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What is in this book? ??.

Chapter 01: Probability and Measure

Measures:

A measure on a set assigns a non-negative value to many (but not necessarily all) subsets of , e.g., counting measure and Lebesgue measure. The theory of measure is fundamentally linked to basic questions about integration.

It is often impossible to assign measures to all subsets of . Instead, the domain of a measure will be a sigma field.

Definition: A collection of subsets of a set is a -field (or a -algebra) if: (a) , (b) If , then , (c) If , then .

Definition: A function on a -field of is a measure if: (a) For every , ; that is, . (b) If are pairwise disjoint elements of , then .

(Why ??) One useful consequence of the second part is that if are measurable sets with union called the limit of the sequence, then . This can be viewed as a continuity property of the measure.

Notation If is a -field of , the pair is called a measurable space and if is a measure on , the triple is called a measure space.

A measure is finite if and -finite if there exist sets in with and $$\big

Chapter 02: Exponential Families

Chapter 03: Risk, Sufficiency, Completeness and Ancillarity

Chapter 04: Unbiased Estimation

Chapter 05: Curved Exponential Families

Chapter 06: Conditional Distributions

Chapter 07: Bayesian Estimation

Chapter 08: Large-Sample Theory

Chapter 09: Estimating Equations and Maximum Likelihood

Chapter 10: Equivariant Estimation

Chapter 11: Empirical Bayes and Shrinkage Estimators

Chapter 12: Hypothesis Testing

Chapter 13: Optimal Tests in Higher Dimensions

Chapter 14: General Linear Model

Chapter 15: Bayesian Inference: Models and Computation

Chapter 16: Asymptotic Optimality

Chapter 17: Large-Sample Theory for Likelihood Ratio Tests

Chapter 18: Nonparametric Regression

Chapter 19: Bootstrap Methods

Chapter 20: Sequential Methods

Appendices: