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                    | Billington D.S., Crawford J.H. — Radiation Damage in Solids |  
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                    | Предметный указатель |  
                    | | Hamilton, J.G.      241 Hamister, V.C.      395
 Hancock, N.H.      102 130—131 161—162
 Hanstock, R.F.      168
 Hardness,
  181 Hardness, alkali halides      297—298
 Hardness, alpha-particle bombardment      132
 Hardness, aluminum      131—132
 Hardness, copper alleys      132
 Hardness, copper-beryllium      189
 Hardness, deuteron bombardment      132
 Hardness, diamond      224
 Hardness, electron bombardment      132
 Hardness, eopper      132 162
 Hardness, Hastelloy-X      130
 Hardness, Inconel-702      136
 Hardness, Inconel-X, double-aged      136
 Hardness, Inconel-X, single-aged      136
 Hardness, iron      163
 Hardness, iron-armco      132
 Hardness, K-morel      136
 Hardness, lead      131
 Hardness, magnesium      131
 Hardness, mica      238
 Hardness, molybdenum      162
 Hardness, neutron bombardment      132
 Hardness, nickel      132 162
 Hardness, plate glass      238
 Hardness, quartz      238
 Hardness, stainless steel      132 162
 Hardness, titanium      162
 Hardness, zirconium      162
 Harries, D.R.      142 156
 Harris, E.G      40
 Harrison, W.A.      33
 Harte, W.E.      273
 Hastelloy-X, hardness      136
 Hastelloy-X, tensile properties      136
 Haven, Y.      63
 Haynes, J.R.      350
 Heat of combustion, graphite      411
 Heavy-charged particle accelerators, beam current      85
 Heavy-charged particle accelerators, neutrons from      87
 Heavy-charged particle accelerators, radiation hazards      86
 Heavy-charged particle accelerators, temperature measurement      86
 Heavy-charged particles, damage rate      87
 Heavy-charged particles, range      86 89
 Henderson, J.W.      110—111
 Hennig, G.R.      25 396 398 403 405 414—420
 Herring, C.      160 318
 Hill, D.E.      332 44
 Hilseh, R.      65
 Hirsch, H.H,      390—391
 Hirsch, P.B.      73 148
 Hmes, R.L.      47
 Hockenbury, B.W.      109—110 141 143 156 162
 Holden, A.K.      102 135 149 373 384
 Holland, H.D.      7 228
 Holmes, D.K.      28 37 45 47 50 82 105 115 121 126—129 131 140 149 297
 Hombeck, J.A.      350
 Home, K.W.      73
 Honeycombe, R.W.K.      371
 Hove, J.E.      25 398 403 405 414—418
 Howe, J.P.      391
 Huang, K.      101
 Hueschen, R.E.      376 378
 Hunt, C.D’a.      86
 Hunter, S.C.      71
 Huntington, H.B.      58 59 64 101
 Hurley, P.M.      7
 Hurst, R.P.      378
 Hurwitz, H.      36 38
 Impact strength, deuteron bombardment      152
 Impact strength, low-carbon steels      155
 Impact strength, mild steel      152
 Inconel, creep      161—162
 Inconel-702, hardness      136
 Inconel-702, tensile properties      136
 Inconel-X (double-aged), hardness      136
 Inconel-X (double-aged), tensile properties      136
 Inconel-X (single-aged), hardness      136
 Inconel-X (single-aged), tensile properties      136
 Indium antimonide, conductivity      335 337
 Indium antimonide, displacement energies      25
 Indium antimonide, electron bombardment at low temperature      314 336—337
 Indium antimonide, Hall coefficient      335
 Indium antimonide, limiting position of Fermi level      335
 Indium antimonide, minority carried traps      337
 Indium antimonide, n-type, effect of irradiation      314
 Indium antimonide, p-type, effect of irradiation      314
 Indium antimonide, thermal relaxation of defect structure      336—337
 Indium arsenide, limiting position of Fermi level      338
 Indium arsenide, n-type, effect of irradiation      314
 Indium arsenide, p-trype, effect of irradiation      314
 Indium arsenide, thermal relaxation of defects      338
 Indium phosphide, effect of irradiation      314
 Ingham, H.      110 273
 Inhomogeneous defect distribution, deuteron bombaidment      20 48
 Inhomogeneous defect distribution, effect on physical properties      49
 Inhomogeneous defect distribution, germanium      35 49 346
