Principles of Econometrics, 5ed, An Indian Adaptation

R. Carter Hill, William E. Griffiths, Guay C. Lim, Chandan Sharma
  • ISBN: 9789363865778
  • 668 pages

Description

Principles of Econometrics, Fifth Edition, is a comprehensive book tailored for undergraduate and postgraduate students in the fields of economics, commerce, business, statistics, and management. This edition equips students with a practical understanding of basic econometrics, enabling them to apply modeling, estimation, inference, and forecasting techniques to real-world economic issues. Additionally, readers will develop the ability to critically evaluate the findings of others' economic research and models, laying a solid foundation for advanced study in the field.

 

This Indian adaptation introduces new sections focusing on the Indian economic context, such as monetary policy, inequality of opportunity, and public health expenditure. Significant additions also include analyses of per-capita expenditure, private returns to education, and the impact of financial constraints on innovation in developing economies.

 

About the Author

R. Carter Hill is an Emeritus Professor of Econometrics at Louisiana State University (LSU). He has been a part of LSU since 1985, after teaching at the University of Georgia. Hill holds a Ph.D. in Economics from the University of Missouri-Columbia and has published over 70 scholarly papers.

 

 

William E. Griffiths is an Emeritus Professor of Econometrics at the University of Melbourne. He joined the university in 2001 and retired in 2018, having served in various leadership roles, including Head of the Department of Economics and Director of the Centre for Micro Econometrics. Griffiths has made significant contributions to econometric methodology, with research interests spanning Bayesian inference, demand modeling, and income distribution analysis.

 

Guay C. Lim is a Professorial Fellow at the Melbourne Institute of Applied Economic and Social Research at the University of Melbourne. She holds a Ph.D. from the Australian National University and has extensive experience in macroeconomic modeling, forecasting, and policy analysis.

 

Chandan Sharma is a Professor in Economics and Business Environment area with Indian Institute of Management Lucknow. He teaches Macroeconomics, International Economics and Finance, Public Economics and Econometrics. His research focuses on Industrial Economics, Infrastructure, Development Economics, Political Economy and Shadow Economy. He has worked extensively on firm-level productivity, ICT, R&D, Infrastructure and growth nexus, Optimum currency Area (OCA) and international reserves.

Table of Contents

1 An Introduction to Econometrics

1.1 Why Study Econometrics?

1.2 What Is Econometrics About?

1.2.1 Some Examples

1.3 The Econometric Model

1.3.1 Causality and Prediction

1.4 How Are Data Generated?

1.4.1 Experimental Data

1.4.2 Quasi-Experimental Data

1.4.3 Nonexperimental Data

1.5 Economic Data Types

1.5.1 Time-Series Data

1.5.2 Cross-Section Data

1.5.3 Panel or Longitudinal Data

1.6 The Research Process

1.7 Writing an Empirical Research Paper

1.7.1 Writing a Research Proposal

1.7.2 A Format for Writing a Research Report

1.8 Sources of Economic Data

1.8.1 Links to Economic Data on the Internet

1.8.2 Interpreting Economic Data

1.8.3 Obtaining the Data

ANNEXURE 1 Important Databases in India

 

2 The Simple Linear Regression Model

2.1 An Economic Model

2.2 An Econometric Model

2.2.1 Data Generating Process

2.2.2 The Random Error and Strict Exogeneity

2.2.3 The Regression Function

2.2.4 Random Error Variation

2.2.5 Variation in x

2.2.6 Error Normality

2.2.7 Generalizing the Exogeneity Assumption

2.2.8 Error Correlation

2.2.9 Summarizing the Assumptions

2.3 Estimating the Regression Parameters

2.3.1 The Least Squares Principle

2.3.2 Other Economic Models

2.4 Assessing the Least Squares Estimators

2.4.1 The Estimator b2

2.4.2 The Expected Values of b1 and b2

2.4.3 Sampling Variation

2.4.4 The Variances and Covariance of b1 and b2

2.5 The Gauss–Markov Theorem

2.6 The Probability Distributions of the Least Squares Estimators

2.7 Estimating the Variance of the Error Term

2.7.1 Estimating the Variances and Covariance of the Least Squares Estimators

2.7.2 Interpreting the Standard Errors

2.8 Estimating Nonlinear Relationships

2.8.1 Quadratic Functions

2.8.2 Using a Quadratic Model

2.8.3 A Log-Linear Function

2.8.4 Using a Log-Linear Model

2.8.5 Choosing a Functional Form

2.9 Regression with Indicator Variables

2.10 The Independent Variable

2.10.1 Random and Independent x

2.10.2 Random and Strictly Exogenous x

2.10.3 Random Sampling

Keywords

Problems

 

