Random Number Generation and Monte Carlo Methods

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Transcription:

James E. Gentle Random Number Generation and Monte Carlo Methods With 30 Illustrations Springer

Contents Preface vii 1 Simulating Random Numbers from a Uniform Distribution 1 1.1 Linear Congruential Generators 6 1.1.1 Structure in the Generated Numbers 8 1.1.2 Skipping Ahead in Linear Congruential Generators... 14 1.1.3 ShufHing the Output Stream 16 1.1.4 Tests of Linear Congruential Generators 17 1.2 Computer Implementation of Linear Congruential Generators 19 1.2.1 Insuring Exact Computations 19 1.2.2 Restriction that the Output Be > 0 and < 1 20 1.2.3 Efficiency Considerations 21 1.2.4 Vector Processors 21 1.3 Other Congruential Generators 22 1.3.1 Multiple Recursive Generators 22 1.3.2 Lagged Fibonacci 23 1.3.3 Add-with-Carry, Subtract-with-Borrow, and Multiply-with-Carry Generators 23 1.3.4 Inversive Congruential Generators 24 1.3.5 Other Nonlinear Congruential Generators 25 1.3.6 Matrix Congruential Generators 26 1.4 Feedback Shift Register Generators 26 1.4.1 Generalized Feedback Shift Registers and Variations... 28 1.4.2 Skipping Ahead in GFSR Generators 30 1.5 Other Sources of Uniform Random Numbers 30 1.5.1 Generators Based on Chaotic Systems 31 1.5.2 Tables of Random Numbers 31 1.6 Portable Random Number Generators 31 1.7 Combining Generators 32 1.7.1 Wichmann/Hill Generator 33 1.7.2 L'Ecuyer Combined Generators 33 XI

xii CONTENTS 1.7.3 Properties of Combined Generators 34 1.8 Independent Streams and Parallel Random Number Generation 36 1.8.1 Lehmer Trees 36 1.8.2 Combination Generators 37 1.8.3 Monte Carlo on Parallel Processors 37 Exercises 38 2 Transformations of Uniform Deviates: General Methods 41 2.1 Inverse CDF Method 42 2.2 Acceptance/Rejection Methods 47 2.3 Mixtures of Distributions 55 2.4 Mixtures and Acceptance Methods 57 2.5 Ratio-of-Uniforms Method 59 2.6 Alias Method 61 2.7 Use of Stationary Distributions of Markov Chains 63 2.8 Weighted Resampling 72 2.9 Methods for Distributions with Certain Special Properties 72 2.10 General Methods for Multivariate Distributions 76 2.11 Generating Samples from a Given Distribution 80 Exercises 80 3 Simulating Random Numbers from Specific Distributions 85 3.1 Some Specific Univariate Distributions 87 3.1.1 Standard Distributions and Folded Distributions 87 3.1.2 Normal Distribution 88 3.1.3 Exponential, Double Exponential, and Exponential Power Distributions 92 3.1.4 Gamma Distribution 93 3.1.5 Beta Distribution 96 3.1.6 Student's t, Chi-Squared, and F Distributions 97 3.1.7 Weibull Distribution 99 3.1.8 Binomial Distribution 99 3.1.9 Poisson Distribution 100 3.1.10 Negative Binomial and Geometrie Distributions 101 3.1.11 Hypergeometric Distribution 101 3.1.12 Logarithmic Distribution 102 3.1.13 Other Specific Univariate Distributions 102 3.1.14 General Families of Univariate Distributions 104 3.2 Some Specific Multivariate Distributions 105 3.2.1 Multivariate Normal Distribution 105 3.2.2 Multinomial Distribution 106

CONTENTS xiii 3.2.3 Correlation Matrices and Variance-Covariance Matrices 107 3.2.4 Points on a Sphere 109 3.2.5 Two-Way Tables 110 3.2.6 Other Specific Multivariate Distributions 111 3.3 General Multivariate Distributions 112 3.3.1 Distributions with Specified Correlations 112 3.3.2 Data-Based Random Number Generation 115 3.4 Geometrie Objects 117 Exercises 118 4 Generation of Random Samples and Permutations 121 4.1 Random Samples 121 4.2 Permutations 123 4.3 Generation of Nonindependent Samples 124 4.3.1 Order Statistics 125 4.3.2 Nonindependent Sequences: Nonhomogeneous Poisson Process 126 4.3.3 Censored Data 127 Exercises 128 5 Monte Carlo Methods 131 5.1 Evaluating an Integral 131 5.2 Variance of Monte Carlo Estimators 133 5.3 Variance Reduction 135 5.3.1 Analytic Reduction 135 5.3.2 Antithetic Variates 136 5.3.3 Importance and Stratified Sampling 137 5.3.4 Common Variates 137 5.3.5 Constrained Sampling 138 5.3.6 Latin Hypercube Sampling 138 5.4 Computer Experiments 140 5.5 Computational Statistics 141 5.5.1 Monte Carlo Methods for Inference 141 5.5.2 Bootstrap Methods 142 5.6 Evaluating a Posterior Distribution 145 Exercises 146 6 Quality of Random Number Generators 151 6.1 Analysis of the Algorithm 151 6.2 Empirical Assessments 154 6.2.1 Statistical Tests 154 6.2.2 Anecdotal Evidence 158 6.3 Quasirandom Numbers 159 6.3.1 Haiton Sequences 160

xiv CONTENTS 6.3.2 Sobol' Sequences 161 6.3.3 Comparisons 162 6.3.4 Variations 163 6.3.5 Some Examples of Applications 163 6.3.6 Computations 164 6.4 Programming Issues 164 Exercises 164 7 Software for Random Number Generation 167 7.1 The User Interface for Random Number Generators 168 7.2 Controlling the Seeds in Monte Carlo Studies 169 7.3 Random Number Generation in IMSL Libraries 169 7.4 Random Number Generation in S-Plus 172 Exercises 174 8 Monte Carlo Studies in Statistics 177 8.1 Simulation as an Experiment 178 8.2 Reporting Simulation Experiments 180 8.3 An Example 180 Exercises 190 A Notation and Definitions 193 B Solutions and Hints for Selected Exercises 199 Bibliography 205 Literature in Computational Statistics 206 World Wide Web, News Groups, List Servers, and Bulletin Boards 208 References 211 Author Index 237 Subject Index 243