 Inhomogeneous defect distribution, neutron bombardment      25 37 40 50 346
 Interaction potential between colliding particles      19 20.29 45
 Internal friction, alkali halides      297
 Internal friction, copper      126
 Internal friction, dislocation pinning      297
 Internal friction, neutron bombardment      126
 Internal friction, Young’s modulus      126
 Interstitialcy mechanism      58 128 146—149 217
 Ionic conductivity, alkali halides      270 figures
 Ionic conductivity, extrinsic      61
 Ionic conductivity, interstitial      61
 Ionic conductivity, intrinsic      61
 Ionic conductivity, potassium chloride      270 272
 Ionic conductivity, sodium chloride      279
 Ionic conductivity, thermal relaxation, in alkali halides      273 figures
 Ionic conductivity, vacancy      61
 Ionization effects, alkali halides      270 figures
 Ionization effects, silica system      249
 Ionization losses      20 31 36 37 79 270
 Ionization threshold      31
 Iron oxide, dissolution      212
 Iron, activation energy for annealings      145
 Iron, deuteron bombardment      112—113
 Iron, displacement energies      25
 Iron, hardness      162
 Iron, range of recoils from
  reactions      48 Iron, resistivity      109 112—113 115
 Iron, temperature of irradiation      141
 Iron, yield strength      141
 Iron-25 per cent nickel, M temperature      187
 Iron-25 per cent nickel, resistivity      187
 Iron-armco, hardness      132
 Irradiation techniques      95 96
 Jahoda, F.C.      303—304
 James, H.M.      246 320—322 324 327 345 361
 James, Lark-Horovitz model defect energy levels      320 figures 328 345 361
 Jamison, R.E.      98 123 191
 Jeppson, M.B.      97—101
 Johansson.G.H.      174
 Johnson, R.D.      172
 Johnson, W.E.      162 177 312
 Johnston, W, G.      294 296—301
 Joly, J.      7
 Jones, E.R.W.      161—162
 Jones, F.W.      175
 Jones, L.J.      196 385—386
 Jongenberger, P.      104
 Judge, C.      156
 K-monel, hardness.      136
 K-monel, tensile properties      136
 
 | Karnmerer, O.F.      200 Katz, A.      249 259
 Katz, E.      63
 Kearsley, M.J.      243 247—248 320
 Keating, D.T.      205 291 293 416
 Keiman, L.R.      371 375
 Kelly, W.S.      133 376 378
 Keltmg, H.      62 63
 Kemper, R.S.      133 376 378
 Kernohan, R.H.      85 185 192 197 202—203 205 207—211 303—304
 Kierstad, H.A.      101
 Kikom, A.I.      103
 Kinchin, G.H.      33 39—41 95 103 107 109 112 146 177 181 184 282 396 403—406 413—414
 Kinetics of defect annealing      48
 Kinetics of defect annealing, semiconductors above room temperature      357
 Kittel, J.H.      161—162 372
 Klabunde, C.E.      115 317 121 158
 Klein, C.A.      333
 Kleitman, D.      222
 Klemena, P.G.      71 225 227 229 231
 Klonts, E.E.      25 35 88 112 318—319 345 354—357
 Kobayashi.K.      276—280 287—288 309
 Koch, E.      62
 Koehler, J.S.      20 22 24 31 42 43 46 71 86 108 112—113 119—121 127 290—291 293 296 354
 Kohn, H.W.      212 318 319
 Konobeevsky, S.T.      128 374 376 378 380 385—386
 Kortright, J.      319
 Kosiba, W.      420—421
 Kroger, F.A.      62
 Krumhansl, J.A.      360
 Kuns, F.W.      102 135 149 373
 Kurs, A.      415
 Kutaitsev, V.L.      374 376
 Lambert, M.      294
 Lark-Horovitz, K.      12 25 35 246 312—313 318—322 324 327—328 330 333 344—345 358 361
 Last, J.T.      321
 Lattice defects      see “Defects”
 Lattice expansion, alkali halides      286 290
 Lattice expansion, barium titanate      235
 Lattice expansion, beryl      234
 Lattice expansion, chrysoberyl      234
 Lattice expansion, coesite      233
 Lattice expansion, diamond      218 figures
 Lattice expansion, gallium      222
 Lattice expansion, garnet      234
 Lattice expansion, germanium      222—223
 Lattice expansion, graphite      405figures 416
 Lattice expansion, indium antimonide      222
 Lattice expansion, lithium fluoride      290 figures
 Lattice expansion, phenacite      234
 Lattice expansion, quartz      227 figures
 Lattice expansion, silicon      222
 Lattice expansion, silicon carbide      222
 Lattice expansion, theory, in lithium fluoride      280