3 Interval Estimation and Hypothesis Testing

3.1 Interval Estimation

3.1.1 The t-Distribution

3.1.2 Obtaining Interval Estimates

3.1.3 The Sampling Context

3.2 Hypothesis Tests

3.2.1 The Null Hypothesis

3.2.2 The Alternative Hypothesis

3.2.3 The Test Statistic

3.2.4 The Rejection Region

3.2.5 A Conclusion

3.3 Rejection Regions for Specific Alternatives

3.3.1 One-Tailed Tests with Alternative “Greater Than” (>)

3.3.2 One-Tailed Tests with Alternative “Less Than” (<)

3.3.3 Two-Tailed Tests with Alternative “Not Equal To” ()

3.4 Examples of Hypothesis Tests

3.5 The p-Value

3.6 Linear Combinations of Parameters

3.6.1 Testing a Linear Combination of Parameters

Keywords

Problems

 

4 Prediction, Goodness-of-Fit, and Modeling Issues

4.1 Least Squares Prediction

4.2 Measuring Goodness-of-Fit

4.2.1 Correlation Analysis

4.2.2 Correlation Analysis and R2

4.3 Modeling Issues

4.3.1 The Effects of Scaling the Data

4.3.2 Choosing a Functional Form

4.3.3 A Linear-Log Food Expenditure Model

4.3.4 Using Diagnostic Residual Plots

4.3.5 Are the Regression Errors Normally Distributed?

4.3.6 Identifying Influential Observations

4.4 Polynomial Models

4.4.1 Quadratic and Cubic Equations

4.5 Log-Linear Models

4.5.1 Prediction in the Log-Linear Model

4.5.2 A Generalized R2 Measure

4.5.3 Prediction Intervals in the Log-Linear Model

4.6 Log-Log Models

Keywords

Problems

 

5 The Multiple Regression Model

5.1 Introduction

5.1.1 The Economic Model

5.1.2 The Econometric Model

5.1.3 The General Model

5.1.4 Assumptions of the Multiple Regression Model

5.2 Estimating the Parameters of the Multiple Regression Model

5.2.1 Least Squares Estimation Procedure

5.2.2 Estimating the Error Variance σ2

5.2.3 Measuring Goodness-of-Fit

5.2.4 Frisch–Waugh–Lovell (FWL) Theorem

5.3 Finite Sample Properties of the Least Squares Estimator

5.3.1 The Variances and Covariances of the Least Squares Estimators

5.3.2 The Distribution of the Least Squares Estimators

5.4 Interval Estimation

5.4.1 Interval Estimation for a Single Coefficient

5.4.2 Interval Estimation for a Linear Combination of Coefficients

5.5 Hypothesis Testing

5.5.1 Testing the Significance of a Single Coefficient

5.5.2 One-Tailed Hypothesis Testing for a Single Coefficient

5.5.3 Hypothesis Testing for a Linear Combination of Coefficients

5.6 Nonlinear Relationships

5.7 Large Sample Properties of the Least Squares Estimator

5.7.1 Consistency

5.7.2 Asymptotic Normality

5.7.3 Relaxing Assumptions

5.7.4 Inference for a Nonlinear Function of Coefficients

Keywords

Problems

 

6 Further Inference in the Multiple Regression Model

6.1 Testing Joint Hypotheses: The F-Test

6.1.1 Testing the Significance of the Model

6.1.2 The Relationship Between t- and F-Tests

6.1.3 More General F-Tests

6.1.4 Using Computer Software

6.1.5 Large Sample Tests

6.2 The Use of Nonsample Information

6.3 Model Specification

6.3.1 Causality versus Prediction

6.3.2 Omitted Variables

6.3.3 Irrelevant Variables

6.3.4 Control Variables

6.3.5 Choosing a Model

6.3.6 RESET

6.4 Prediction

6.4.1 Predictive Model Selection Criteria

6.5 Poor Data, Collinearity, and Insignificance

6.5.1 The Consequences of Collinearity

6.5.2 Identifying and Mitigating Collinearity

6.5.3 Investigating Influential Observations

6.6 Nonlinear Least Squares

Keywords

Problems

 

