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9780521623940

Econometric Foundations Pack with CD-ROM

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  • ISBN13:

    9780521623940

  • ISBN10:

    0521623944

  • Format: Hardcover w/CD
  • Copyright: 2000-07-28
  • Publisher: Cambridge University Press

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Supplemental Materials

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Summary

This integrated textbook and CD-ROM develop step by step a modern approach to econometric problems. Aimed at upper-level undergraduates, graduate students, and professionals, they describe the principles and procedures for processing and recovering information from samples of economic data. In the real world such data are usually limited or incomplete, and the parameters sought are unobserved and not subject to direct observation or measurement. The text provides a complete working knowledge of a rich set of estimation and inference tools for mastery of such data, including traditional likelihood based and non-traditional non-likelihood based procedures, that can be used in conjunction with the computer to address economic problems. The CD-ROM contains reviews of probability theory and principles of classical estimation and inference in text-searchable electronic documents, a review ofhandling ill-posed inverse problems, an interactive Matrix Review Manual with Gauss software, an electronic Examples Manual, and solutions to the questions and problems in the text. An electronic tutorial is available separately.

Table of Contents

Preface xxv
I Information Processing and Recovery 1(32)
The Process of Econometric Information Recovery
3(10)
Introduction
4(1)
The Nature of Economic Data
4(1)
The Probability Approach to Economics
5(1)
The Process of Searching for Quantitative Economic Knowledge
6(3)
Econometric Model Components
6(2)
Econometric Analysis
8(1)
The Inverse Problem
9(1)
A Comment
10(1)
Notation
10(2)
Idea Checklist - Knowledge Guides
12(1)
Probability-Econometric Models
13(20)
Parametric, Semiparametric, and Nonparametric Models
14(3)
Parametric Models
14(1)
Nonparametric and Semiparametric Models
15(2)
The Classical Linear Regression Model
17(9)
Establishing a Linkage between Dependent and Explanatory Variables
17(3)
The Distribution of Y around the Systematic Component
20(1)
Inverse Problems: Estimation, Inference, and Interpretation
21(1)
Some Variants of the Linear Regression Model
22(4)
A Class of Probability Models
26(2)
Class of Inverse Problems and Solutions
28(1)
Concluding Comments
29(1)
Exercises
30(1)
Idea Checklist - Knowledge Guides
30(1)
Problems
30(1)
References
31(2)
II Regression Model - Estimation and Inference 33(98)
The Multivariate Normal Linear Regression Model: ML Estimation
35(26)
The Linear Regression Model
35(4)
The Linearity Assumption and the Inverse Problem
36(1)
Linearity and Beyond: Sampling Implication of Model Assumptions
37(2)
The Parametric Model
39(1)
Maximum Likelihood Estimation of β and σ2
39(4)
The Normal Linear Regression Model
40(1)
The Maximum Likelihood (ML) Criterion
40(1)
Maximum Likelihood Estimators for β and σ2
41(1)
Distribution, Moments, and Bias Properties of the ML Estimator
42(1)
Efficiency of the Bias-Adjusted ML Estimators of β and σ2
43(1)
Consistency, Asymptotic Normality, and Asymptotic Efficiency of ML Estimators of β and σ2
44(4)
Consistency
44(2)
Asymptotic Normality
46(1)
Asymptotic Efficiency
47(1)
Summary of the Finite Sample and Asymptotic Sampling Properties of the ML Estimator
48(1)
Estimating E and cov (β)
49(2)
An Estimator for E
50(1)
An Estimator for cov (β)
51(1)
Concluding Remarks
51(2)
Exercises
53(1)
Idea Checklist - Knowledge Guides
53(1)
Problems
53(1)
Computer Problems
54(1)
Appendix: Admissibility of ML Estimator - Introduction to Biased Estimation
54(4)
Is the ML Estimator Inadmissible?
55(2)
Risk Comparisons for Restricted and Unrestricted ML Estimator
57(1)
Appendix: Proofs
58(2)
References
60(1)
The Multivariate Normal Linear Regression Model: Inference
61(25)
Introduction
61(1)
Some Basic Sampling Distributions of Functions of β and S2
62(2)
Hypothesis Testing
64(12)
Test Statistics
65(1)
Generalized Likelihood Ratio (GLR) Test
65(1)
Properties of the GLR Test
66(1)
Testing Hypotheses Relating to Linear Restrictions on β
67(5)
Testing Linear Inequality Hypotheses
72(1)
Bonferroni Joint Tests of Inequality and Equality Hypotheses about β
73(1)
Testing Hypotheses about σ2
74(2)
Confidence Interval and Region Estimation
76(4)
Meaning of ``Confidence'' Interval or Region
76(1)
Rationale for the Use of Confidence Regions
77(1)
Confidence Intervals, Regions, and Bounds for β
77(2)
Confidence Bounds on σ2
79(1)
Pretest Estimators Based on Hypothesis Tests: Introduction
80(2)
The Pretest Estimator
80(1)
The Pretest Estimator Risk Function
81(1)
Concluding Remarks
82(2)
Exercises
84(1)
Idea Checklist - Knowledge Guides
84(1)
Problems
84(1)
Computer Exercises
85(1)
References
85(1)
The Linear Semiparametric Regression Model: Least-Squares Estimation
86(19)
The Semiparametric Linear Regression Model
86(2)
The Problem of Estimating β
88(3)
The Squared-Error Metric and the Least-Squares Principle
89(1)
The Least-Squares Estimator
90(1)
Statistical Properties of the LS Estimator
91(6)
Mean, Covariance, and Unbiasedness
92(1)
GAUSS Markov Theorem: β Is Blue, Not Necessarily MVUE
93(1)
β Is a Minimax Estimator of β under Quadratic Risk
94(1)
Consistency
95(1)
Asymptotic Normality
96(1)
Estimating E, σ2, and cov (β)
97(3)
An Estimator for ε
98(1)
An Estimator for σ2 and cov (β)
99(1)
Critique
100(1)
Exercises
101(2)
Idea Checklist - Knowledge Guides
101(1)
Problems
101(1)
Computer Exercises
102(1)
References
103(1)
Appendix: Proofs
103(2)
The Linear Semiparametric Regression Model: Inference
105(26)
Asymptotics: Why, What Kind, and How Useful?
107(2)
Why?
107(1)
What Kind?
108(1)
How Useful?
108(1)
Hypothesis Testing: Linear Equality Restrictions on β
109(11)
Wald (W) Tests
110(4)
Lagrange Multiplier (LM) Tests
114(4)
The W and LM Tests under Normality
118(2)
W and LM Tests: Interrelationship and Extensions
120(1)
Confidence Region Estimation
120(3)
Wald-Based Confidence Regions
121(1)
LM-Based Confidence Regions
122(1)
Testing Linear Inequality Hypotheses and Generating Confidence Bounds on β
123(3)
Linear Inequality Hypotheses
124(1)
Confidence Bounds for cβ
125(1)
Critique
126(1)
Comprehensive Computer Application
127(1)
Exercises
128(1)
Idea Checklist - Knowledge Guides
128(1)
Problems
128(1)
Computer Exercises
129(1)
References
129(2)
III Extremum Estimators and Nonlinear and Nonnoramal Regression Models 131(92)
Extremum Estimation and Inference
133(24)
Introduction
133(3)
ML and LS Estimators Expressed in Extremum Estimator Form
136(1)
Asymptotic Properties of Extremum Estimators
136(3)
Consistency of Extremum Estimators
136(2)
Asymptotic Normality of Extremum Estimators
138(1)
Asymptotic Properties of Maximum Likelihood Estimators in an Extremum Estimator Context
139(3)
Consistency of the ML-Extremum Estimator
140(1)
Asymptotic Normality of the ML-Extremum Estimator
141(1)
Asymptotic Properties of the Least-Squares Estimator in an Extremum Estimator Context
142(2)
Consistency of the LS-Extremum Estimator
142(1)
Asymptotic Normality of the LS-Extremum Estimator
143(1)
Inference Based on Extremum Estimation
144(9)
Lagrange Multiplier Tests and Confidence Regions
144(4)
Wald Tests and Confidence Regions
148(1)
Pseudo-Likelihood Ratio Tests and Confidence Regions
