Jacobians of Matrix Transformations and Functions of Matrix Argument

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Transcription:

Jacobians of Matrix Transformations and Functions of Matrix Argument A. M. Mathai Department of Mathematics & Statistics, McGill University World Scientific Singapore *New Jersey London Hong Kong

Contents 1. Jacobians of matrix transformations 1 1.0 Introduction 1 1.1 Vector and matrix derivatives 2 1.1.1 The derivative of a matrix with respect to a scalar 2 1.1.2 The derivative of a scalar function of a vector with respect to the vector 2 1.1.3 The derivative of a scalar function of a matrix with respect to the matrix 6 1.1.4 The derivative of a matrix with respect to an element of the same matrix 14 Exercises 19 1.2 Jacobians of linear matrix transformations 21 1.2.1 Jacobians of vector transformations 21 1.2.2 Linear matrix transformations 24 1.2.3 Function of a function, linear case 31 Exercises 39 1.3 Nonlinear transformations: one matrix case 43 1.3.1 Nonlinear vector transformations 43 1.3.2 Smooth nonlinear transformations 47 1.3.3 Function of a function 60 1.3.4 Jacobians in terms of eigenvalues 66 Exercises 78 2. Jacobians in orthogonal and related transformations 83 2.0 Introduction 83 2.1 Transformations of one matrix to components of two matrices 83 2.1.1 Decomposition with one matrix being triangular or diagonal 83 2.1.2 Decomposition with one matrix being skew symmetric 99 Exercises 111 2.2 Decomposition with one matrix being orthogonal or and element of the Stiefel manifold 115 IX

Exercises 135 2.3 Singular value decomposition 137 _. 2.3.1 Square matrices of full rank 137 2.3.2 Rectangular matrices of full rank 142 Exercises 145 2.4 Simultaneous transformations involving many matrices 147 2.4.1 Transformations involving two matrices 147 2.4.2 Transformations involving many matrices 153 Exercises 158 2.5 Transformations involving submatrices 159 Exercises 169 3. Jacobians in the complex case 171 3.0 Introduction 171 3.1 Jacobians of linear transformations in the complex case 175 Exercises 185 3.2 Smooth nonlinear transformations in the complex case 187 Exercises 198 3.3 Transformations involving determinants and diagonal matrices 199 Exercises 219 4. Transformations involving eigenvalues and unitary matrices 221 4.0 Introduction 221 4.1 Transformations involving skew hermitian matrices 221 4.1.1 A direct evaluation of the integral 228 Exercises 231 4.2 Transformations involving unitary matrices 232 4.2.1 Semiunitary transformations 240 Exercises 243 4.3 Transformations involving singular values 245 4.3.1 Square matrices of full rank 245 4.3.2 Rectangular matrices of full rank 250 Exercises 252 5. Some special functions of matrix argument 253 5.0 Introduction 253 5.1 Elementary functions of matrix argument 253 5.1.1 Matrix-variate real gamma density 254

5.1.2 Laplace transform 254 5.1.3 Functions of matrix argument through Laplace transform 257 5.1.4 Matrix-variate real beta density 259 5.1.5 Functions of matrix argument through zonal polynomials 265 5.1.6 The Weyl fractional integral and fractional derivative 267 5.1.7 The M-transform 271 5.1.8 Matrix-variate Dirichlet integrals and Dirichlet distributions 274 5.1.9 Real matrix-variate Liouville function and Liouville distribution 278 5.1.10 Some applications 279 Exercises 280 5.2 Hypergeometric functions of matrix argument 282 5.2.1 Hypergeometric functions of matrix argument through Laplace transform 283 5.2.2 Hypergeometric functions through zonal polynomials 288 5.2.3 Bessel function of matrix argument 291 5.2.4 Hypergeometric function of matrix argument through M-transform 294 5.2.5 Whittaker function of matrix argument 297 5.2.6 Meijer's G- and Fox's H-functions of matrix argument through M-transform 301 5.2.7 Some applications 303 Exercises 304 5.3 Appell's and Humbert's functions 307 5.3.1 Appell's functions of matrix arguments 308 5.3.2 Humbert's functions of matrix arguments 313 5.3.3 Humbert's functions as limiting forms 317 Exercises 321 5.4 Kampe' de Fe'riet's functions of matrix arguments 322 5.4.1 Definition 322 5.4.2 Some integral representations 323 5.4.3 Some limiting forms 328 5.4.4 Some reduction formulae 330 5.4.5 An application in astrophysics problems 331 Exercises 332 5.5 Lauricella functions of matrix arguments 333

5.5.1 Lauricella function /A of matrix arguments 333 5.5.2 Lauricella function fs of matrix arguments 337 5.5.3 Lauricella function fc of matrix arguments 342 5.5.4 Lauricella function fo of matrix arguments 343 5.5.5 Some mixed results 345 5.5.6 Some applications to statistical distributions 347 (a) Distribution of a linear form 347 (b) Distribution of a determinant 352 (c) Generalized quadratic forms 353 Exercises 354 6. Functions of matrix argument in the complex case 355 6.0 Introduction 355 6.1 Some elementary functions in the complex case 356 6.1.1 Laplace transform in the complex case 358 6.1.2 Zonal polynomials in the complex case 365 6.1.3 The M-transform 367 Exercises 368 6.2 Hypergeometric functions of matrix argument: complex case 369 Exercises 373 6.3 G- and H-functions of matrix argument: complex case 375 Exercises 380 6.4 Functions of several matrix arguments: complex case 381 6.4.1 Dirichlet functions: complex case 381 6.4.2 Appell's functions: complex case 385 6.4.3 Series forms: complex case 389 6.4.4 Humbert's functions: complex case 390 6.4.5 Kampe" de Fe"riet's functions: complex case 394 6.4.6 Lauricella functions: complex case 396 Exercises 399 Appendix 401 Bibliography 411 Glossary of symbols 421 Author index 425 Subject index 429