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Books | May 2007 | Introduction to Mathematical Physics | Table of contents
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  Contents  
 
1 Infinite Sequences and Series 1
1.1 Real and Complex Numbers 3
1.1.1 Arithmetic 3
1.1.2 Algebraic Equations 4
1.1.3 Infinite Sequences; Irrational Numbers 5
1.1.4 Sets of Real and Complex Numbers 7
1.2 Convergence of Infinite Series and Products 8
1.2.1 Convergence and Divergence; Absolute Convergence 8
1.2.2 Tests for Convergence of an Infinite Series of Positive Terms 10
1.2.3 Alternating Series and Rearrangements 11
1.2.4 Infinite Products 13
1.3 Sequences and Series of Functions 14
1.3.1 Pointwise Convergence and Uniform Convergence of Sequences of Functions 14
1.3.2 Weak Convergence; Generalized Functions 15
1.3.3 Infinite Series of Functions; Power Series 16
1.4 Asymptotic Series 19
1.4.1 The Exponential Integral 19
1.4.2 Asymptotic Expansions; Asymptotic Series 20
1.4.3 Laplace Integral; Watson’s Lemma 22
A Iterated Maps, Period Doubling, and Chaos 26
Bibliography and Notes 30
Problems 31
2 Finite-Dimensional Vector Spaces 37
2.1 Linear Vector Spaces 41
2.1.1 Linear Vector Space Axioms 41
2.1.2 Vector Norm; Scalar Product 43
2.1.3 Sum and Product Spaces 47
2.1.4 Sequences of Vectors 49
2.1.5 Linear Functionals and Dual Spaces 49
2.2 Linear Operators 51
2.2.1 Linear Operators; Domain and Image; Bounded Operators 51
2.2.2 Matrix Representation; Multiplication of Linear Operators 54
2.2.3 The Adjoint Operator 56
2.2.4 Change of Basis; Rotations; Unitary Operators 57
2.2.5 Invariant Manifolds 61
2.2.6 Projection Operators 63
2.3 Eigenvectors and Eigenvalues 64
2.3.1 Eigenvalue Equation 64
2.3.2 Diagonalization of a Linear Operator 65
2.3.3 Spectral Representation of Normal Operators 67
2.3.4 Minimax Properties of Eigenvalues of Self-Adjoint Operators 71
2.4 Functions of Operators 75
2.5 Linear Dynamical Systems 77
A Small Oscillations 80
Bibliography and Notes 83
Problems 84
3 Geometry in Physics 93
3.1 Manifolds and Coordinates 97
3.1.1 Coordinates on Manifolds 97
3.1.2 Some Elementary Manifolds 98
3.1.3 Elementary Properties of Manifolds 101
3.2 Vectors, Differential Forms, and Tensors 104
3.2.1 Smooth Curves and Tangent Vectors 104
3.2.2 Tangent Spaces and the Tangent Bundle T (M) 105
3.2.3 Differential Forms 106
3.2.4 Tensors 109
3.2.5 Vector and Tensor Fields 110
3.2.6 The Lie Derivative 114
3.3 Calculus on Manifolds 116
3.3.1 Wedge Product: p-Forms and p-Vectors 116
3.3.2 Exterior Derivative 120
3.3.3 Stokes’ Theorem andi ts Generalizations 123
3.3.4 Closed and Exact Forms 128
3.4 Metric Tensor and Distance 130
3.4.1 Metric Tensor of a Linear Vector Space 130
3.4.2 Raising and Lowering Indices 131
3.4.3 Metric Tensor of a Manifold 132
3.4.4 Metric Tensor and Volume 133
3.4.5 The Laplacian Operator 134
3.4.6 Geodesic Curves on a Manifold 135
3.5 Dynamical Systems and Vector Fields 139
3.5.1 What is a Dynamical System? 139
3.5.2 A Model from Ecology 140
3.5.3 Lagrangian and Hamiltonian Systems 142
3.6 Fluid Mechanics 148
A Calculus of Variations 152
B Thermodynamics 153
Bibliography and Notes 158
Problems 159
4 Functions of a Complex Variable 167
4.1 Elementary Properties of Analytic Functions 169
4.1.1 Cauchy–Riemann Conditions 169
4.1.2 Conformal Mappings 171
4.2 Integration in the Complex Plane 176
4.2.1 Integration Along a Contour 176
