 222
Stand-off distance in method of integral relations 221, 222      
Stand-off distance on blunt bodies of revolution      159 160 162 184 197 238 249 250
Stand-off distance on blunt bodies of revolution 159, 160, 162, 184, 197, 238, 249, 250      
Stand-off distance on blunt two-dimensional bodies      152 155—158 197 224
Stand-off distance on blunt two-dimensional bodies 152, 155—158, 197, 224      
Stand-off distance on flat-nosed body      186 200 201
Stand-off distance on flat-nosed body 186, 200, 201      
Stand-off distance, at critical point      185 187
Stand-off distance, at general stagnation point      164
Stand-off distance, on blunt bodies of revolution      159 160 162 184 197 238 249 250
Stand-off distance, on blunt two-dimensional bodies      152 155—158 197 224
Stand-off distance, on flat-nosed body      186 200 201
Stanton number      297 see "Nusselt
Stanton number in constant-pressure solutions      297
Stanton number in free molecule similitude      409
Stanton number in strong interaction      358 359
Stanton number see “Heat transfer to body; Nusselt number”, 297      
Stanton number, in constant-pressure solutions      297
Stanton number, in constant-pressure solutions 297      
Stanton number, in free molecule similitude      409
Stanton number, in free molecule similitude 409      
Stanton number, in strong interaction      358 359 Heat
Stanton number, in strong interaction 358, 359      
Stanton number, modified      409
Stanton number, modified 409      
Stanyukovich K.P.      53
Stanyukovich, K.P.      53
Stanyukovich, K.P. 53      
Stark W.I.      303 304
Stark, W.I.      303 304
Stark, W.I. 303, 304      
Stevens V.I.      30
Stevens, V.I.      30
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