7 Using Indicator Variables

7.1 Indicator Variables

7.1.1 Intercept Indicator Variables

7.1.2 Slope-Indicator Variables

7.2 Applying Indicator Variables

7.2.1 Interactions Between Qualitative Factors

7.2.2 Qualitative Factors with Several Categories

7.2.3 Testing the Equivalence of Two Regressions

7.2.4 Controlling for Time

7.3 Log-Linear Models

7.3.1 A Rough Calculation

7.3.2 An Exact Calculation

7.4 The Linear Probability Model

7.5 Treatment Effects

7.5.1 The Difference Estimator

7.5.2 Analysis of the Difference Estimator

7.5.3 The Differences-in-Differences Estimator

7.6 Treatment Effects and Causal Modeling

7.6.1 The Nature of Causal Effects

7.6.2 Treatment Effect Models

7.6.3 Decomposing the Treatment Effect

7.6.4 Introducing Control Variables

7.6.5 The Overlap Assumption

7.6.6 Regression Discontinuity Designs

Keywords

Problems

 

8 Heteroskedasticity

8.1 The Nature of Heteroskedasticity

8.2 Heteroskedasticity in the Multiple Regression Model

8.2.1 The Heteroskedastic Regression Model

8.2.2 Heteroskedasticity Consequences for the OLS Estimator

8.3 Heteroskedasticity Robust Variance Estimator

8.4 Generalized Least Squares: Known Form of Variance

8.4.1 Transforming the Model: Proportional Heteroskedasticity

8.4.2 Weighted Least Squares: Proportional Heteroskedasticity

8.5 Generalized Least Squares: Unknown Form of Variance

8.5.1 Estimating the Multiplicative Model

8.6 Detecting Heteroskedasticity

8.6.1 Residual Plots

8.6.2 The Goldfeld–Quandt Test

8.6.3 A General Test for Conditional Heteroskedasticity

8.6.4 The White Test

8.6.5 Model Specification and Heteroskedasticity

8.7 Heteroskedasticity in the Linear Probability Model

Keywords

Problems

 

9 Regression with Time-Series Data: Stationary Variables

9.1 Introduction

9.1.1 Modeling Dynamic Relationships

9.1.2 Autocorrelations

9.2 Stationarity and Weak Dependence

9.3 Forecasting

9.3.1 Forecast Intervals and Standard Errors

9.3.2 Assumptions for Forecasting

9.3.3 Selecting Lag Lengths

9.3.4 Testing for Granger Causality

9.4 Testing for Serially Correlated Errors

9.4.1 Checking the Correlogram of the Least Squares Residuals

9.4.2 Lagrange Multiplier Test

9.4.3 Durbin–Watson Test

9.5 Time-Series Regressions for Policy Analysis

9.5.1 Finite Distributed Lags

9.5.2 HAC Standard Errors

9.5.3 Estimation with AR(1) Errors

9.5.4 Infinite Distributed Lags

Keywords

Problems

 

10 Endogenous Regressors and Moment-Based Estimation

10.1 Least Squares Estimation with Endogenous Regressors

10.1.1 Large Sample Properties of the OLS Estimator

10.1.2 Why Least Squares Estimation Fails

10.1.3 Proving the Inconsistency of OLS

10.2 Cases in Which x and e Are Contemporaneously Correlated

10.2.1 Measurement Error

10.2.2 Simultaneous Equations Bias

10.2.3 Lagged-Dependent Variable Models with Serial Correlation

10.2.4 Omitted Variables

10.3 Estimators Based on the Method of Moments

10.3.1 Method of Moments Estimation of a Population Mean and Variance

10.3.2 Method of Moments Estimation in the Simple Regression Model

10.3.3 Instrumental Variables Estimation in the Simple Regression Model

10.3.4 The Importance of Using Strong Instruments

10.3.5 Proving the Consistency of the IV Estimator

10.3.6 IV Estimation Using Two-Stage Least Squares (2SLS)

10.3.7 Using Surplus Moment Conditions

10.3.8 Instrumental Variables Estimation in the Multiple Regression Model

10.3.9 Assessing Instrument Strength Using the First-Stage Model

10.3.10 Instrumental Variables Estimation in a General Model

10.3.11 Additional Issues When Using IV Estimation

10.4 Specification Tests

10.4.1 The Hausman Test for Endogeneity

10.4.2 The Logic of the Hausman Test

10.4.3 Testing Instrument Validity

Keywords

Problems

 

11 Simultaneous Equations Models

11.1 A Supply and Demand Model

11.2 The Reduced-Form Equations

11.3 The Failure of Least Squares Estimation

11.3.1 Proving the Failure of OLS

11.4 The Identification Problem

11.5 Two-Stage Least Squares Estimation

11.5.1 The General Two-Stage Least Squares Estimation Procedure

11.5.2 The Properties of the Two-Stage Least Squares Estimator

Keywords

Problems

 

