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20 点
出版社
出版时间
2222
ISBN
标注页数
0 页
PDF页数
280 页
标签
Introduction 1
Remarks about Functional and Spectral Representation 4
Part Ⅰ.Field Operators 11
1.Simultaneous Spectral Representation of Infinitely Many Operators 11
2.Commutation Rules and Improper Operators 13
3.The Differential Equations 17
4.The Energy Integral 20
5.Motivation of the Configuration Space Representation 25
Part Ⅱ.Particle Re presentation 28
6.Biquantization 28
7.Remark on the Occupation Number Representation 35
8.Annihilation and Creation Operators 37
9.Time Variation of Annihilation and Creation Operators and Representation of Field Operators 45
10.Trace Operators 46
11.Oscillators 51
12.Hermite Functionals and Integration over the Hilbert Space 52
Bibliography to PartsⅠand Ⅱ 63
Part Ⅲ.Boson Field in Interaction with a Given Source Distribution 65
13.Expectation Values of the Energy and the Number of Bosons 65
Representations 67
Operators and Differential Equations 68
Asymptotic Expectation Values 72
Modified Particles 77
14.Particle Representation of the States of the Boson Field Modified by a Source Distribution 79
First Form of the Operator T 83
Second Form of the Operator T 86
Modified Vacuum State 88
Transformation to the Modified Particle Representation 89
Probabilities in General 91
Derivation 92
Probabilities in Special Cases 93
15.Transition Probabilities 95
Transition Probabilities for the Vacuum State 97
General Transition Probabilities 99
Perturbation 102
Method of Spectral Transformation 103
16.Boson Fields under the Influence of a Source Distribution Which Varies in Time 104
Infinitely Slow Switch-on 107
Removing Sinks from Sources 109
Switching Off 109
Lorentz Invariant Formulation 110
17.Modified Vacuum States 113
Influence of a Source Distribution 115
Probability Distribution of the Energy 118
Blbliography to Part Ⅲ 120
Supplementary References to Parts Ⅰ and Ⅱ 120
part Ⅳ.Occupation Number Representation and Fields Different Kinds 121
18.Occupation Number Representation 121
Particle and Occupation Representation 123
Occupation Functionals 125
Correspondence between Occupation Functionals and Particle Representers 128
Representation by Occupation Functionals 129
Different Forms of the Occupation Representation 130
Occupation Functions of a Discrete Variable 130
Annihilation and Creation Operators 132
Formal Operations 134
Biquantized Operators 136
Modified Vacuum State 137
Expectation Values 138
Equidistribution State 139
19.Myriotic and Amyriotic Fields 139
Functionals of the Second Type 142
Annihilation and Creation Operators 145
The Functionals f(v) 147
Representation by Functionals φ(v) 148
Proof that Myriotic Fields Possess No Vacuum States 149
Equidistribution State 151
Expectation Values 152
Infrared Catastrophe 153
Occupation Functions of a Discrete Variable 153
Myriotic Field in a Box 155
20.Probabilities and Expectation Values for the Equidistribution State 156
Evaluation of Iw(τ) for Polynomials τ(ν) 157
Evaluation of the Expression Iw(τ) by Complex Integration 160
Conditions on λ(s),w(?),and h(z) 162
Evaluation of Probabilities 164
Saddle Point Method 166
Conditioned Equidistribution State 166
21.Occupation Number Representation for Fermion Fields 168
Representation of the First Type 169
Representation of the Second Type 173
Equidistribution State 174
Definition of the Functional F(v) 175
Evaluations for the F-Equidistribution State 176
Properties of the Projector F 179
Partly Myriotic Fields 181
Bibliography to Part Ⅳ 183
Part Ⅴ.Fields Modified by Linear Homogeneous Forces 185
22.Boson Fields under the Influence of Spring Forces 185
Adjoint and Conjugate Operators 186
Various Types of Problems 187
Modified and Unmodified Particle Representation 188
Modified Energy Operator for Single Particles 189
Modified Creation and Annihilation Operators 190
Remarks about Energy Operators 191
Modified Particle Representation 192
Canonical Transformations 193
23.General Homogeneous Linear Transformation of Creation and Annihilation Operators 194
Pseudo-biquantized Operators 197
First Commutator Identity 199
Exponential Function of Pseudo-biquantized Operators 200
First Similarity Rule,First Form of the Operator T 201
24.E-ordering of the Canonical Transformation 201
Second Commutator Identity 202
Composition Rule 203
Second Form of the Canonical Transformation 204
Modified Vacuum State 207
First Decomposition 209
Relations between E,F,G,and Y 210
Trace Relations 211
Conditions for the Existence of the Canonical Transformation 212
25.Third and Fourth Form of the Canonical Transformation 214
Third and fourth Form of the Transformation T 214
Second Decomposition 215
Final Form of the Transformation T 217
Identification of the Third and Fourth Form of T 217
Second and Third Similarity Rule 219
Composition Rule for Biquantized Operators 220
Identity of the Fourth and the Second Form of the Operator T 221
26.Application to Boson Fields 222
Reduction of the Quantized to the Unquantized Field Problem 223
Conditions for the Existence of the Canonical Transformation 224
Special Cases 224
27.Transition Operator.Scattering Operator 227
Method of Spectral Transformation 227
Transition Operator 228
Direct Method 229
Properties of the Transition Operator 230
Time Variation of the Vacuum State 231
Asymptotic Transition Probabilities 232
Scattering Operator 233
Scattering Operator According to Yang and Feldman 234
Asymptotic Field for Scattering Operator 235
Justification 235
Interpretation 237
28.A Modified Electron-Positron Field 239
Dirac Electron 240
Transformation of the Quantum Variables 241
Electron-Positron Field 245
A Modified Electron-Positron Field 247
Linear Transformation of Operators A into Operators B 247
Modified Vacuum State 249
Vacuum Transition Probability 249
Perturbation Approximation 251
Bibliography to Part Ⅴ 251
Appendix:Lorentz Invariant Treatment of Boson Fields 257
29.Unquantized Field 257
Momentum Representation 258
Equations for Wave Amplitudes 261
Inverse Operators 262
Inner Products 263
30.Boson Field Subject to Homogeneous Forces 265
Comments and Corrections 269
Supplementary Bibliography 272
