Actuarial Theory for Dependent Risks - Measures, Orders and Models
Published on 3. July 2006
Software
Other digital
458 pages
978-0-470-01645-9 (ISBN)
Description
The increasing complexity of insurance and reinsurance products has seen a growing interest amongst actuaries in the modelling of dependent risks. For efficient risk management, actuaries need to be able to answer fundamental questions such as: Is the correlation structure dangerous? And, if yes, to what extent? Therefore tools to quantify, compare, and model the strength of dependence between different risks are vital. Combining coverage of stochastic order and risk measure theories with the basics of risk management and stochastic dependence, this book provides an essential guide to managing modern financial risk. Describes how to model risks in incomplete markets, emphasising insurance risks. Explains how to measure and compare the danger of risks, model their interactions, and measure the strength of their association. Examines the type of dependence induced by GLM-based credibility models, the bounds on functions of dependent risks, and probabilistic distances between actuarial models. Detailed presentation of risk measures, stochastic orderings, copula models, dependence concepts and dependence orderings.
Includes numerous exercises allowing a cementing of the concepts by all levels of readers. Solutions to tasks as well as further examples and exercises can be found on a supporting website. An invaluable reference for both academics and practitioners alike, Actuarial Theory for Dependent Risks will appeal to all those eager to master the up-to-date modelling tools for dependent risks. The inclusion of exercises and practical examples makes the book suitable for advanced courses on risk management in incomplete markets. Traders looking for practical advice on insurance markets will also find much of interest.
Includes numerous exercises allowing a cementing of the concepts by all levels of readers. Solutions to tasks as well as further examples and exercises can be found on a supporting website. An invaluable reference for both academics and practitioners alike, Actuarial Theory for Dependent Risks will appeal to all those eager to master the up-to-date modelling tools for dependent risks. The inclusion of exercises and practical examples makes the book suitable for advanced courses on risk management in incomplete markets. Traders looking for practical advice on insurance markets will also find much of interest.
More details
Language
English
Place of publication
Chichester
United Kingdom
Publishing group
John Wiley and Sons Ltd
Target group
Professional and scholarly
Dimensions
Height: 250 mm
Width: 176 mm
Thickness: 30 mm
Weight
998 gr
ISBN-13
978-0-470-01645-9 (9780470016459)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions
Michel Denuit | Jan Dhaene | Marc Goovaerts
Actuarial Theory for Dependent Risks
Measures, Orders and Models
E-Book
05/2006
Wiley
€113.99
Available for download
Person
Michel Denuit - Michel Denuit is Professor of Statistics and Actuarial Science at the Universite catholique de Louvain, Belgium. His major fields of research are risk theory and stochastic inequalities. He (co-)authored numerous articles appeared in applied and theoretical journals and served as member of the editorial board for several journals (including Insurance: Mathematics and Economics). He is a section editor on Wiley's Encyclopedia of Actuarial Science. Jan Dhaene, Faculty of Economics and Applied Economics KULeuven, Belgium. Marc Goovaerts, Professor of Actuarial Science (Non-life Insurance) at University of Amsterdam (The Netherlands) and Catholique University of Leuven (Belgium) Rob Kaas, Professor of Actuarial Science (Actuarial Statistics), U. Amsterdam, The Netherlands.
Content
Foreword. Preface. PART I: THE CONCEPT OF RISKS. 1. Modelling Risks. 1.1 Introduction. 1.2 The Probabilitsic Description of Risks. 1.3 Indepenance for Events and Conditional Probabilities. 1.4 Random Variables and Vectors. 1.5 Distribution Functions. 1.6 Mathematical Expectation. 1.7 Transforms. 1.8 Conditional Ditsributions. 1.9 Comonotonicity. 1.10 Mutual Exclusivity. 1.11 Exercises. 2. Measuring Risk. 2.1 Introduction. 2.2 Risk Measures. 2.3 Value-at-Risk. 2.4 Tail Value-at-Risk. 2.5 Risk MEasures Based on Expected Utility Theory. 2.6 Risk Measures Based on Distorted Expectation Theory. 2.7 Exercises. 2.8 Appendix: Convexity and Concavity. 3. Comparing Risks. 3.1 Introduction. 3.2 Stochastic Order Relations. 3.3 Stochastic Dominance. 3.4 Convex and Stop-Loss Orders. 3.5 Exercises. PART II: DEPENDANCE BETWEEN RISKS. 4. Modelling Dependence. 4.1 Introduction. 4.2 Sklar's Representation Theorem. 4.3 Families of Bivariate Copulas. 4.4 Properties of Copulas. 4.5 The Archimedean Family of Cpoulas. 4.6 Simulation from Given Marginals and Copula. 4.7 Multivariate Copulas. 4.8 Loss-Alae Modelling with Archimedean Copulas: A Case Study. 4.9 Exercises. 5. Measuring Depenence. 5.1 Introduction. 5.2 Concordance Measures. 5.3 Dependence Structures. 5.4 Exercises. 6. Comparing Depe6.1 Introduction. 6.2 Comparing in the Bivariate Case Using the Correlation Order. 6.3 Comparing Dependence in the Multivariate Case Using the Supermodular Order. 6.4 Positive Orthant Depenedence Order. 6.5 Exercises. PART III: APPLICATIONS TO INSURANCE MATHEMATICS. 7. Depenedence in Credibility Models Based on Generalized Linear Models. 7.1 Introduction. 7.2 Poisson Static Credibility for Claim Frequencies. 7.3 More Results for the Static Credibility Model. 7.4 More Results for the Dynamic Credibility Models. 7.5 On the Depenedence Induced By Bonus-Malus Scales. 7.6 Credibility Theory and Time Series for Non-Normal Data. 7.7 Exercises. 8. Stochastic Bounds on Functions of Dependent Risks. 8.1 Introduction. 8.2 Comparing Risks with Fixed Depoenedence Structure. 8.3 Stop-Loss Bounds on Functions of Dependent Risks. 8.4 Stochastic Bounds on Functions of Dependent Risks. 8.5 Some Financial Applications. 8.6 Exercises. 9. Integral Orderings and Probability Metrics. 9.1 Introduction. 9.2 Integral Stochastic Oredrings. 9.3 Integral Probability Metrics. 9.4 Total-Variation Distance. 9.5 Kolmogorov Distance. 9.6 Wasserstein Distance. 9.7 Stop-Loss Distance. 9.8 Integrated Stop-Loss Distance. 9.9 Distance Between the Individual and Collective Models in Risk Theory. 9.10 Compound Poisson Approximation for a Portfolio of Dependent Risks. 9.11 Exercises. References. Index.