12 Regression with Time-Series Data: Nonstationary Variables

12.1 Stationary and Nonstationary Variables

12.1.1 Trend Stationary Variables

12.1.2 The First-Order Autoregressive Model

12.1.3 Random Walk Models

12.2 Consequences of Stochastic Trends

12.3 Unit Root Tests for Stationarity

12.3.1 Unit Roots

12.3.2 Dickey–Fuller Tests

12.3.3 Dickey–Fuller Test with Intercept and No Trend

12.3.4 Dickey–Fuller Test with Intercept and Trend

12.3.5 Dickey–Fuller Test with No Intercept and No Trend

12.3.6 Order of Integration

12.3.7 Other Unit Root Tests

12.4 Cointegration

12.4.1 The Error Correction Model

12.5 Regression When There Is No Cointegration

12.6 Summary

Keywords

Problems

 

13 Vector Error Correction and Vector Autoregressive Models

13.1 VEC and VAR Models

13.2 Estimating a Vector Error Correction Model

13.3 Estimating a VAR Model

13.4 Impulse Responses and Variance Decompositions

13.4.1 Impulse Response Functions

13.4.2 Forecast Error Variance Decompositions

Keywords

Problems

ANNEXURE 13 Local Projections for Impulse Response Functions

 

14 Time-Varying Volatility and ARCH Models

14.1 The ARCH Model

14.2 Time-Varying Volatility

14.3 Testing, Estimating, and Forecasting

14.4 Extensions

14.4.1 The GARCH Model—Generalized ARCH

14.4.2 Allowing for an Asymmetric Effect

14.4.3 GARCH-in-Mean and Time-Varying Risk Premium

14.4.4 Other Developments

Keywords

Problems

 

15 Panel Data Models

15.1 The Panel Data Regression Function

15.1.1 Further Discussion of Unobserved Heterogeneity

15.1.2 The Panel Data Regression Exogeneity Assumption

15.1.3 Using OLS to Estimate the Panel Data Regression

15.2 The Fixed Effects Estimator

15.2.1 The Difference Estimator: T = 2

15.2.2 The Within Estimator: T = 2

15.2.3 The Within Estimator: T > 2

15.2.4 The Least Squares Dummy Variable Model

15.3 Panel Data Regression Error Assumptions

15.3.1 OLS Estimation with Cluster-Robust Standard Errors

15.3.2 Fixed Effects Estimation with Cluster-Robust Standard Errors

15.4 The Random Effects Estimator

15.4.1 Testing for Random Effects

15.4.2 A Hausman Test for Endogeneity in the Random Effects Model

15.4.3 A Regression-Based Hausman Test

15.4.4 The Hausman–Taylor Estimator

15.4.5 Summarizing Panel Data Assumptions

15.4.6 Summarizing and Extending Panel Data Model Estimation

Keywords

Problems

 

16 Qualitative and Limited Dependent Variable Models

16.1 Introducing Models with Binary Dependent Variables

16.1.1 The Linear Probability Model

16.2 Modeling Binary Choices

16.2.1 The Probit Model for Binary Choice

16.2.2 Interpreting the Probit Model

16.2.3 Maximum Likelihood Estimation of the Probit Model

16.2.4 The Logit Model for Binary Choices

16.2.5 Wald Hypothesis Tests

16.2.6 Likelihood Ratio Hypothesis Tests

16.2.7 Robust Inference in Probit and Logit Models

16.2.8 Binary Choice Models with a Continuous Endogenous Variable

16.2.9 Binary Choice Models with a Binary Endogenous Variable

16.2.10 Binary Endogenous Explanatory Variables

16.2.11 Binary Choice Models and Panel Data

16.3 Multinomial Logit

16.3.1 Multinomial Logit Choice Probabilities

16.3.2 Maximum Likelihood Estimation

16.3.3 Multinomial Logit Postestimation Analysis

16.4 Conditional Logit

16.4.1 Conditional Logit Choice Probabilities

16.4.2 Conditional Logit Postestimation Analysis

16.5 Ordered Choice Models

16.5.1 Ordinal Probit Choice Probabilities

16.5.2 Ordered Probit Estimation and Interpretation

16.6 Models for Count Data

16.6.1 Maximum Likelihood Estimation of the Poisson Regression Model

16.6.2 Interpreting the Poisson Regression Model

16.7 Limited Dependent Variables

16.7.1 Maximum Likelihood Estimation of the Simple Linear Regression Model

16.7.2 Truncated Regression

16.7.3 Censored Samples and Regression

16.7.4 Tobit Model Interpretation

16.7.5 Sample Selection

Keywords

Problems

ANNEXURE 16 Probit Models for Panel Data

 

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