Progress in Quantum Electronics 1991: Vol 15 Index

11 Pages·1991·1.7 MB·English

AUTHOR INDEX
Abeles, F. 200 Boyd, R. W. 264
Adams, A. 191, 192, 202 Boyton, F. P. 23
Adesida, I. 167 Bozhkov, A. I. 13, 27
Agranovich, V.M. 193 Braunstein, A. J. 203
Agrovsky, B.S. 47, 67, 78, 92, 93, 94, 112, 122, Braunstein, M. 203
127, 128, 130, 140 Brorson,S.D. 192
Aitken, A. N. 66 Brown, R. T. 23, 26
Akber, A. 198 Brown, W.R. 50
Akhmanov, S. A. 3, 18, 27, 35, 79, 92, 96 Brugger, H. 170
Akhtyrchenko, Yu. V. 3, 11 Bukaty, V.I. 9
Akita, K. 156 Buldakov, V.M. 78
Alckock, J. 11 Bunkin, F. V. 11, 13, 27
Aleshkevitch, V. A. 35, 79, 92, 142, 143 Busher, R.G. 92, 93, 103
Alexander, H. 154 Butler, J. K. 156, 157, 170
Alferness, R. 92, 125 Bykovski, A. Y. 197
Almayev, P. Kh. 92 Bylsma, R. B. 234, 235, 278, 279
Anan’ev, Yu. A. 257
Anderson, D. 42
Anderson, D. Z. 231 Camac, M. J. 6,7,8
Anikeev, I. Yu. 279, 280, 281, 282 Celli, V. 225
Antonishkis, N. Y. 161 Chambers, D. H. 150, 151
Apsley, N. 193, 220 Chanturiya, G. F. 13
Arakawa, E. T. 223 Chaporov,D. P. 9
Armand, N. A. 116 Charnotskii, M. I. 150, 151
Arsenyan, T. I. 3, 92 Chashey, I. V. 67, 77, 92, 125
Arya, K. 192 Chegotov, M. V. 248
Askaryan, G. A. 9, 11, 13, 30, 50, 53, 67 Chen, Y. 158, 166
Averbakh, V.S. 3,11, 12 Chen, Y.C. 166
Chen, Y. J. 223
Cherenkov, D. A. 190
Babichenko, S. M. 67, 92 Chesnokov, S.S. 47
Bailey, R. J. 167 Cheung, R. 167
Bakut, P. A. 3, 87 Chinn, J.D. 167
Ballantyne, J.(M) 158, 166, 167, 223 Chirkin, A. S. 3, 79, 87, 92
Banakh, V. A. 78, 150, 151 Chmil, A. I. 116
Bar-Chaim, N. 170 Chopra, K.L. 226
Barnard, J.J. 150, 151 Christy, R. W. 215
Basov, N. G. 231, 232, 245, 279 Chugunov, A. V. 14
Baumann, J. A. 161 Coleman, J.J. 158, 161, 166
Beach, R. 168, 169 Comaskey, B. 168, 169
Bednarz, J.P. 158 Courney, L. 13
Beernink, K. J. 158, 161, 166 Cowan, J.J. 223
Behfar-Rad, A. 167 Cronin-Golomb, M. 231, 232, 233, 235, 240, 241,
Belenky, N.S. 92 279, 284
Belenov, E. M. 197, 227
Belic, M. 235, 264
Belokon, V. A. 23, 27 Dalby, R. J. 161
Belyayev, Ye. B. 3, 11 Danileiko, Yu. K. 50
Benett, W. 168, 169 Davis, L.C. 181, 215
Berger, P. J. 50, 58 Davis, R. J. 167
Bertaska, R. K. 157, 164, 165 Dawson, P. 193, 201, 202, 209
Beserman, R. 156 De Sanctis, J. L. 161
Bespalov, V.I. 28, 37, 67, 231, 232, 245, 279 Deardorff, J. M. 97, 127, 128
Betin, A. A. 3, 11, 12 Di Maria, D. J.
Bissonette, L. R. 127 Dobson, P. S.
Bogadaev, N. V. 271, 274 Dolin, L. S.
