Advanced Statistics from an Elementary Point of View

Panik, Michael J

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Table of contents
  • Table of contentsvii
  • Prefacexv
  • Chapter 1. Introduction1
  • 1.1 Statistics Defined1
  • 1.2 Types of Statistics1
  • 1.3 Levels of Discourse: Sample vs. Population2
  • 1.4 Levels of Discourse: Target vs. Sampled Population4
  • 1.5 Measurement Scales5
  • 1.6 Sampling and Sampling Errors7
  • 1.7 Exercises7
  • Chapter 2. Elementary Descriptive Statistical Techniques9
  • 2.1 Summarizing Sets of Data Measured on a Ratio or Interval Scale9
  • 2.2 Tabular Methods11
  • 2.3 Quantitative Summary Characteristics16
  • 2.4 Correlation between Variables X and Y38
  • 2.5 Rank Correlation between Variables X and Y42
  • 2.6 Exercises46
  • Chapter 3. Probability Theory53
  • 3.1 Mathematical Foundations: Sets, Set Relations, and Functions53
  • 3.2 The Random Experiment, Events, Sample Space, and the Random Variable59
  • 3.3 Axiomatic Development of Probability Theory62
  • 3.4 The Occurrence and Probability of an Event64
  • 3.5 General Addition Rule for Probabilities65
  • 3.6 Joint, Marginal, and Conditional Probability66
  • 3.7 Classification of Events72
  • 3.8 Sources of Probabilities77
  • 3.9 Bayes’ Rule79
  • 3.10 Exercises82
  • Chapter 4. Random Variables and Probability Distributions93
  • 4.1 Random Variables93
  • 4.2 Discrete Probability Distributions94
  • 4.3 Continuous Probability Distributions101
  • 4.4 Mean and Variance of a Random Variable106
  • 4.5 Chebyshev’s Theorem for Random Variables111
  • 4.6 Moments of a Random Variable113
  • 4.7 Quantiles of a Probability Distribution117
  • 4.8 Moment-Generating Function119
  • 4.9 Probability-Generating Function127
  • 4.10 Exercises132
  • Chapter 5. Bivariate Probability Distributions147
  • 5.1 Bivariate Random Variables147
  • 5.2 Discrete Bivariate Probability Distributions147
  • 5.3 Continuous Bivariate Probability Distributions154
  • 5.4 Expectations and Moments of Bivariate Probability Distributions162
  • 5.5 Chebyshev’s Theorem for Bivariate Probability Distributions169
  • 5.6 Joint Moment–Generating Function169
  • 5.7 Exercises174
  • Chapter 6. Discrete Parametric Probability Distributions187
  • 6.1 Introduction187
  • 6.2 Counting Rules188
  • 6.3 Discrete Uniform Distribution194
  • 6.4 The Bernoulli Distribution195
  • 6.5 The Binomial Distribution197
  • 6.6 The Multinomial Distribution203
  • 6.7 The Geometric Distribution206
  • 6.8 The Negative Binomial Distribution208
  • 6.9 The Poisson Distribution212
  • 6.10 The Hypergeometric Distribution218
  • 6.11 The Generalized Hypergeometric Distribution225
  • 6.12 Exercises226
  • Chapter 7. Continuous Parametric Probability Distributions235
  • 7.1 Introduction235
  • 7.2 The Uniform Distribution236
  • 7.3 The Normal Distribution238
  • 7.4 The Normal Approximation to Binomial Probabilities253
  • 7.5 The Normal Approximation to Poisson Probabilities257
  • 7.6 The Exponential Distribution258
  • 7.7 Gamma and Beta Functions264
  • 7.8 The Gamma Distribution266
  • 7.9 The Beta Distribution270
  • 7.10 Other Useful Continuous Distributions276
  • 7.11 Exercises285
  • Chapter 8. Sampling and the Sampling Distribution of a Statistic293
  • 8.1 The Purpose of Random Sampling293
  • 8.2 Sampling Scenarios294
  • 8.3 The Arithmetic of Random Sampling301
  • 8.4 The Sampling Distribution of a Statistic306
  • 8.5 The Sampling Distribution of the Mean308
  • 8.6 A Weak Law of Large Numbers316
  • 8.7 Convergence Concepts319
  • 8.8 A Central Limit Theorem322
