A Course in Mathematical Statistics

Roussas, George G.

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Table of contents
  • Cover
  • Contentsvii
  • Preface to the Second Editionxv
  • Preface to the First Editionxviii
  • Chapter 1. Basic Concepts of Set Theory1
  • 1.1 Some Definitions and Notation1
  • 1.2* Fields and σ-Fields8
  • Chapter 2. Some Probabilistic Concepts and Results14
  • 2.1 Probability Functions and Some Basic Properties and Results14
  • 2.2 Conditional Probability21
  • 2.3 Independence27
  • 2.4 Combinatorial Results34
  • 2.5* Product Probability Spaces45
  • 2.6* The Probability of Matchings47
  • Chapter 3. On Random Variables and Their Distributions53
  • 3.1 Some General Concepts53
  • 3.2 Discrete Random Variables (and Random Vectors)55
  • 3.3 Continuous Random Variables (and Random Vectors)65
  • 3.4 The Poisson Distribution as an Approximation to the Binomial Distribution and the Binomial Distr79
  • 3.5* Random Variables as Measurable Functions and Related Results82
  • Chapter 4. Distribution Functions, Probability Densities, and Their Relationship85
  • 4.1 The Cumulative Distribution Function (c.d.f. or d.f.) of a Random Vector„Basic Properties of t85
  • 4.2 The d.f. of a Random Vector and Its Properties„Marginal and Conditional d.f.s and p.d.f.s91
  • 4.3 Quantiles and Modes of a Distribution99
  • 4.4* Justification of Statements 1 and 2102
  • Chapter 5. Moments of Random Variables„Some Moment and Probability Inequalities106
  • 5.1 Moments of Random Variables106
  • 5.2 Expectations and Variances of Some r.v.’s114
  • 5.3 Conditional Moments of Random Variables122
  • 5.4 Some Important Applications: Probability and Moment Inequalities125
  • 5.5 Covariance, Correlation Coefficient and Its Interpretation129
  • 5.6* Justification of Relation (2) in Chapter 2134
  • Chapter 6. Characteristic Functions, Moment Generating Functions and Related Theorems138
  • 6.1 Preliminaries138
  • 6.2 Definitions and Basic Theorems„The One-Dimensional Case140
  • 6.3 The Characteristic Functions of Some Random Variables146
  • 6.4 Definitions and Basic Theorems„The Multidimensional Case150
  • 6.5 The Moment Generating Function and Factorial Moment Generating Function of a Random Variable153
  • Chapter 7. Stochastic Independence with Some Applications164
  • 7.1 Stochastic Independence: Criteria of Independence164
  • 7.2 Proof of Lemma 2 and Related Results170
  • 7.3 Some Consequences of Independence173
  • 7.4* Independence of Classes of Events and Related Results177
  • Chapter 8. Basic Limit Theorems180
  • 8.1 Some Modes of Convergence180
  • 8.2 Relationships Among the Various Modes of Convergence182
  • 8.3 The Central Limit Theorem187
  • 8.4 Laws of Large Numbers196
  • 8.5 Further Limit Theorems199
  • 8.6* Pólya’s Lemma and Alternative Proof of the WLLN206
  • Chapter 9. Transformations of Random Variables and Random Vectors212
  • 9.1 The Univariate Case212
  • 9.2 The Multivariate Case219
  • 9.3 Linear Transformations of Random Vectors235
  • 9.4 The Probability Integral Transform242
  • Chapter 10. Order Statistics and Related Theorems245
  • 10.1 Order Statistics and Related Distributions245
  • 10.2 Further Distribution Theory: Probability of Coverage of a Population Quantile256
  • Chapter 11. Sufficiency and Related Theorems259
  • 11.1 Sufficiency: Definition and Some Basic Results260
  • 11.2 Completeness271
  • 11.3 Unbiasedness„Uniqueness274
  • 11.4 The Exponential Family of p.d.f.’s. One-Dimensional Parameter Case276
  • 11.5 Some Multiparameter Generalizations281
  • Chapter 12. Point Estimation284
  • 12.1 Introduction284
  • 12.2 Criteria for Selecting an Estimator: Unbiasedness, Minimum Variance285
  • 12.3 The Case of Availability of Complete Sufficient Statistics287
  • 12.4 The Case Where Complete Sufficient Statistics Are Not Available or May Not Exist: Cramér-Rao I293
  • 12.5 Criteria for Selecting an Estimator: The Maximum Likelihood Principle302
  • 12.6 Criteria for Selecting an Estimator: The Decision- Theoretic Approach309
  • 12.7 Finding Bayes Estimators312
  • 12.8 Finding Minimax Estimators318
  • 12.9 Other Methods of Estimation320
  • 12.10 Asymptotically Optimal Properties of Estimators322
  • 12.11 Closing Remarks325
  • Chapter 13. Testing Hypotheses327
  • 13.1 General Concepts of the Neyman-Pearson Testing Hypotheses Theory327