Boivin, L. P. 187 Donnelly, J. P. 167
Bondarenko, N. G. 28 Dremina, S. I. 79, 92, 142, 143
Bondarev, A.D. 161 Dubovskii, P. E. 150, i51
Bonnedal, M. 42 Dunning, G. J. 231
Bour, D. P. 158 D’yakov, A. S. 150
ii AUTHOR INDEX
Dyakov, Yu. Ye. 3, 79, 92 Goodhue, W.D. 167
Dyshko, A. L. 47 Gordeev, A. A. 234
Dzhidzhoyev, M.S. 14 Gordienko, V. M. 7, 18, 23
Gordin, M. P. 3, 22, 47, 92, 103, 142
Gordina, L. I. 92, 103, 142
Eason, R. W. 234, 235, 265 Gorokhov, Yu. A. 35
Efimkov, V. F. 231, 232, 245, 279, 281, 282 Gorshkov, V. A. 7, 23
Efremow, N. E. 167 Goryachev, L. V. 3, 11
Eliseev, V. V. 232, 242, 250, 262, 271, 273, 274, Gottschalk, H. 154
275, 278, 279, 283 Gracheva, M. Ye. (E) 16, 150, 151
Emde, F. 25 Gradshtein, I. S. 89
Endo, K. 155, 170 Granjoux, P. 167
Endriz,J.(G) 168, 193, 223 Grebenyuk, Yu.V. 29
Epperlein, P. W. 170 Grigoryev, F. V. 3, 11
Ettenberg, M. 156, 157, 158 Gudat, W. 215
Ewbank, M.D. 234, 235, 265 Guedes, J"M. P. 193, 219
Gulin, A. V. 49
Gurvitch, A. S. 3, 12, 16, 29, 67, 78, 92, 93, 94,
Fabelinsky, I. L. 67 96, 97, 107, 111, 112, 115, 122, 123, 124,
Fabian, K. B. 158 127, 128, 130, 133, 136, 140, 150, 151
Faisullov, F.S. 231, 232, 245, 279 Gustafson, T. K. 191, 193, 203, 219
Farrier, M. G. 193, 203, 219
Fedorchenko, A. T. 27
Feinberg, J. 234, 235, 265, 279, 287 Hagemann, H. 215
Feit, M. D. 23, 27, 32, 34, 47, 58, 139, 140 Hall, D. G. 210
Fekete, D. 158, 166 Hamada, K. 165
Feizulin, Z.I. 102 Hamm, R.N. 223
Felszerfalvi, J. 192, 193, 196, 202, 203, 204, 205, Handy, R. M. 203
206, 207, 208, 219, 221, 223 Hansma, P. K. 191, 192, 202
Ferguson, A.J. L. 193 Harding, C. M. 167
Fernandex, A. 167 Hardy, J. W. 3, 87
Fischer, S (E) 158, 166 Hartman, R.L. 154
Fischetti, M. V. 192 Hayakawa, T. 167
Fisher, B. 231, 232, 233, 234, 235, 238, 240, 241, Hayes, J. N. 23, 27, 66
245, 259, 265, 272, 279, 284 Heitmann, D. 185, 186, 187, 188, 189, 190, 193,
Fisher, R. A. 231, 232 223, 225, 226
Fleck, J. A. 23, 27, 32, 34, 47, 58, 139, 140 Hellwarth, R. W. 232, 234
Fox, P. J. 198 Hemphill, R. 191
Frank, I. M. Henry, C. H. 170
Fujimoto, F. Henry, L. 167
Fujiwara, T. Herrmann, J. 87
Fukuda, M. Hijikata, T. 167
Furuse, T. Hill, D. S. 155, 156, 157, 162
Hirsch, P. B. 154
Hone, D. 190, 191, 210, 214
Galitch, N. Ye. 92 Hora, H. 11
Gamo, K. 167 Hu,C. 13
Gaponov, V. A. 3, 11, 12 Hughes, H. P. 193, 220
Garbuzov, D. Z. 161 Humphrey, L.M. 219
Garon, A.M. 96, 127, 128 Hutchinson, P. W. 154, 156, 157
Gauthier, D. J. 264
Gebhardt, F.G. 3, 7, 18, 23, 38, 39, 41, 50, 58,
64, 66, 92, 93 Ikeda, M. 157
Geis, M. W. 167 Imai, H. 162, 170
Gerasimov, B. P. 18 Ishida, K. 155
Gerry, E.T. 7 Ishida, T. 167
Gfeller, F.R. 172 Ishimaru, A. 3, 86, 92
Gibson, F. P. 34 Isozumi, S. 156
Gilbert, D. B. 158 Ivieva, L. 1. 271, 274
Ginzburg, V 185 Iwane, G. 162
Glaskov, D. A. 234, 279, 281, 282
Glass, A. M. 219, 234, 235, 278, 279
Glass, N. E. 188, 193, 223 Jackson, J.D. 189, 190
-Glicler, S. L. 3, 10 Jahnke, E. 25
Gochelashvili, K. S. 3, 67, 77, 92, 125 Jain, R. K. 191, 193, 203, 219
Gold, R. D. 156 Jeliseev, P. G. 227
Goldstein, R. J. 96, 127, 128 Jensen, H. E. 198
AUTHOR INDEX
Jiang, J. P. 279, 287 Kurdi, B. N. 210
Johnson, P. B. 215 Kuzikovsky, A. V. 3, 10
Kuz’minov, Yu. S. 279, 280, 284, 286
Kuznetzov, M. F. 150, 151
Kabanov, M. V. 7 Kuzikovsky, A. V. 92, 150, 151
Kadiec, J. 219
Kalinovsky, V. V. 3, 11
Kallistratova, M. A. 47, 115, 127