149(3)
Testing Linear Inequalities and Confidence Bounds
152(1)
Critique
153(1)
Exercises
154(1)
Idea Checklist - Knowledge Guides
154(1)
Problems
154(1)
Computer Problems
155(1)
References
155(2)
The Nonlinear Semiparametric Regression Model: Estimation and Inference
157(47)
The Nonlinear Regression Model
157(5)
Assumed Probability Model Characteristics: Discussion
159(2)
The Inverse Problem
161(1)
The Problem of Estimating β
162(5)
The Nonlinear Least-Squares Estimator
162(1)
Parameter Identification Relative to a Probability Model
163(2)
Parameter Identification Relative to the Least-Squares Criterion and Given Data
165(2)
Sampling Properties of the NLS Estimator
167(2)
The Problem of Estimating E, σ2, and cov(β)
169(2)
An Estimator for E
169(1)
An Estimator for σ2 and cov(β)
170(1)
Wald Statistics: Tests and Confidence Regions
171(5)
Hypotheses Relating to Differentiable Functions of β
171(1)
Wald (W) Tests
172(1)
Wald Statistic Distribution under Ha
173(1)
Test Application
174(1)
Confidence Region Estimation
175(1)
LM Statistics: Tests and Confidence Regions
176(4)
Lagrange Multiplier Distribution
176(2)
Classical Form of LM Test
178(1)
Score Form of LM Test
178(1)
LM Statistic Distribution under Ha
179(1)
Test Application
179(1)
Confidence Region Estimation
180(1)
Pseudo-Likelihood Ratio Statistic: Tests and Confidence Regions
180(3)
The Pseudo-Likelihood Ratio Statistic
180(1)
Distribution of PLR under H0
181(1)
Test and Confidence Region Application and Properties
182(1)
Nonlinear Inequality Hypotheses and Confidence Bounds
183(3)
Testing Nonlinear Inequalities: Z-Statistics
183(2)
Confidence Bounds
185(1)
Asymptotic Properties of the NLS-Extremum Estimator
186(6)
Consistency
186(1)
Asymptotic Normality
187(3)
Asymptotic Linearity
190(1)
Best Asymptotically Linear Consistent Estimator
191(1)
Concluding Comments
192(1)
Exercises
192(2)
Idea Checklist - Knowledge Guides
192(1)
Problems
193(1)
Computer Exercises
193(1)
References
194(1)
Appendixes
195(9)
Appendix A: Computation of NLS Estimates (With Ronald Schoenberg)
195(1)
Newton-Raphson Method
195(2)
Gauss-Newton Method
197(1)
Quasi-Newton Methods
198(1)
Computational Issues
199(3)
Appendix B: Proofs
202(2)
Nonlinear and Nonnormal Parametric Regression Models
204(19)
The Normal Nonlinear Regression Model
204(5)
Maximum Likelihood-Extremum Estimation
205(2)
Maximum Likelihood-Extremum Inference
207(2)
Nonnormality
209(6)
A Nonnormal Dependent Variable, Normal Noise Component Case: The Box-Cox Transformation
209(3)
A Nonnormal Noise Component Case
212(3)
General Considerations in Applying the ML-Extremum Criterion
215(5)
Point Estimation
216(1)
Testing and Confidence-Region Estimation
217(3)
A Final Remark
220(1)
Exercises
220(1)
Idea Checklist - Knowledge Guides
220(1)
Problems
220(1)
Computer Exercises
221(1)
References
221(2)
IV Avoiding the Parametric Likelihood 223(114)
Stochastic Regressors and Moment-Based Estimation
225(20)
Introduction
225(2)
Linear Model Assumptions, Estimation, and Inference Revisited
227(2)
LS and ML Estimator Properties
229(4)
LS Estimator Properties: Finite Samples
229(1)
LS Estimator Properties: Asymptotics
230(2)
ML Estimation of β and σ2 under Conditional Normality
232(1)
Hypothesis Testing and Confidence-Region Estimation
233(2)
Semiparametric Case
233(1)
Parametric Case
233(2)
Summary: Statistical Implications of Stochastic X
235(1)
Method of Moments Concept
235(6)
Asymptotic Properties
236(2)
A Linear Model Formulation
238(1)
Extensions to Nonlinear Models
239(2)
Concluding Comments
241(1)
Exercises
242(1)
Idea Checklist - Knowledge Guides
242(1)
Problems
242(1)
Computer Exercises