  • 13.2 Testing a Simple Hypothesis Against a Simple Alternative329
  • 13.3 UMP Tests for Testing Certain Composite Hypotheses337
  • 13.4 UMPU Tests for Testing Certain Composite Hypotheses349
  • 13.5 Testing the Parameters of a Normal Distribution353
  • 13.6 Comparing the Parameters of Two Normal Distributions357
  • 13.7 Likelihood Ratio Tests361
  • 13.8 Applications of LR Tests: Contingency Tables, Goodness-of-Fit Tests370
  • 13.9 Decision-Theoretic Viewpoint of Testing Hypotheses375
  • Chapter 14. Sequential Procedures382
  • 14.1 Some Basic Theorems of Sequential Sampling382
  • 14.2 Sequential Probability Ratio Test388
  • 14.3 Optimality of the SPRT-Expected Sample Size393
  • 14.4 Some Examples394
  • Chapter 15. Confidence Regions„Tolerance Intervals397
  • 15.1 Confidence Intervals397
  • 15.2 Some Examples398
  • 15.3 Confidence Intervals in the Presence of Nuisance Parameters407
  • 15.4 Confidence Regions„Approximate Confidence Intervals410
  • 15.5 Tolerance Intervals413
  • Chapter 16. The General Linear Hypothesis416
  • 16.1 Introduction of the Model416
  • 16.2 Least Square Estimators„Normal Equations418
  • 16.3 Canonical Reduction of the Linear Model—Estimation of σ424
  • 16.4 Testing Hypotheses About η= E(Y)429
  • 16.5 Derivation of the Distribution of the F Statistic433
  • Chapter 17. Analysis of Variance440
  • 17.1 One-way Layout (or One-way Classi.cation) with the Same Number of Observations Per Cell440
  • 17.2 Two-way Layout (Classification) with One Observation Per Cell446
  • 17.3 Two-way Layout (Classification) with K (> 2) Observations Per Cell452
  • 17.4 A Multicomparison method458
  • Chapter 18. The Multivariate Normal Distribution463
  • 18.1 Introduction463
  • 18.2 Some Properties of Multivariate Normal Distributions467
  • 18.3 Estimation of μ and Σ and a Test of Independence469
  • Chapter 19. Quadratic Forms476
  • 19.1 Introduction476
  • 19.2 Some Theorems on Quadratic Forms477
  • Chapter 20. Nonparametric Inference485
  • 20.1 Nonparametric Estimation485
  • 20.2 Nonparametric Estimation of a p.d.f.487
  • 20.3 Some Nonparametric Tests490
  • 20.4 More About Nonparametric Tests: Rank Tests493
  • 20.5 Sign Test496
  • 20.6 Relative Asymptotic Efficiency of Tests497
  • Appendix I. Topics from Vector and Matrix Algebra499
  • I.1 Basic Definitions in Vector Spaces499
  • I.2 Some Theorems on Vector Spaces501
  • I.3 Basic Definitions About Matrices502
  • I.4 Some Theorems About Matrices and Quadratic Forms504
  • Appendix II. Noncentral t, X2 and F-Distributions508
  • II.1 Noncentral t-Distribution508
  • II.2 Noncentral X2-Distribution508
  • II.3 Noncentral F-Distribution509
  • Appendix III. Tables511
  • 1 The Cumulative Binomial Distribution511
  • 2 The Cumulative Poisson Distribution520
  • 3 The Normal Distribution523
  • 4 Critical Values for Student’s t-Distribution526
  • 5 Critical Values for the Chi-Square Distribution529
  • 6 Critical Values for the F-Distribution532
  • 7 Table of Selected Discrete and Continuous Distributions and Some of Their Characteristics542
  • Some Notation and Abbreviations545
  • Answers to Selected Exercises547
  • Index561
Book details
  • Vendor Elsevier S & T
  • SKU 9780125993159
  • ISBN-13 9780080493145
  • Author Roussas, George G.
  • Edition 2nd
  • Category Mathematics
  • Subject Mathematical Analysis

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A Course in Mathematical Statistics, Second Edition, contains enough material for a year-long course in probability and statistics for advanced undergraduate or first-year graduate students, or it can be used independently for a one-semester (or even one-quarter) course in probability alone. It bridges the gap between high and intermediate level texts so students without a sophisticated mathematical background can assimilate a fairly broad spectrum of the theorems and results from mathematical statistics. The coverage is extensive, and consists of probability and distribution theory, and statistical inference.


* Contains 25% new material
* Includes the most complete coverage of sufficiency
* Transformation of Random Vectors
* Sufficiency / Completeness / Exponential Families
* Order Statistics
* Elements of Nonparametric Density Estimation
* Analysis of Variance (ANOVA)
* Regression Analysis
* Linear Models