Kamejima, T. 155, 156, 170 Laguchev, A. S. 92, 107, 140, 141
Kandidov, V. P. 42, 47, 67, 92, 107, 140, 141, 143 Laks, B. 190, 192, 202, 210, 214, 218
Kaneda, S. 226 Lamb, R. N. 193, 220
Karamzin, Yu. N. (I) 47, 87 Lambe, i 190, 191, 194, 199, 210
Karr, T. J. 150, 151 Landau,L.D. 19
Kasoyev, S.G. 13 Lang,D. V. 156
Katsavets, N. I. Larsen, R.S. 13
Kawano, H. 155 Latta, E. 170, 171
Kazumura, M. 165 Lebedeval, Le. a
Kelley, P.L. 37 Lebedev, S.S. 79, 92, 142, 143
Keramidas, V.G. 155 Ledenev, V.I. 47, 67, 92, 140, 141, 143
Kern, D. 167 Lee, K. 167
Khait, Y.L. 156 Lee, Y. 167
Khmelevtsov, S. S. 3, 78, 92, 107, 111, 123, 124, Leopold, M.M. 155, 157, 162
133 Liao, P. F. 219
Khokhlov, P. B. 35 Lifshits, Ye. M. 19
Khokhlov, R. V. 23, 27 Lilly, J.Q. 47,92
Khomenko, A. E. 232 Lincoln, G. A. 167
Kim, J. 161 Lisiak, M. 42
Kimerling, L.C. 154, 156 Litvak, A.G. 28, 37, 67
Kirkby, P. A. 159, 161 Logan, R. A. 170
Kirtley, J. R. 192, 193, 200, 202, 204, 206, 223 Long, R.K. 6,8
Klavder, J. R. 123 Lésch,F. 25
Klyatskin, V.I. 28 Loskutov, V.S. 3, 10
Knoedler, C. 167 Lotkova, E.N. 150, 151
Kochergin, A. V. 161 Loudon, R. 188
Kogan, M.N. 23 Lugovoy, V.I. 27
Kolomensky, Al. A. 27 Lukin, V. P. 3, 47, 87, 150, 151
Kolosov, V. V. 9, 150, 151 Luskinovich, P. N. 197, 227
Komaki, K. 182 Lyakhov, G. A. 67
Komissarov, V.M. 13 Lyamshev, L.M. 13
Komiya, S. 157
Kompanetz, I. N. 227
Kon, A. I. 3, 78, 92, 107, 111, 123, 124, 133 Madhava-Menon, E. 162
Kondo, K. 156 Maeda, K. 155
Kondo, M. 167 Mamaev, A. V. 232, 234, 235, 265, 279, 280, 284,
Kotani, T. 156 286, 287, 289, 290
Kontani, T. 170 Manenkov, A. A. 50
Konyayev, P. A. 47, 49, 92, 107, 140, 141, 143, Maradudin, A. A. 188, 225
144 Marchuk, G.I. 48, 49
Kopytin, Yu. D. 3, 10 Markin, O. A. 23
Korobkin, V. V. 81, 100 Marom, E. 231
Korol’kov, S. A. 279, 280, 284, 286 Martvel, F. E. 29, 115, 127
Korshunov, A. S. 271, 274 Matsui, J. 155
Koteles, E.S. 223 Matsumoto, Y. 155
Kravtsov, Yu. A. 3, 86, 92, 100, 102, 132 Matveyev, A. N. 79, 92, 142, 143
Kressel, H. 156, 157, 170 Mazed, M. 170
Kretschmann, E. 180, 187, 206 Mazur, A. 279
Krindach, D. P. 3, 18, 35, 92, 94, 96, 97, 107, McCarthy, S. L. 190, 191, 194, 199, 210
136, 140 McClatchey, R. A. 7
Kréger, E. 187, 188, 206 Meng, J.C. S. 23
Krolikowski, W. 235, 264 Merritt, F. R. 170
Krog, N. 192, 193, 196, 197, 202, 203, 204, 205, Meystre, P. 235, 264
206, 207, 208, 219, 221, 223, 225, 226 Michelis, G. 11
Kubarev, A. M. 67, 74 Migulin, A. V. 3, 18, 35, 96
Kubo, A. 155 Mikhailov, S. I. 231, 232, 234, 245, 279, 280, 281,
Kucherov, A. N. 23 282
Kume, M. 165 Mikhalevitch, V. G. 50, 53
Kunz, C. 215 Miller, T. G. 34
iv AUTHOR INDEX
Mills, D. L. 188, 190, 192, 193, 202, 210, 214, Pressley, R. J. 4,5, 6
218, 223, 225 Prokhorov, A. N. 50
Mironov, V. L. 3, 78, 92, 107, 111, 123, 124, 133 Prokhorov, A. M. 13
Mittelstein, M. 170
Monin, A. S. 93, 94
Mordukhovitch, M. I. 78 Qu-Chi He 234, 235, 265
Morimoto, M. 170 Quinn, H. F. 193, 201
Morris, J. R. 23, 27, 32, 34, 47, 58, 139, 140, 150, Quinn, J.J. 203, 222
151
Moser, A. 170, 171
Miihischlegel, B. 190, 191, 192, 210, 214 Raether, H. 178, 180, 189, 223
Mukhamad Zhanov, M. A. 67 Rafailov, E.U. 161
Mundinger, D. 168, 169 Ragul’skii, V. V. 231, 232, 245, 279
Murav’ev, N. A. 47, 50 Raizer, Yu. P. 3, 10, 11
Murray, J.R. 150, 151 Reiner, G. 264
Myakinin, V. A. 67, 81, 92, 93, 94, 96, 97, 107, Reisinger, A. R. 163
112, 136, 140, 150, 151 Rendell, R. W. 191, 192