242(1)
References
243(1)
Appendix: Proofs
244(1)
Quasi-Maximum Likelihood and Estimating Equations
245(36)
Quasi-Maximum Likelihood Estimation and Inference
247(1)
QML-E Estimation and Inference
248(8)
Consistency and Asymptotic Normality
248(1)
True PDF Approximation Property and Asymptotic Normality of Inconsistent QML-E Estimators
249(2)
Consistent Estimation of the Asymptotic Covariance Matrix
251(1)
Necessary and Sufficient Conditions for Consistency and Asymptotic Normality
251(3)
QML Inference
254(1)
QML Generalizations
255(1)
QML Summary Comments
256(1)
Estimating Equations: LS, ML, QML-E, and Extremum Estimators
256(14)
Linear and Nonlinear Estimating Functions
259(2)
Optimal Unbiased Estimating Functions: Finite Sample Optimality of ML
261(4)
Consistency of the EE Estimator
265(2)
Asymptotic Normality and Efficiency of EE Estimators
267(1)
Inference in the Context of EE Estimation
268(2)
Unifying-Linking OptEF and QML: QML-EE Estimation and Inference
270(5)
The Best Linear-Unbiased QML-EE
272(2)
General QML-EE Estimation and Inference
274(1)
Final Remarks
275(1)
Exercises
275(2)
Idea Checklist - Knowledge Guides
275(1)
Problems
276(1)
Computer Problems
277(1)
References
277(2)
Appendix: Proofs
279(2)
Empirical Likelihood Estimation and Inference
281(32)
Empirical Likelihood: iid Case
282(10)
The EL Concept
283(1)
Nonparametric Maximum Likelihood Estimate of a Population Distribution
284(2)
Empirical Likelihood Function for θ
286(6)
Maximum Empirical Likelihood Estimation: iid Case
292(6)
Maximum Empirical Likelihood Estimator
292(1)
MEL Efficiency Property
293(1)
MEL Estimation of a Population Mean
294(3)
MEL Estimation Based on Two Moments
297(1)
Hypothesis Tests and Confidence Regions: iid Case
298(6)
Empirical Likelihood Ratio Tests and Confidence Regions for c(θ)
299(1)
Wald Tests and Confidence Regions for c(θ)
300(1)
Lagrange Multiplier Tests and Confidence Regions for c(θ)
300(1)
Z-Tests of Inequality Hypotheses for the Value of c(θ)
301(1)
Testing the Validity of Moment Equations
301(1)
MEL Testing and Confidence Intervals for Population Mean
302(1)
Illustrative MEL Confidence Interval Example
303(1)
MEL in the Linear Regression Model with Stochastic X
304(3)
MEL Regression Estimation for Stochastic X
304(2)
EL-Based Testing and Confidence Regions When X Is Stochastic
306(1)
Extensions to the Nonlinear Regression Model for Stochastic X
307(1)
MEL in the Linear Regression Model with Nonstochastic X: Extensions to the Non-iid Case
307(2)
Concluding Comments
309(1)
Exercises
310(2)
Idea Checklist - Knowledge Guides
310(1)
Problems
311(1)
Computer Exercises
311(1)
References
312(1)
Information Theoretic-Entropy Approaches to Estimation and Inference
313(24)
Solutions to Systems of Estimating Equations and Kullback-Leibler Information
313(8)
Kullback-Leibler Information Criterion (KLIC)
316(1)
Relationship Between the MEL Objective and KL Information
317(2)
Relationship Between the Maximum Entropy (ME) Objective and KL Information
319(2)
The General MEEL Alternative Empirical Likelihood Formulation
321(5)
The MEEL Estimator and Likelihood
321(1)
MEEL Asymptotics
322(1)
MEEL Inference
323(3)
Contrasting the Use of Estimating Functions in EE and MEEL Contexts
326(1)
A Cross-Entropy Formalism and Solution
326(2)
α-Entropy: Unifying the MEL, MEEL, and CEEL Estimation Objectives
328(1)
Application of the Maximum Entropy Principle to the Regression Model
329(3)
Stochastic X in the Linear Model
329(2)
Fixed x in the Linear Model
331(1)
Extensions to Nonlinear Regression Models
331(1)
Inference in Regression Models
331(1)
Concluding Remarks - Which Criterion?