  • 8.9 The Sampling Distribution of a Proportion326
  • 8.10 The Sampling Distribution of the Variance333
  • 8.11 A Note on Sample Moments338
  • 8.12 Exercises342
  • Chapter 9. The Chi-Square, Student’s t, and Snedecor’s F Distributions349
  • 9.1 Derived Continuous Parametric Distributions349
  • 9.2 The Chi-Square Distribution350
  • 9.3 The Sampling Distribution of the Variance When Sampling from a Normal Population354
  • 9.4 Student’s t Distribution357
  • 9.5 Snedecor’s F Distribution362
  • 9.6 Exercises368
  • Chapter 10. Point Estimation and Properties of Point Estimators373
  • 10.1 Statistics as Point Estimators373
  • 10.2 Desirable Properties of Estimators as Statistical Properties375
  • 10.3 Small Sample Properties of Point Estimators376
  • 10.4 Large Sample Properties of Point Estimators408
  • 10.5 Techniques for Finding Good Point Estimators419
  • 10.6 Exercises431
  • Chapter 11. Interval Estimation and Confidence Interval Estimates439
  • 11.1 Interval Estimators439
  • 11.2 Central Confidence Intervals441
  • 11.3 The Pivotal Quantity Method442
  • 11.4 A Confidence Interval for µ Under Random Sampling from a Normal Population with Known Variance443
  • 11.5 A Confidence Interval for µ Under Random Sampling from a Normal Population with Unknown Varian446
  • 11.6 A Confidence Interval for s2 Under Random Sampling from a Normal Population with Unknown Mean447
  • 11.7 A Confidence Interval for p Under Random Sampling from a Binomial Population451
  • 11.8 Joint Estimation of a Family of Population Parameters455
  • 11.9 Confidence Intervals for the Difference of Means When Sampling from Two Independent Normal Popu458
  • 11.10 Confidence Intervals for the Difference of Means When Sampling from Two Dependent Populations:464
  • 11.11 Confidence Intervals for the Difference of Proportions When Sampling from Two Independent Bino470
  • 11.12 Confidence Interval for the Ratio of Two Variances When Sampling from Two Independent Normal P471
  • 11.13 Exercises473
  • Chapter 12. Tests of Parametric Statistical Hypotheses483
  • 12.1 Statistical Inference Revisited483
  • 12.2 Fundamental Concepts for Testing Statistical Hypotheses484
  • 12.3 What Is the Research Question?486
  • 12.4 Decision Outcomes487
  • 12.5 Devising a Test for a Statistical Hypothesis488
  • 12.6 The Classical Approach to Statistical Hypothesis Testing491
  • 12.7 Types of Tests or Critical Regions493
  • 12.8 The Essentials of Conducting a Hypothesis Test495
  • 12.9 Hypothesis Test for µ Under Random Sampling from a Normal Population with Known Variance496
  • 12.10 Reporting Hypothesis Test Results501
  • 12.11 Determining the Probability of a Type II Error β504
  • 12.12 Hypothesis Tests for µ Under Random Sampling from a Normal Population with Unknown Variance510
  • 12.13 Hypothesis Tests for p Under Random Sampling from a Binomial Population512
  • 12.14 Hypothesis Tests for σ2 Under Random Sampling from a Normal Population516
  • 12.15 The Operating Characteristic and Power Functions of a Test519
  • 12.16 Determining the Best Test for a Statistical Hypothesis528
  • 12.17 Generalized Likelihood Ratio Tests537
  • 12.18 Hypothesis Tests for the Difference of Means When Sampling from Two Independent Normal Populat546
  • 12.19 Hypothesis Tests for the Difference of Means When Sampling from Two Dependent Populations: Pai553
  • 12.20 Hypothesis Tests for the Difference of Proportions When Sampling from Two Independent Binomial555
  • 12.21 Hypothesis Tests for the Difference of Variances When Sampling from Two Independent Normal Pop557