Rhode, R. S. 92, 93, 103
Richardson, M.C. 11
Naito, H. 165 Richie, S. 165
Namba, S. 167 Ritchie, R. H. 223
Narum, P. 264 Robertson, M. J. 157
Naugolnykh, K. A. 13 Rogacheva, L. F. 233, 235, 240, 279
Nayyar, V. P. 35 Rogashkov, S. A. 116
Nerushev, A. F. 92 Romanenko, V.I. 227
Newman, D. (H) 156, 165 Rosengren, L.G. 18
Roza, A.J. 155, 157, 162, 167
Rozanov, N. N. 67
Odintsov, V. I. 233, 235, 240, 279 Rudenko, O. V. 23, 27
Odoulov, S. 279 Ruggieri, N. F. 158
Ognev, L. I. 22 Rushford, M. C. 150, 151
Oh, S. 170 Rutledge, J. E. 213, 214, 216, 218
O’Hara, S. 154, 156, 165 Rytov, S.M. 3, 86, 92, 100, 132
Okayasu, M. 165, 172 Ryzhik, I. M. 89
Olkhov, V.M. 81
Olson, D. H. 219, 234, 235, 278, 279
Oraeveski, A. N. 227 Sakamoto, M. 168
Orlov, S. S. 271, 274 Sakuma, I. 155
Otto, A. 180 Salzman, J. 156
Owechko, Y. 231 Samarsky, A. A. 47, 49
Sato, M. 155
Savransky, V. V. 11
Paicentini, W. J. 167 Sazonov, V.N. 81, 100
Paisiak, J. 23 Scalapino, D. J. 190, 191, 192, 210, 214
Panaioti, N. N. 279, 280, 281, 282, 283 Schulz, C. 223, 225, 226
Panchenko, V. Ya. 7, 23 Scifres, D. 168
Pasmanik, G. A. 67, 74, 78, 79, 231, 232, 245, Scott, A. M. 233, 235
279 Sedunov, Yu. S. 3, 10, 116
Patzer,G. 154 Segi, K. 162
Pearson, J. E. 50 Selby, J. E. A. 7
Pepper, D. M. 232, 234, 235 Semenov, L. P. 92
Petrischchev, V. A. 18, 42, 61, 66, 95, 99 Semyonov, A. A. 3, 92
Petroff, P.M. 154, 155, 156, 157, 162, 170 Semyonov, L. P. 3, 10, 116
Petrov, M. P. 232, 278 Serreze,H. B. 166
Picus, G. S. 203 Seymour, R. J. 223
Pierce, R. M. 213, 214, 216, 218 Shemetov, V. V. 29, 42, 47, 48, 50, 64, 67, 92, 99
Pilipetskii, N. F. 231, 232, 245, 279, 289 Shepard, A.H. 161
Pinchuk, S. D. 92, 116 Sheronova, N. M. 18, 61, 66
Platonenko, V.T. 14 Shimizu, H. 165
Platzmann, P.M. 177 Shipulo, G. P. 13
Pockrand, I. 223 Shipulo, J. P. 50, 53
Pokasov, V. V. 150 Shishov, V. I. 3, 67, 77, 92, 125
Polk, R. G. 34 Shkunov, V. V. 231, 232, 245, 279, 280, 284, 286,
Polozkov, M. M. 271, 274 289
Popov, V.K. 14 Shmalgauzen, V.I. 87
Popovichev, V. I. 231, 232, 245, 279 Shumilov, E.N. 3, 10
Prescott, J. R. 198 Shustin, Ye. G. 116
AUTHOR INDEX
Sica, L. 7 250, 252, 259, 261, 262, 264, 265, 271, 273,
Sigal, G. B. 79 274, 275, 278, 279, 280, 281, 282, 283, 284
Silin, V. P. 232, 234, 235, 244, 248, 252, 261, 279, Tikhonova, N.S. 67, 81, 150, 151
280, 282, 284 Tomlinson, R.C. 11
Simmons, J. G. 196 Tomlinson, W. J. 195, 199
Sinev, S. N. 150, 151 Torikai, T. 170
Siu, D. P. 191 Tran, P. 225
Sivokon, V. P. 87 Troitsky, N. N. 3, 87
Skripkin, A.M. 116 Tsang, J.C. 192, 193, 200, 203, 204, 206, 223
Slayman, C. W. 193, 203, 219 Tsui, D.C. 190
Smalikho, I. N. 150, 151
Smirnov, V. A. 67
Smith, D.C. 3, 7, 10, 18, 22, 23, 26, 38, 39, 41, Ueda, O. 154, 155, 156, 157, 170
64, 65, 92, 93 Uehara, S. 165, 172
Smith III, T. 167 Uehara, Y. 194, 196, 218, 219
Smout, A. M. C. . 234, 235, 265 Uji, T. 156
Sobolev, A. G. 197, 226, 227 Ulrich, J.T. 34, 50, 58
Soboleva, E.M. 197 Ulrich, P. P. (B) 34, 50, 58, 66
Sodha, M.S. 35 Umebu, I. 157
Soffer, B. H. 231 Ungar, J. 170
Sokolov, A. V. 3, 22, 47 Ury, I. 170
Solarz, R. 168, 169 Ushioda, S. 194, 196, 213, 214, 216, 218, 219
Soltz, B. (A) 158, 166, 167 Uskov, A. V. 197, 227
Sonek, G. J. 223 Ustinov, N. D. 3, 87
Soole, J.B. D. 193, 220
Sorokin, Yu. M. 47, 50, 79
Sparks, P.D. 218 Vaudiz, C. 167
Sperry, D. 168, 169 Vedenov, A. A. 23
Starunov, V.S. 67 Viecelli. J. A. 150, 151