332(2)
Exercises
334(1)
Idea Checklist - Knowledge Guides
334(1)
Problems
334(1)
Computer Problems
334(1)
References
335(1)
Supplemental References
335(2)
V Generalized Regression Models 337(66)
Regression Models with a Known General Noise Covariance Matrix
339(31)
Applying LS-ML to the Linear Model and Untransformed Data: Ignoring that &PSgr; I
340(4)
Point Estimation
341(1)
Testing and Confidence-Region Estimation
342(2)
GLS-ML-Extremum Analysis of the Linear Model: Incorporating a Known &PSgr;
344(6)
ML-Extremum Estimators for β and σ2
344(1)
LS-Extremum Estimators for β and σ2: Transformed Linear Model
345(2)
Asymptotic Properties
347(2)
Hypothesis Testing and Confidence Regions
349(1)
GLS-ML-Extremum Analysis of the Nonlinear Model: Incorporating a Known &PSgr;
350(3)
Estimator Properties
350(1)
Hypothesis Testing and Confidence Regions
351(1)
Applying NLS to Untransformed Data
352(1)
Parametric Specifications of Noise Covariance Matrices
353(3)
Estimation and Inference with AR(1) Noise
354(1)
Heteroscedasticity - Structural Specification Known, Parameters Unknown
355(1)
General Considerations
356(1)
Sets of Regression Equations
356(5)
Sets of Linear Equations
357(2)
Sets of Nonlinear Equations
359(2)
The Estimating Equations - Quasi-Maximum Likelihood View: A Unified Approach
361(6)
EE Estimation of β and σ2 in the Linear Model When &PSgr; Is Known
361(2)
EE Estimation of β and σ2 in the Nonlinear Model When &PSgr; Is Known
363(1)
EE Estimation of β and σ2 in the Linear or Nonlinear Normal Parametric Regression Model When &PSgr; Is Known
364(1)
QML-EE Estimation of β and σ2 in the Linear or Nonlinear Regression Model
365(1)
EE Estimation of β and σ2 in Systems of Regression Equations
366(1)
Some Comments
367(1)
Exercises
368(1)
Idea Checklist - Knowledge Guides
368(1)
Problems
368(1)
Computer Exercises
369(1)
References
369(1)
Regression Models with an Unknown General Noise Covariance Matrix
370(33)
Linear Regression Models with Unknown Noise Covariance
371(7)
Single-Equation Semiparametric Linear Regression Model
372(5)
Single-Equation Parametric Linear Regression Model - The ML Approach
377(1)
System of Linear Regression Equations
378(5)
Estimation: Semiparametric Case
379(1)
Testing and Confidence Regions: Semiparametric Case
380(1)
ML Approach: Parametric Case
381(2)
Nonlinear Regression Models with Unknown Noise Covariance
383(4)
Single-Equation Semiparametric Nonlinear Regression Model
383(1)
Estimation
383(1)
Testing and Confidence Regions
384(1)
Single-Equation Parametric Nonlinear Regression Model - ML Approach
385(1)
Sets of Nonlinear Regression Equations
386(1)
Robust Solution Methods: OLS and Robust Covariance Matrix Estimation
387(6)
Heteroscedasticity
389(2)
Heteroscedasticity and Autocorrelation
391(2)
The Estimating Equations - Quasi-Maximum Likelihood View: A Unified Approach
393(5)
A Unified EE Characterization of Inverse Problem Solutions
393(2)
QML-EE Estimation
395(1)
EE Extensions
396(1)
MEL and MEEL Applications of EE
397(1)
Some Comments
398(2)
Exercises
400(1)
idea Checklist - Knowledge Guides
400(1)
Problems
400(1)
Computer Exercises
400(1)
References
401(2)
VI Simultaneous Equation Probability Models and General Moment-Based Estimation and Inference 403(92)
Generalized Moment-Based Estimation and Inference
405(41)
Parameter Estimation in Just-determined and Overdetermined Models with iid Observations: Back to the Future
406(6)
OptEF Approach
409(1)
Empirical Likelihood Approaches
410(1)
Summary and Foreword
411(1)