 Lattice expansion, topaz      234
 Lattice expansion, zircon      228 234
 Lattice expansion, zirconia      234
 Lattice imperfections      see “Defects”
 Lattice parameter      see also “Lattice expansion”
 Lattice parameter, annealing      119—120
 Lattice parameter, copper      101 119—120
 Lattice parameter, copper-zinc      207
 Lattice parameter, theory      101
 Laubenstein, M.J.      25
 Le Claire, A, D.      206—207 382—383
 Lead, hardness      131
 Lead, resistivity      115
 Leeser, D.Q.      154 165—166 197
 Lehmann, C.      38 39
 Leibfried, G.      34 38—40 45 47 51 52
 Leivo, W.J.      285 287 297
 Length change, alkali halides      285
 Length change, copper      101
 Length change, germanium      223
 Length change, lithium fluoride      290 figures
 Levitsky, B.M.      379—380
 Levy, M.      214
 Levy, P.W.      220 265 281—283 305
 Lewis, A.B.      185 192 202
 Li, C.Y.      202 211
 Likhter, A.I.      103
 Lillie, B.W.      94 380
 Lin, L.-Y.      285
 Lind, S.C      92 239
 Lind©, J.O.      174
 Line broadening, neutron bombardment      125
 Linear expansion, graphite      395
 Lintner, K.      181—182
 Lithium bromide, energy of fermatioin of cation anion vacancy pairs      63
 Lithium chloride, energy of formation of cation-anion vacancy pairs      63
 Lithium fluoride, density changes      200 figures
 Lithium fluoride, dislocation loops      296 303
 Lithium fluoride, dislocation motion      297—298
 Lithium fluoride, effect of
  reaction      13 Lithium fluoride, energy of formation of cation-anion vacancy pairs      63
 Lithium fluoride, etch behavioz      302
 Lithium fluoride, hardness change      298
 Lithium fluoride, metallic lithium      294
 Lithium fluoride, molecular fluorine in irradiated      294
 Lithium fluoride, small-angle X-ray scattering      293 302
 Lithium fluoride, spikes from
  reaction      301 Lithium fluoride, structural changes      290 figures
 Lithium fluoride, thermal conductivity      300
 Lithium fluoride, thermal recovery of density change      292 figures
 Lithium fluoride, voids in irradiated      293 296
 Lithium fluoride, yield stress      293
 Littleton, M.J.      284 292
 Loferski, J.J.      25 319 340 385
 Lomer, W.M.      69 122 172—173 207
 Longo, T.A.      331—334 345
 Low, J.R.      152 197—198 386
 Low-carbon iron alloys, brittle fracture      150
 Low-carbon steels, fatigue strength      505
 Low-carbon steels, impact strength      155
 Low-carbon steels, tensile properties      155
 Low-carbon steels, transition temperature      155
 Lukesh, J.S.      224
 Luminescence, diamond      239—240 244—245 248
 Lundsten, R.H.      187
 Lustman, B.      190 385—386
 MacDonald, D.K.C      98
 MacKay, J.W.      39 319 344
 Maddm, R.      148
 Magnesium oxide, electron spin resonance      281
 Magnesium oxide, F'-eenters      281
 Magnesium oxide, impurity bands      280
 Magnesium oxide, optical absorption      281
 Magnesium, compressibility      103
 Magnesium, hardness      131
 Magnesium, internal friction      128
 Magnesium, resistivity      115
 Magnetic metals and alloys, hysteresis loop      184 figures
 Magnetic metals and alloys, iron-nickel 50:50      185 figures 187
 Magnetic metals and alloys, molybdenum permalloy      74—79 184
 Magnetic metals and alloys, mu-metal      184 figures
 Magnetic metals and alloys, permeability      184 figures
 Magnetic metals and alloys, supermalloy      184 figures
 Magnetic susceptibility, graphite      401 figures 419 422
 Magnetic susceptibility, semiconductors      360 figures
 Magnetic susceptibility, silica system      251 264
 Magnetoresistance, graphite      399 figures 420
 Magnusson, G.D.      120—121
 Makin, M.J.      92 135—137 140 142 148 156.161—162
 Maksunova, O.P.      197—198
 Mapother, D.E.      275
 Martensitic transformation, nickel-iron alloys      197—198
 Martensitic transformation, resistivity      197—198
 Martin, A.B.      108 110 172 177
 Marx, J.W.      108 110—113 119
 Mather, R.L.      161
 
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