4.2.2 Cauchy’s Theorem 177
4.2.3 Cauchy’s Integral Formula 178
4.3 Analytic Functions 179
4.3.1 Analytic Continuation 179
4.3.2 Singularities of an Analytic Function 182
4.3.3 Global Properties of Analytic Functions 184
4.3.4 Laurent Series 186
4.3.5 Infinite Product Representations 188
4.4 Calculus of Residues: Applications 190
4.4.1 Cauchy Residue Theorem 190
4.4.2 Evaluationof Real Integrals 191
4.5 Periodic Functions; Fourier Series 195
4.5.1 Periodic Functions 195
4.5.2 Doubly Periodic Functions 197
A Gamma Function; Beta Function 199
A.1 Gamma Function 199
A.2 Beta Function 203
Bibliography and Notes 204
Problems 205
5 Differential Equations: Analytical Methods 211
5.1 Systems of Differential Equations 213
5.1.1 General Systems of First-Order Equations 213
5.1.2 Special Systems of Equations 215
5.2 First-Order Differential Equations 216
5.2.1 Linear First-Order Equations 216
5.2.2 Ricatti Equation 218
5.2.3 Exact Differentials 220
5.3 Linear Differential Equations 221
5.3.1 nth Order Linear Equations 221
5.3.2 Power Series Solutions 222
5.3.3 Linear Independence; General Solution 223
5.3.4 Linear Equation with Constant Coefficients 225
5.4 Linear Second-Order Equations 226
5.4.1 Classification of Singular Points 226
5.4.2 Exponents at a Regular Singular Point 226
5.4.3 One Regular Singular Point 229
5.4.4 Two Regular Singular Points 229
5.5 Legendre’s Equation 231
5.5.1 Legendre Polynomials 231
5.5.2 Legendre Functions of the Second Kind 235
5.6 Bessel’s Equation 237
5.6.1 Bessel Functions 237
5.6.2 Hankel Functions 239
5.6.3 Spherical Bessel Functions 240
A Hypergeometric Equation 241
A.1 Reduction to Standard Form 241
A.2 Power Series Solutions 242
A.3 Integral Representations 244
B Confluent Hypergeometric Equation 246
B.1 Reduction to Standard Form 246
B.2 Integral Representations 247
C Elliptic Integrals and Elliptic Functions 249
Bibliography and Notes 254
Problems 255
6 Hilbert Spaces 261
6.1 Infinite-Dimensional Vector Spaces 264
6.1.1 Hilbert Space Axioms 264
6.1.2 Convergence in Hilbert Space 267
6.2 Function Spaces; Measure Theory 268
6.2.1 Polynomial Approximation; Weierstrass Approximation Theorem 268
6.2.2 Convergence in the Mean 270
6.2.3 Measure Theory 271
6.3 Fourier Series 273
6.3.1 Periodic Functions and Trigonometric Polynomials 273
6.3.2 Classical Fourier Series 274
6.3.3 Convergence of Fourier Series 275
6.3.4 Fourier Cosine Series; Fourier Sine Series 279
6.4 Fourier Integral; Integral Transforms 281
6.4.1 Fourier Transform 281
6.4.2 Convolution Theorem; Correlation Functions 284
6.4.3 Laplace Transform 286
6.4.4 Multidimensional Fourier Transform 287
6.4.5 Fourier Transformin Quantum Mechanics 288
6.5 Orthogonal Polynomials 289
6.5.1 Weight Functions and Orthogonal Polynomials 289
6.5.2 Legendre Polynomials and Associated Legendre Functions 290
6.5.3 Spherical Harmonics 292
6.6 Haar Functions; Wavelets 294
A Standard Families of Orthogonal Polynomials 305
Bibliography and Notes 310
Problems 311
7 Linear Operators on Hilbert Space 319
7.1 Some Hilbert Space Subtleties 321
7.2 General Properties of Linear Operators on Hilbert Space 324
7.2.1 Bounded, Continuous, and Closed Operators 324
7.2.2 Inverse Operator 325
7.2.3 Compact Operators; Hilbert–Schmidt Operators 326
7.2.4 Adjoint Operator 327
7.2.5 Unitary Operators; Isometric Operators 329
7.2.6 Convergence of Sequences of Operators in 329
