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Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics Book

Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics
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Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics, The ICFE was originally introduced to characterize a probability distribution by some invariant property under a stochastic change (damage) to the original random variable, and it is a generalization of a certain version of the Choquet-Deny convolution eq, Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability and Statistics
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  • Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability and Statistics
  • Written by author Radhakrishna Rao, D. N. Shanbhag
  • Published by Wiley-Blackwell, 1994/12/15
  • The ICFE was originally introduced to characterize a probability distribution by some invariant property under a stochastic change (damage) to the original random variable, and it is a generalization of a certain version of the Choquet-Deny convolution eq
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Preface
Ch. 1 Probability Tools and Preliminary Results 1
The inversion, uniqueness and continuity theorems for Fourier transforms 1
Some auxiliary results on probability measures and stochastic processes 12
Ch. 2 Simple Integral Equations: Versions of the Integrated Cauchy Functional Equation 27
Lau-Rao-Shanbhag theorems 28
The partial convolution equation and the Wiener-Hopf factorization 35
Ch. 3 A Version of Deny's Theorem and its Extensions: A Martingale Approach 49
Auxiliary lemmas and a symmetric measure 50
General theorems on the integral equations 54
A version of Deny's theorem and its extensions 62
Bernstein's and Bochner's theorems on absolutely monotonic functions 72
Ch. 4 Multiple Integral Equations and Stability Theorems 77
Multiple integral equations 78
Stability theorems 82
Potential theoretic results: some observations 97
Ch. 5 Mean Residual Life Function and Hazard Measure 103
The mean residual life function and its modified versions: univariate case 104
Hazard measure: univariate case 113
M.r.l. function and hazard measure: multivariate case 117
Ch. 6 Properties Based on Fourier or Mellin Transforms 133
The Dugue and Behboodian problems 133
Certain characterizations based on sphericity and ellipticity 141
Stable distributions and related characterizations 153
Ch. 7 Damage Models and Partial Independence 163
The Rao-Rubin and Shanbhag theorems and related results 164
An extended Spitzer integral representation theorem and modified Rao-Rubin conditions 175
Some characterizations based on partial independence 186
Ch. 8 Order Statistics, Record Values and Properties in Applied Probability 195
Characterizations based on order statistics and record values 195
Characterizations of point processes 208
Functional equations in applied stochastic processes and related results 220
Ch. 9 Characterizations Based on Regression and Related Statistical Properties 229
The Laha-Lukacs result and its variants 230
Extensions of the Kagan-Linnik-Rao theorem 246
Characterizations of mixtures based on exchangeability 258
Further statistical results 263
Bibliography 269
Index 287


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Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics, The ICFE was originally introduced to characterize a probability distribution by some invariant property under a stochastic change (damage) to the original random variable, and it is a generalization of a certain version of the Choquet-Deny convolution eq, Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability and Statistics

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Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics, The ICFE was originally introduced to characterize a probability distribution by some invariant property under a stochastic change (damage) to the original random variable, and it is a generalization of a certain version of the Choquet-Deny convolution eq, Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability and Statistics

Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics

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Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics, The ICFE was originally introduced to characterize a probability distribution by some invariant property under a stochastic change (damage) to the original random variable, and it is a generalization of a certain version of the Choquet-Deny convolution eq, Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability and Statistics

Choquet-Deny Type Functional Equations with Applications to Scholastic Models: Equations with Applications to Probability & Statistics

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