  • 12.22 Hypothesis Tests for Spearman’s Rank Correlation Coefficient .S559
  • 12.23 Exercises561
  • Chapter 13. Nonparametric Statistical Techniques569
  • 13.1 Parametric vs. Nonparametric Methods569
  • 13.2 Tests for the Randomness of a Single Sample572
  • 13.3 Single-Sample Sign Test Under Random Sampling580
  • 13.4 Wilcoxon Signed Rank Test of a Median583
  • 13.5 Runs Test for Two Independent Samples587
  • 13.6 Mann-Whitney (Rank-Sum) Test for Two Independent Samples590
  • 13.7 The Sign Test When Sampling from Two Dependent Populations: Paired Comparisons597
  • 13.8 Wilcoxon Signed Rank Test When Sampling from Two Dependent Populations: Paired Comparisons599
  • 13.9 Exercises603
  • Chapter 14. Testing Goodness of Fit609
  • 14.1 Distributional Hypotheses609
  • 14.2 The Multinomial Chi-Square Statistic: Complete Specification of H0609
  • 14.3 The Multinomial Chi-Square Statistic: Incomplete Specification of H0616
  • 14.4 The Kolmogorov-Smirnov Test for Goodness of Fit621
  • 14.5 The Lilliefors Goodness-of-Fit Test for Normality630
  • 14.6 The Shapiro-Wilk Goodness-of-Fit Test for Normality631
  • 14.7 The Kolmogorov-Smirnov Test for Goodness of Fit: Two Independent Samples632
  • 14.8 Assessing Normality via Sample Moments634
  • 14.9 Exercises638
  • Chapter 15. Testing Goodness of Fit: Contingency Tables643
  • 15.1 An Extension of the Multinomial Chi-Square Statistic643
  • 15.2 Testing Independence643
  • 15.3 Testing k Proportions649
  • 15.4 Testing for Homogeneity651
  • 15.5 Measuring Strength of Association in Contingency Tables655
  • 15.6 Testing Goodness of Fit with Nominal-Scale Data: Paired Samples661
  • 15.7 Exercises664
  • Chapter 16. Bivariate Linear Regression and Correlation669
  • 16.1 The Regression Model669
  • 16.2 The Strong Classical Linear Regression Model670
  • 16.3 Estimating the Slope and Intercept of the Population Regression Line673
  • 16.4 Mean, Variance, and Sampling Distribution of the Least Squares Estimators . β0 and . β1676
  • 16.5 Precision of the Least Squares Estimators . β0, . β1: Confidence Intervals679
  • 16.6 Testing Hypotheses Concerning β0, β1680
  • 16.7 The Precision of the Entire Least Squares Regression Equation: A Confidence Band684
  • 16.8 The Prediction of a Particular Value of Y Given X687
  • 16.9 Decomposition of the Sample Variation of Y691
  • 16.10 The Correlation Model695
  • 16.11 Estimating the Population Correlation Coefficient .697
  • 16.12 Inferences about the Population Correlation Coefficient .698
  • 16.13 Exercises705
  • Appendix A717
  • Solutions to Selected Exercises767
  • References and Suggested Reading785
  • Index789
Book details
  • Vendor Elsevier S & T
  • SKU 9780120884940
  • ISBN-13 9780080559322
  • Author Panik, Michael J
  • Category Mathematics
  • Subject General

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The highly readable text captures the flavor of a course in mathematical statistics without imposing too much rigor; students can concentrate on the statistical strategies without getting lost in the theory.
Students who use this book will be well on their way to thinking like a statistician. Practicing statisticians will find this book useful in that it is replete with statistical test procedures (both parametric and non-parametric) as well as numerous detailed examples.

· Comprehensive coverage of descriptive statistics
· More detailed treatment of univariate and
bivariate probability distributions
· Thorough coverage of probability theory with
numerous event classifications