7.3 Spectrum of Linear Operators on Hilbert Space 330
7.3.1 Spectrum of a Compact Self-Adjoint Operator 330
7.3.2 Spectrum of Noncompact Normal Operators 331
7.3.3 Resolution of the Identity 332
7.3.4 Functions of a Self-Adjoint Operator 335
7.4 Linear Differential Operators 336
7.4.1 Differential Operators and Boundary Conditions 336
7.4.2 Second-Order Linear Differential Operators 338
7.5 Linear Integral Operators; Green Functions 339
7.5.1 Compact Integral Operators 339
7.5.2 Differential Operators and Green Functions 341
Bibliography and Notes 344
Problems 345
8 Partial Differential Equations 353
8.1 Linear First-Order Equations 356
8.2 The Laplacian and Linear Second-Order Equations 359
8.2.1 Laplacian and Boundary Conditions 359
8.2.2 Green Functions for Laplace’s Equation 360
8.2.3 Spectrum of the Laplacian 363
8.3 Time-Dependent Partial Differential Equations 366
8.3.1 The Diffusion Equation 367
8.3.2 Inhomogeneous Wave Equation: Advanced and Retarded Green Functions 369
8.3.3 The Schrödinger Equation 373
8.4 Nonlinear Partial Differential Equations 376
8.4.1 Quasilinear First-Order Equations 376
8.4.2 KdV Equation 378
8.4.3 Scalar Field in 1 + 1 Dimensions 380
8.4.4 Sine-Gordon Equation 383
A Lagrangian Field Theory 384
Bibliography and Notes 386
Problems 387
9 Finite Groups 391
9.1 General Properties of Groups 393
9.1.1 Group Axioms 393
9.1.2 Cosets and Classes 395
9.1.3 Algebras; Group Algebra 397
9.2 Some Finite Groups 399
9.2.1 Cyclic Groups 399
9.2.2 Dihedral Groups 399
9.2.3 Tetrahedral Group 400
9.3 The Symmetric Group SN 401
9.3.1 Permutations and the Symmetric Group SN 401
9.3.2 Permutations and Partitions 404
9.4 Group Representations 406
9.4.1 Group Representations by Linear Operators 406
9.4.2 Schur’s Lemmas and Orthogonality Relations 410
9.4.3 Kronecker Product of Representations 417
9.4.4 Permutation Representations 418
9.4.5 Representations of Groups and Subgroups 422
9.5 Representations of the Symmetric Group SN 424
9.5.1 Irreducible Representations of SN 424
9.5.2 Outer Products of Representations of Sm Sn 426
9.5.3 Kronecker Products of Irreducible Representations of SN 428
9.6 Discrete Infinite Groups 431
A Frobenius Reciprocity Theorem 435
B S-Functions and Irreducible Representations of SN 437
B.1 Frobenius Generating Function for the Simple Characters of SN 437
B.2 Graphical Calculation of the Characters (m) 442
B.3 Outer Products of Representations of Sm Sn 446
Bibliography and Notes 451
Problems 451
10 Lie Groups and Lie Algebras 457
10.1 Lie Groups 460
10.2 Lie Algebras 461
10.2.1 The Generators of a Lie Group 461
10.2.2 The Lie Algebra of a Lie Group 462
10.2.3 Classification of Lie Algebras 465
10.3 Representations of Lie Algebras 469
10.3.1 Irreducible Representations of SU(2) 469
10.3.2 Addition of Angular Momenta 471
10.3.3 SN and the Irreducible Representations of SU (2) 474
10.3.4 Irreducible Representations of SU (3) 476
A Tensor Representations of the Classical Lie Groups 482
A.1 The Classical Lie Groups 482
A.2 Tensor Representations of U (n) and SU (n) 483
A.3 Irreducible Representations of SO (n) 487
B Lorentz Group; Poincaré Group 489
B.1 Lorentz Transformations 489
B.2 SL (2, C) and the Homogeneous Lorentz Group 493
B.3 Inhomogeneous Lorentz Transformations; Poincaré Group 496
Bibliography and Notes 498
Problems 499
Index 507

 
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