GMM Solutions for Unbiased Estimating Equations in the Overdetermined Case
412(11)
GMM Concept
412(1)
GMM Linear Model Estimation
413(7)
GMM Estimators - General Properties
420(3)
IV Solutions in the Just-determined Case When E[X'E] ≠ 0
423(6)
Traditional Instrumental Variable Estimator in the Linear Model
424(2)
GLS as an IV Estimator
426(1)
Extensions: Nonlinear IV Formulations and Non-iid Sampling
427(1)
Hypothesis Testing and Confidence Regions
428(1)
Summary: IV Approach to Estimation and Inference
429(1)
Solutions in the Overdetermined Case When E[X'ε] ≠ 0
429(12)
Unbiased Estimating Equations Basis for Inverse Problem Solutions When E[X'ε] ≠ 0
430(1)
GMM Approach
431(1)
MEL and MEEL Approaches
432(4)
OptEF-Quasi-ML Approach: Asymptotic Unification of Inverse Solution Methods
436(1)
Asymptotic Sampling Properties and Inference
437(1)
Testing Moment Equation Validity
438(1)
Relationship Between Estimator Efficiency and the Number and Type of Estimating Equations
439(2)
Concluding Comments
441(2)
Exercises
443(1)
Idea Checklist - Knowledge Guides
443(1)
Problems
443(1)
Computer Exercises
444(1)
References
444(2)
Simultaneous Equations Econometric Models: Estimation and Inference
446(49)
Linear Simultaneous Equations Models
447(11)
An Equivalent Vectorized System of Equations
450(1)
The Reduced-Form Regression Model
451(2)
Estimating the Reduced-Form Coefficients
453(2)
The Identification Problem
455(3)
Least-Squares and GMM Estimation: The Semiparametric Case
458(7)
Estimators of Parameters for a Just-Identified Structural Equation
459(1)
GMM Estimator of Parameters for an Overidentified Structural Equation
460(2)
Estimation of a Complete System of Equations
462(3)
Maximum Likelihood Estimation in the Linear Model: The Parametric Case
465(3)
Full-Information Maximum Likelihood (FIML)
465(2)
Limited Information Maximum Likelihood (LIML)
467(1)
Nonlinear Simultaneous Equations
468(7)
Single-Equation Estimation: Semiparametric Case
469(3)
Complete System Estimation: Semiparametric Case
472(1)
Nonlinear Maximum Likelihood Estimation: Parametric Case
473(1)
Identification in Nonlinear Systems of Equations
474(1)
Information Theoretic Procedures
475(11)
Minimum KLIC Approach: MEEL and MEL
476(3)
MEEL Estimation and Inference
479(5)
MEL Estimation
484(1)
The KLIC-MEEL-MEL Procedures: Critique
485(1)
OptEF Estimation and Inference
486(2)
The OptEF Estimator in Simultaneous Equations Models
486(1)
OptEF Asymptotic Unification of Inverse Problem Solutions
487(1)
Concluding Comments
488(1)
Exercises
489(2)
Idea Checklist - Knowledge Guides
489(1)
Problems
489(1)
Computer Problems
490(1)
References
491(1)
Appendix: Historical Perspective
492(3)
VII Model Discovery 495(66)
Model Discovery: The Problem of Variable Selection and Conditioning
497(31)
Introduction
497(3)
Experiments in Nonexperimental Model Building
498(1)
The Chapter Format
499(1)
Variable Selection Problem in a Loss or MSE Context
500(7)
Bias-Variance Trade-Off in Incorrect Variable Selection
501(2)
Statistical Implications under an MSE Matrix Measure
503(2)
Statistical Implications under a Quadratic Risk Function Measure
505(1)
Extensions to Nonlinear Models, General Covariance Structures, and Systems of Equations
506(1)
Fisherian Testing and Model Choice: Critique
507(2)
Estimated Risk Criteria and Model Choice: Mallows Cp Criterion
509(2)
An Information Theoretic Model Selection Criterion: Akaike Information
511(3)
Basic Rationale for the AIC and Variants
511(2)
A Comment
513(1)