Stepanov, S. I. 232, 278 Vlasov, S.I. 42, 95
Stepashkin, V.N. 67, 81 Volkovitsky, O. A. 3, 10, 116
Sternklar, S. 234, 235, 241, 245, 259, 265, 272 Vollmer, B. J. 155, 157, 162, 167
Stoneham, A.M. 156 Vorob’ev, V. V. 12, 13, 16, 19, 23, 29, 34, 35, 37,
Street, J. L. 4,6 42, 47, 48, 50, 64, 67, 78, 81, 87, 92, 93, 94,
Strelkov, G. M. 3, 10, 22, 47, 92, 103, 142 99, 106, 107, 112, 127, 128, 130, 140, 150,
Streltsov, V. I. 27 151
Strohbehm, J. W. 3, 92 Vorontsov, M. A. 87
Studenov, V. B. 50, 53 Vysloukh, V. A. 22, 47
Studenov, V. V. 30, 50 Vysotsky, Yu. P. 3, 11
Sudarshan, E.C. G. 123
Sudo, H. 170
Sukhorukov, A. P. 3, 7, 10, 18, 23, 35, 47, 87 Waggot, P. 233, 235
Suyama, T. 167 Wagner, D. K. 155, 157, 162, 167
Suzuki, K. 194, 219 Wakefield, B. 157
Suzuki, T. 156 Wakita, K. 162, 165, 172
Sviridov, K. N. 3, 87 Wallace, T. 6, 7, 8, 23, 34, 36, 47, 48, 92
Svirkunov, P. N. 92 Walmsley, D. G. 193, 201, 202, 209
Szentirmay, Zs. 192, 193, 196, 197, 203, 204, 205, Wang, D. 234, 235, 265
206, 207, 208, 214, 215, 216, 218, 219, 223, Watanabe, J. 194, 196, 218, 219
225, 226 Waters, R.(G) 155, 156, 157, 158, 161, 162, 163,
164, 165, 166, 167
Wayman, C. 161
Takabe, 226 Webb, D. J. 170, 171, 172
Takahash, K. 167 Weber, H. P. 195, 199
Takanashi, H. 162 Weber, M. (G) 188, 190, 193, 223
Takeshita, T. 165, 172 Weisberg, L.R. 156
Takeuchi, A. 194, 196, 218, 219 Weiss, S. 234, 235, 238, 241, 245, 265, 272
Takeuchi, S. 155 Welch, D. 168, 170
Takusagawa, M. 162, 170 Werner, O. 234, 235, 238, 265
Talanov, V.I. 28, 37, 42, 67, 95 Westervelt, P. J. 13
Tatarsky, V. I. 3, 28, 39, 67, 78, 86, 92, 100, 105, White, J. O. 231, 232, 233, 235, 240, 241, 279,
111, 132, 133 284
Temkin, H. 155 Whiteley, S. R. 191
Theis, T. N. 192, 193, 200, 202, 204, 206, 223 Willis, G. E. 97, 127, 128
Thomson, J. A. 23 Windhorn, T. H. 167
Tihanyi, P.L. 155, 157, 162, 167 Wolf, E.D. 167
Tikhonchuk, V. T. 232, 234, 235, 242, 244, 248, Wolff, P. A. 177
JPQE 15 Index-B
vi AUTHOR INDEX
Wong, S.S. 167 Zaskal’ko, O. P. 279, 280, 281, 282, 283
Wood, A.D. 7 Zavorotnyy, V. U. 150, 151
Wood, R. W. 198 Ze’Dovich, B. Ya. 231, 232, 245, 279, 289
Wyss, J.C. 191, 192, 202 Zemlyanov, A. A. 92
Zemlianov, A. A. 150, 151
Xie, L. Z. 191 Zeyher, R. 192
Zhang, S. 234, 235, 265
Yaglom, A. M. 93, 94 Zhang, Z. 234, 235, 265
Yamakoshi, S. 156 Zhanuzakov, M. G. 235, 259, 265
Yamamoto, S. 167 Zhigulin, S.N. 161
Yariv, A. 231, 232, 233, 234, 235, 240, 241, 279, Zhu, Y. 234, 235, 265
284 Zhukov, N. N. 279, 283
Yashin, V. Ye. 18, 61, 66 Van der Ziel, A. 18
Yasui, K. 226 Zipfel, C.L. 155
Ye, P. 234, 235, 265 Zory, P.S. Jr. 163
Yegorov, K. D. 23, 42, 46, 47, 92, 107, 140, 141 Zozulya, A. A. 232, 234, 235, 242, 244, 250, 252,
Yeh, C. 50 259, 261, 262, 264, 265, 271, 273, 274, 275,
Yellen, S. L. 158, 163, 166 278, 279, 280, 281, 282, 283, 284, 286, 287,
Va F.E.L. 6,8 289, 290
Yonezu, H. 170 Zubarev, I. G. 231, 232, 234, 245, 279, 280, 281,
York, P. K. 158, 161, 166 282
Youasa, T. 170 Zucker, E. 168
Yuba, Y. 167 Zuyev, V. Ye. (I) 3,7, 9, 10, 92
Yusubov, F. M. 87
SUBJECT INDEX
Abel equation for acoustic pressure 15 recombination-enhanced defect reactions
Aberration-free thermal lens approximation 35-38, “REDR” 154-156, 172
41, 88, 99-103, 112 “phonon kick” model 156
Aerosol laser absorption 8-10 short lived large energy fluctuations theory
Air ionization 10-11 “SLEF” 156
