NUMERICAL METHODS FOR NONLINEAR ESTIMATING EQUATIONS
Written by Christopher Small, Jinfang Wang
Published by Oxford University Press
in 2003
ISBN: 0198506880
- Categorised in:
- SCIENCE AND TECHNOLOGY
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- STATISTICS
NUMERICAL METHODS FOR NONLINEAR ESTIMATING EQUATIONS
Written by Christopher Small, Jinfang Wang.
Stock no. 1319671
1st.
2003.
Hardback.
Very good condition.
Oxford Statistical Science Series 29. Glazed boards. 309 pages. ISBN: 0198506880. Spine and corners slightly bumped and rubbed. Small patch of surface paper damage to lower edge of rear cover. 'Damaged' ink stamp to title-page.
Front cover
Contents
- 1 Introduction
- 1.1 Background to the problem
- 1.2 Organisation of the book
- 2 Estimating functions
- 2.1 Basic definitions
- 2.2 Godambe efficiency: one-parameter models
- 2.3 The score function: one-parameter models
- 2.4 Godambe efficiency: multiparameter models
- 2.5 A geometric interpretation of Godambe efficiency
- 2.6 Types of estimating functions
- 2.7 Bibliographical notes
- 3 Numerical algorithms
- 3.1 Introduction
- 3.2 The bisection method
- 3.3 The method of false positions
- 3.4 Muller's method
- 3.5 Iterative substitution and the contractive maps
- 3.6 Newton-Raphson and its generalisations
- 3.7 The E-M algorithm
- 3.8 Aitken acceleration of slow algorithms
- 3.9 Bernoulli's method and the quotient-difference algorithm
- 3.10 Sturm's method
- 3.11 Roots and eigenvalues
- 3.12 The Nelder-Mead algorithm
- 3.13 Jacobi iteration for quasi-likelihood
- 3.14 Bibliographical notes
- 4 Working with roots
- 4.1 Introduction
- 4.2 Non-identifiable parameters in mixture models
- 4.3 Estimation of the correlation coefficient
- 4.4 The Cauchy distribution and stable laws
- 4.5 The relative likelihood principle
- 4.6 Estimating the normal mean in stratified sampling
- 4.7 Regression with measurement error
- 4.8 Weighted likelihood questions
- 4.9 Detecting multiple roots
- 4.10 Finding all the roots
- 4.11 Root functionals and measures
- 4.12 Smoothing the likelihood function
- 5 Methodologies for root selection
- 5.1 Introduction
- 5.2 The problem of solving an estimating equation
- 5.3 A class of irregular estimating functions
- 5.4 Iterating from consistent estimators
- 5.5 A modified Newton's method
- 5.6 An algorithm based on the information identity
- 5.7 A modified Muller's method
- 5.8 Asymptotic examinations
- 5.9 Testing the consistency of roots
- 5.10 Bootstrap quadratic likelihood ratio tests
- 5.11 An information theoretic approach
- 5.12 Model enlargement
- 5.13 Non-existence of roots
- 5.14 Confidence intervals using the estimating function bootstrap
- 5.15 Bibliographical notes
- 6 Artificial likelihoods and estimating functions
- 6.1 Introduction
- 6.2 Projected likelihoods
- 6.3 Generalised projected artificial likelihoods
- 6.4 Artificial likelihoods through integration
- 6.5 Quadratic artificial likelihoods
- 6.6 Quadratic inference functions
- 6.7 Bibliographical notes
- 7 Roots selection and dynamical systems
- 7.1 Dynamical estimating systems
- 7.2 Linear dynamical systems
- 7.3 Stability of roots to estimating quotations
- 7.4 A modified Newton's method
- 7.5 Complex estimating functions and Julia sets
- 8 Baesian estimating functions
- 8.1 Introduction
- 8.2 Bayes consistency
- 8.3 A Bayesian approach to estimating functions
- 8.4 Bayes linear and semi-parametric estimation
- 8.5 An application to credibility estimation in actuarial science
- 8.6 Bibliographical notes
- Bibliography
- Index