Shrinkage as a Basis for Dealing with Variable Uncertainty
514(3)
Stein-Like Shrinkage Estimators
514(1)
Multiple Shrinkage Estimator
515(2)
The Problem of an Ill-Conditioned Explanatory Variable Matrix
517(4)
Penalized Estimation
518(2)
Finite Sample Performance
520(1)
Final Comments and Critique
521(3)
Exercises
524(1)
Idea Checklist - Knowledge Guides
524(1)
Problems
524(1)
Computer Problems
524(1)
References
525(3)
Model Discovery: The Problem of Noise Covariance Matrix Specification
528(33)
Introduction
528(2)
Specific Parametric Specifications of the Noise Covariance Matrix: Estimation and Inference
530(5)
AR(1) Noise
530(3)
Heteroscedastic Noise: σi2 = (zi.α)2
533(2)
Tests for Heteroscedasticity: Rationale and Application
535(8)
Types of Heteroscedasticity Tests
536(1)
Motivation for Tests Based on ε2
536(4)
Motivation for the Test Based on ln(E2t)
540(1)
Motivation for Test Based on εt
541(1)
More Tests
542(1)
Tests for Autocorrelation: Rationale and Application
543(8)
Autocorrelation Processes
543(3)
Estimation
546(1)
Autocorrelation Tests
547(4)
Pretest Estimators Defined by Heteroscedasticity or Autocorrelation Testing
551(5)
Two-Equation Linear System with Potential Heteroscedasticity
552(1)
A Heteroscedasticity Pretest Estimator
553(2)
An Autocorrelation Pretest Estimator
555(1)
Concluding Comments
556(1)
Exercises
557(1)
Idea Checklist - Knowledge Guides
557(1)
Problems
557(1)
Computer Problems
557(1)
References
558(3)
VIII Special Econometric Topics 561(82)
Qualitative-Censored Response Models
563(36)
Binary-Discrete Choice Response Models
565(5)
A Linear probability Model
566(1)
A Reformulated Binary Response Model
567(3)
Maximum Likelihood Estimation and Inference for the Discrete Choice Model
570(5)
Logit Model
571(2)
Probit Model
573(2)
Probit or Logit?
575(1)
Multinomial Discrete Choice
575(10)
Multinomial Logit
576(5)
Information Theoretic Estimation of the Multinomial Decision Model
581(3)
Ordered Multinomial Choice
584(1)
Censored Response Data
585(7)
Censoring Versus Truncation
585(2)
Tobit Model
587(4)
Extensions of the Tobit Formulation
591(1)
Concluding Remarks
592(2)
Exercises
594(1)
Idea Checklist - Knowledge Guides
594(1)
Problems
594(1)
Computer Problems
595(1)
References
595(2)
Appendix
597(2)
Introduction to Nonparametric Density and Regression Analysis
599(44)
Density Estimation via Kernels
601(10)
Kernels
602(2)
IMSE, AIMSE, and Kernel Choice
604(2)
Bandwidth Choice
606(2)
Other Properties and Issues
608(1)
Multivariate Extensions
609(2)
Kernel Regression Estimators
611(11)
Nonparametric Regression Model Specification
612(1)
Nadarya-Watson Kernel Regression: Alias Zero-Order Local polynomial Regression
613(9)
Local Polynomial Regression
622(2)
Prequel of Fundamental Concepts: Local Weighted Averages, Local Linear Regressions, and Histograms
624(12)
Nonparametric Regression under Repeated Sampling: Simple Sample Means
625(1)
Local Sample Means: Using Data Neighborhoods
626(2)
Local Weighted Averages within Data Neighborhoods: Local Least-Squares Regressions
628(1)
Local Polynomial Regressions
629(1)
Histograms: Precursor to Kernel Density Estimation
630(6)
Concluding Comments
636(1)
Exercises
637(1)
Idea Checklist - Knowledge Guides
637(1)
Problems
637(1)
Computer Problems
638(1)
References
638(2)
Appendix: Derivation of Equation (21.4.31)
640(3)
IX Bayesian Estimation and Inference 643(68)
Bayesian Estimation: General Principles with a Regression Focus
645(30)
Introduction
645(4)
Bayes Theorem
646(1)