Argon laser 128 sudden failure 156-163
Atmospheric monitoring 1-146 dark line defects see darkline defects
Atmospheric refraction 151 semiconductor fabrication 156—
Diode laser fabrication 153, 167
Dislocation pinning mechanism 159
Banana self focusing thermal lens 30, 50 Distant heat source 123-124
Beam overlap region Double-metal topped diode 207-208, 211
beam squeezing 261, 282, 283
fully inside medium 242-247, 249, 255, 282
mostly outside 247-249, 255
Electron beam induced current micrograph
Brillouin scattering 12, 141 “EBIC” 154
Electrostriction effect of laser beams in the
atmosphere 43, 67
Camera, high-speed 81-82, 128
Energy gaps 223
Carbon dioxide laser (CO, laser) 150
“CO” laser 151 Extended thermal lens 107, 111, 112, 140
Clausius—Mossotti relationship 11
Combinational light scattering 12, 141
Conjugation fidelity 260, 264 “Fanning” incoherent scattering 238, 245, 273,
Crystal 274, 276, 278
Ce-doped SBN 272, 284, 287, 290 Fog and cloud clearance 10, 116
cell fluid (parametric ring oscillator) Forced temperature scattering 67
acetone 280, 283 Frank-Ginzburg theory 185
carbon disulfide 280-282 Furutsu-Novikov formula 132
InP:Fe 278
potassium niobate (KNbO,) 291
Gratings
Also see radiation (photon) field of a
Dark line defects 154, 156
metal/insulator interface, periodically
lifetime maps 154
modulated interface, holographic grating
suppression of
fabrication
indium 159
holographic 290
high and low energy bandgap 161, 167
velocity 162 reflection 240, 241
refraction index 250
Defocusing of laser beam 45-47, 67-87, 87, 99,
transmission 240, 251
107-111, 111-112
Diode laser degradation 153-174
Also see Dislocation pinning mechanism
processing/handling-induced flaws 156 Heat halo 9-10
dislocation climb 154 Holographic grating fabrication 194, 204, 217,
indium doping 159 218, 220, 226
dislocation glide 155 dispersion anomalies 222
peierls energy 155 Hot electron tunneling 189, 190, 192, 199-204,
experimental observations 154 208, 219
“facet wearout” 154, 167-172
catastrophic optical damage (C.O.D.) 154,
170
Inclined laser beam path 117, 136
device wavelength 170
Inelastic electron tunneling spectroscopy
facet surface coatings 170
(IETS) 190
gradual decline 155, 163-168
Intensity speckles 107, 125, 135
array heat problems 167-168
current-driven degradation 164-166, 171 Internal photoeffect (IPE) 193, 218, 219-222
fabrication of semiconductor device 167
laser cavity length 163
optically-driven degradation 164, 170, 171 Kerr effect 11, 43, 67
point defect generation 154, 156 Kolmogorov—Obukhov theory 127, 151
Vili SUBJECT INDEX
Laser beam coherence media-photorefractive 234, 238, 287
see Thermal blooming media-stimulated brillouin scattering 234
Laser beam energy, characteristics in the mathematical description
atmosphere 41-43 convection amplifier 245, 247, 265
Laser radiation absorption one-dimension approach 237-241, 270-271
aerosol absorption 8-10 oscillator 238, 240, 265, 289
atmospheric molecular absorption 4-6 three-dimensions approach 242-271, 265-270,
cascade ionization 10 274, 287-
convection within medium 18-23, 34, 125-131 self-pumped four-wave mixing conjugation
forced convection 19-21 geometries 232
convection velocity 21-23 “bird wing” geometry 234
density changes of the medium 23-27 “bridge” geometry 234
evaporation of water drops 10 double phase-conjugative mirror 234,
kinetic cooling 6-8, 150 238-240, 242-249, 271-
light scattering from plasma region 11 eason and smout geometry 234
multiquantum absorption 10 “frog-legs” geometry 234
pre-ionization effect 10-11 two coupled double phase-conjugate
sound generation in the atmosphere 13-18, 151 mirrors 234
variations with altitude 7, 133 two coupled passive ring oscillators 234
water vapour content 7, 151 two interconnected ring oscillators 265-271,
Laser spectroscopy 4 287-291
carbon dioxide content 151
water vapour content 151
Laser types Narrow laser beam width 107-119
light source experimental results 112-117
argon-ion laser 290 Nonlinearity parameter 264, 275
He-Cd laser 271
helium-neon 284, 287
Nd:7AG 278
ruby 283 Oscillation mode 239
Otto method
See Prism method
Mandelshtamm-Brillouin scattering 12, 141
Metal-insulator—metal (MIM) structures 190
bulk plasmon 191 Peclet number 93
surface plasmon 191 Perturbation technique for laser beam propagation
Metal-oxide-heavily doped semiconductor (MOS approximation 38-41, 67-81, 105, 108, 128,
(P2+)) 191 133, 135, 143
Modeling of laser beam propagation in the Phase conjugation 231-291
atmosphere experimental results
Also see Perturbation technique Also see crystal
amplitude perturbations 91-92 equipment used 271-272, 278, 280, 284, 286
approximate method equations 27-47 media — photorefractive 232, 233, 253, 274,
delay-type algorithm 89-90 279, 283, 284
diffraction effect 74-75, 77-78 media — stimulated brillouin scattering 232,
discrete-time compensation 90-91 233, 280-283
distant heat source 123 mathematical description
geometrical optics approximation 71-74, convection amplifier 245, 251, 281
75-77, 80-81, 105-107, 123, 131, 133, 144 low threshold modes 259
numerical simulation 139-141, 141-143, nonlinear theory for parametric ring
143-144 oscillator 262-264
phase-conjugate system 87-92, 151 one-dimension approach 235, 237-241, 259,
phase-screen approximation 117, 127, 139 279
probabilistic description 93-97 oscillator 251, 280-283
mathematical Riemann method 244, 251, 256
component-wise splitting method 48—49 three-dimensions approach 235, 242-271,
explicit three-layer differencing algorithm 274-278, 278, 280-283, 284—
47-48, 59 self-pumped four-wave mixing conjugation
smooth perturbation equations 67-71, 120 geometries
Momentum gap 222, 225 “cat” mirror 233-234
Monochromator, silica prism 198 double phase-conjugative mirror 271-278
Multiple-barrier sandwich triode 226-228 linear passive phase conjugative mirror 233
double barrier tunnel triode 226 one-mirror geometry 233, 241, 249-252,
quantum well structures 227-228 278-279
Mutual conjugation 231-291 parametric ring oscillator 233, 240-241, 251,
experimental results 252-262, 262-265, 279-283
equipment used 287, 290-291 semilinear passive phase mirror 233
SUBJECT INDEX
“Phonon kick” model 156 Also see Laser radiation absorption
Also see Diode laser degradation measurement of 18
Plasma oscillations in metals 176-182 theoretical examples 14
Also see tunnel diodes (MOM); metal-oxide- Spherical laser waves 111
heavily doped semiconductor Structure of the backreflected beam 283, 285-287,
bulk plasmon 177-178 291
Ferrel mode 178, 181, 219 “Super-adaptation” 151
mie mode 181 “super resolution” 151
surface plasmon Surface plasmon polaritions (metals)
curved surface photon emission 182 See Plasma oscillations in metals, surface
experimental results 179, 193-199 plasmons.
