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Index
Half Title page Title page Copyright page Preface Part I: Introduction
Chapter 1: Modeling
1.1 The model-based approach 1.2 Organization of this book
Chapter 2: Random Variables
2.1 Introduction 2.2 Key functions and four models
Chapter 3: Basic Distributional Quantities
3.1 Moments 3.2 Percentiles 3.3 Generating functions and sums of random variables 3.4 Tails of distributions 3.5 Measures of Risk
Part II: Actuarial Models
Chapter 4: Characteristics of Actuarial Models
4.1 Introduction 4.2 The role of parameters
Chapter 5: Continuous Models
5.1 Introduction 5.2 Creating new distributions 5.3 Selected distributions and their relationships 5.4 The linear exponential family
Chapter 6: Discrete Distributions
6.1 Introduction 6.2 The Poisson distribution 6.3 The negative binomial distribution 6.4 The binomial distribution 6.5 The (a, b, 0) class 6.6 Truncation and modification at zero
Chapter 7: Advanced Discrete Distributions
7.1 Compound frequency distributions 7.2 Further properties of the compound Poisson class 7.3 Mixed frequency distributions 7.4 Effect of exposure on frequency Appendix: An inventory of discrete distributions
Chapter 8: Frequency and Severity with Coverage Modifications
8.1 Introduction 8.2 Deductibles 8.3 The loss elimination ratio and the effect of inflation for ordinary deductibles 8.4 Policy limits 8.5 Coinsurance, deductibles, and limits 8.6 The impact of deductibles on claim frequency
Chapter 9: Aggregate Loss Models
9.1 Introduction 9.2 Model choices 9.3 The compound model for aggregate claims 9.4 Analytic results 9.5 Computing the aggregate claims distribution 9.6 The recursive method 9.7 The impact of individual policy modifications on aggregate payments 9.8 The individual risk model
Part III: Construction of Empirical Models
Chapter 10: Review of Mathematical Statistics
10.1 Introduction 10.2 Point estimation 10.3 Interval estimation 10.4 Tests of hypotheses
Chapter 11: Estimation for Complete Data
11.1 Introduction 11.2 The empirical distribution for complete, individual data 11.3 Empirical distributions for grouped data
Chapter 12: Estimation for Modified Data
12.1 Point estimation 12.2 Means, variances, and interval estimation 12.3 Kernel density models 12.4 Approximations for large data sets
Part IV: Parametric Statistical Methods
Chapter 13: Frequentist Estimation
13.1 Method of moments and percentile matching 13.2 Maximum likelihood estimation 13.3 Variance and interval estimation 13.4 Nonnormal confidence intervals 13.5 Maximum likelihood estimation of decrement probabilities
Chapter 14: Frequentist Estimation for Discrete Distributions
14.1 Poisson 14.2 Negative binomial 14.3 Binomial 14.4 The (a, b,1) class 14.5 Compound models 14.6 Effect of exposure on maximum likelihood estimation 14.7 Exercises
Chapter 15: Bayesian Estimation
15.1 Definitions and Bayes’ Theorem 15.2 Inference and prediction 15.3 Conjugate prior distributions and the linear exponential family 15.4 Computational issues
Chapter 16: Model Selection
16.1 Introduction 16.2 Representations of the data and model 16.3 Graphical comparison of the density and distribution functions 16.4 Hypothesis tests 16.5 Selecting a model
Part V: Credibility
Chapter 17: Introduction and Limited Fluctuation Credibility
17.1 Introduction 17.2 Limited fluctuation credibility theory 17.3 Full credibility 17.4 Partial credibility 17.5 Problems with the approach 17.6 Notes and References 17.7 Exercises
Chapter 18: Greatest Accuracy Credibility
18.1 introduction 18.2 Conditional distributions and expectation 18.3 The Bayesian methodology 18.4 The credibility premium 18.5 The Bühlmann model 18.6 The Bühlmann–Straub model 18.7 Exact credibility 18.8 Notes and References 18.9 Exercises
Chapter 19: Empirical Bayes Parameter Estimation
19.1 Introduction 19.2 Nonparametric estimation 19.3 Semi parametric estimation 19.4 Notes and References 19.5 Exercises
Part VI: Simulation
Chapter 20: Simulation
20.1 Basics of simulation 20.2 Simulation for specific distributions 20.3 Determining the sample size 20.4 Examples of simulation in actuarial modeling
Appendix A: An Inventory of Continuous Distributions
A.1 Introduction A.2 Transformed beta family A.3 Transformed gamma family A.4 Distributions for large losses A.5 Other distributions A.6 Distributions with finite support
Appendix B: An Inventory of Discrete Distributions
B.1 Introduction B.2 The (a, b, 0) class B.3 The (a, b, 1) class B.4 The compound class B.5 A hierarchy of discrete distributions
Appendix C: Frequency and Severity Relationships Appendix D: The Recursive Formula Appendix E: Discretization of the Severity Distribution
E.1 The method of rounding E.2 Mean preserving E.3 Undiscretization of a discretized distribution
Appendix F: Numerical Optimization and Solution of Systems of Equations
F.1 Maximization using Solver F.2 The simplex method F.3 Using Excel® to solve equations
References Index
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