A Format for Bayesian Reasoning
647(2)
Bayesian Probability Models and Posterior Distributions
649(3)
Prior Distributions
650(1)
Posterior Probability Distributions
651(1)
The Bayesian Linear-Regression-Based Probability Model
652(6)
Bayesian Regression Analysis under Normality and Uninformative Priors
653(1)
Uninformative Priors and Proper Marginal Posteriors
654(1)
Posterior Distribution under an Uninformative Prior
655(1)
Marginal Posteriors
656(2)
Bayesian Regression Analysis under Normality and Conjugate Informative Priors
658(3)
The Joint Posterior Distribution under the Conjugate Prior
660(1)
The Marginal Posteriors
660(1)
Bayesian Point Estimates
661(4)
Minimum Expected Risk
663(1)
Admissibility
663(1)
Consistency and Asymptotic Normality
663(1)
Comments on Bayes Estimator Properties
664(1)
On the Use of Conjugate Priors and Coincidence of Classical and Bayesian Estimates
665(1)
Concluding Remarks
666(1)
Exercises
667(2)
Idea Checklist - Knowledge Guides
667(1)
Problems
667(1)
Computer Problems
668(1)
References
669(1)
Appendix: Bayesian Asymptotics
669(6)
Bayesian Asymptotics: Specific Cases
670(2)
Bayesian Asymptotics: General Considerations
672(2)
Appendix References
674(1)
Alternative Bayes Formulations for the Regression Model
675(23)
g-Priors
676(3)
A Family of g-priors and Associated Posteriors
676(2)
Rationalizing and Specifying g-priors
678(1)
An Empirical Bayes Estimator
679(3)
General Bayesian Regression Analysis with Nonconjugate Informative-Uninformative Prior
682(6)
Normal Noise Component
682(5)
Nonnormal Noise Component
687(1)
Summary Comments
688(1)
Bayesian Method of Moments
688(5)
Continuous Entropy Formulation
691(1)
A Posterior Density Function
692(1)
Concluding Remarks
693(1)
Exercises
694(2)
Idea Checklist - Knowledge Guides
694(1)
Problems
694(1)
Computer Problems
695(1)
References
696(2)
Bayesian Inference
698(13)
Credible Regions
699(3)
General Principles
699(1)
Highest Posterior Density Credible Regions
700(1)
Credible Regions in the Regression Model
701(1)
Hypothesis Evaluation and Decision
702(2)
General Principles
703(1)
General Hypothesis Testing and Credible Sets in the Regression Model
704(4)
Evaluating Composite Hypotheses about β and Bayes Factors
704(2)
Evaluating Simple Hypotheses about β
706(2)
A Comment
708(1)
Exercises
708(1)
Idea Checklist - Knowledge Guides
708(1)
Problems
708(1)
Computer Problems
709(1)
References
709(2)
X Epilogue 711(2)
Appendix: Introduction to Computer Simulation and Resampling Methods 713(26)
A.1 Pseudorandom Number Generation
713(6)
A.1.1 Generating U(0,1) Pseudorandom Numbers
714(1)
A.1.2 Generating Continuous Nonuniform Pseudorandom Numbers
715(2)
A.1.3 Generating Discrete Pseudorandom Numbers
717(1)
A.1.4 Evaluating the Performance of Pseudorandom Number Generators
718(1)
A.2 Monte Carlo Simulation
719(5)
A.2.1 Background and Conceptual Motivation
720(1)
A.2.2 Key Assumptions
721(1)
A.2.3 Basic Properties of Monte Carlo Simulation Estimators
722(2)
A.3 Bootstrap Resampling
724(6)
A.3.1 Basic Properties of the Bootstrap
725(3)
A.3.2 Bootstrap Simulation Procedures for Regression Models
728(2)
A.4 Numerical Tools for Evaluating Posterior Distributions
730(4)
A.4.1 The Gibbs Sampling Algorithm
731(2)
A.4.2 The Metropolis-Hastings Algorithm
733(1)
A.5 Concluding Remarks
734(1)
A.6 Exercises
735(1)
A.6.1 Idea Checklist
735(1)
A.6.2 Problems
735(1)
A.6.3 Computer Problems
735(1)
A.7 References
736(3)
Author Index 739(4)
Subject Index 743

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