fast mode metal/dielectric interface
plasmon 179, 202-204, 206
photon-plasmon coupling methods see Prism Thermal blooming of lasers 1-146, 150-151
method Also see Turbulent medium
slow mode metallic/oxide interface defocusing in a turbulent medium 92-107
plasmon 179, 181, 192, 208 equations for approximate methods 27-47
Polaritons (dielectrics) instability of thermal defocusing
See Plasma oscillations in metals, surface experimental results 81-87
plasmons. initial coherence of the laser radiation 78-81,
Poynting vector 214, 215 133
Prism method 180 laser beam amplitude effects 105-107
attenuated total reflection geometry 180, 189, laser beam coherence 111-112, 119, 120-122,
193, 218, 220, 221 “ATR” 122-125, 142
experimental results 112-117, 122-125
Ring shaped beams in a moving medium 50-53
Radiation (photon) field of a metal/insulator specific first hermite-gauss functions 53-57
interface 182-190 temperature fluctuation effects 103-105,
Bremsstrahlung radiation 190 125-131, 138-139
Cherenkov radiation 189-190 experimental results 127-131
dispersion function 184-185 thermal lens see Thin thermal, Banana
emission caused by current fluctuations 207, self-focusing, Transonic aberration-free
208, 214 Thermal blooming of lasers
methods of approximation 186-187 Also see Laser radiation absorption
extinction theorem 188, 223 diffraction of laser beam 122-125
perturbation method 186-188 inclined path of laser
Rayleigh wave method 187, 225 see (Inclined) Laser beam path
periodically modulated interface 186-189, 193, power attenuation 123
204 Thermal conductivity
polarization 204, 220 turbulent 131-136, 140
smooth interface 182-183, 199, 218, 220 Thermal spikes 197
transition radiation 185-186 Thin thermal lens approximation 9, 58, 111, 112,
tunnel light emissions 222 140, 143, 151
Riemann method 244, 251, 256 short laser pulse 29
Transonic thermal lens
Tunnel diodes, metal-oxide-metal “MOM”
Scanning laser beam perturbations 27, 33, 136 Also see Radiation (Photon) field of a
stagnation zone 33, 34, 58 metal/insulator interface
Seeding light beams (scattering) 238, 239, 274 Also see Double-metal topped diode metal-
Also see “Fanning” insulator-metal “MIM” diode, Multiple-
convective instability 238, 243 barrier sandwich triode, Plasma oscillations
oscillator (absolute) instability 238, 240 in metals, Radiation (photon) field of a
Self-focusing of laser light 11, 43, 141 metal/insulator interface
thermal self-focusing 43-45 back surface emission 193, 208, 210
Self-pumped four-wave mixing conjugation Bremsstrahlung radiation 190, 200
geometries electron-photon interaction in 175-230
See Phase conjugation, and Mutual conjugation light emission 176, 190, 197-199, 199-204
Short laser pulse 120, 125 periodically modulated interface 189, 190
instability 71, 144 Mathematical boundary equations 212-214
multimode 78-81 measurement of the light emitted 197-199
Short-lived large energy fluctuations theory equipment used 197-198
“SLEF” 156 calibration 198
Also see Diode laser degradation layer thickness 202-204
Sound generation by absorption of laser radiation MOM diode fabrication 195
in the atmosphere 13-18 metal evaporation rates 195-196, 211
acoustic pressure variation in the laser beam 16, oxide layer 195
26 working lifetime 197
SUBJECT INDEX
periodically modulated M.O.M. 193 Turbulent medium, thermal blooming in a 92-107,
trapezoidal gratings 193, 226 120-130, 13" -136, 136-139
polarity of bias 193, 208-209, 210, 220 Also see Variable wind velocity
rough surface photon emission 186, 190, 192, mixing 34
193-199, 204-207, 217, 220
dispersion anomalies 222-
small Au/Ag ball doped devices 181, 191 Variable wind velocity effects on thermal
substrate preparation 193-195 blooming 57, 92-107, 125, 140
surface roughness 194 Also see Scanning laser beam perturbations
surface plasmon experimental results 59-62
slow mode 191, 192, 208, 209, 212-219, forced temperature scattering 67
210-212
fast mode 192, 193, 206, 209
plasmon dispersion 223~234 Wide laser beams 120-145, 135
transition radiation 190 experimental results 122-145