- Ray Carroll's review is here
- Peter Diggle's review is here
- Larry Wasserman's review is here
- Taeryon Choi's Review for Journal of Agricultural, Biological and Environmental Statistics is here
- Andrew Gelman's Review for Statistics in Medicine is here
- Jonathan Gillard's Review for The Journal of the Royal Statistical Society, Series A is here
- R code

- Minnesota Lung Cancer Data: MNlung.txt
MNradon.txt

- Spinal Bone Mineral Density Data spinalbonedata.txt
- R code

- Minnesota Lung Cancer Data: MNlung.txt
MNradon.txt

- R code

- Minnesota Lung Cancer Data: MNlung.txt
MNradon.txt

- R code

- Gene expression "pseudo" data (the real data cannot be publicly shared) GeneSamp1.txt GeneSamp2.txt

- R code

- R code for pharmacokinetic analyses

- R code for pharmacokinetic countour plots

- Scottish Lip Cancer Data scotlip.txt

- Minnesota Lung Cancer Data: MNlung.txt
MNradon.txt

- R code

- BPD and Birthweight Data birthweight.txt
- R code

- WinBUGS code for Dental Example DentalWinBUGSGirls.txt
- Reduced Dental Dataset dental-reduced.txt
- WinBUGS code for Dental Example with Reduced Dataset DentalWinBUGSReduced.txt
- FEV Data fev.txt The variables are: ID, smoker (1=current, 0=former smoker), times from baseline (years), FEV1.
- WinBUGS code for FEV Example fevWinBUGS.txt
- R code

- Contraception Data contracept.txt The variables are: ID, dose, time, response (experience amenorrhea).
- Seizure Data seizure.txt
- WinBUGS code for Seizure Example SeizureWinBUGS.txt
- Minnesota Lung Cancer Data and graph file (for use with INLA) MNlung.txt MNradon.txt MN_county.graph
- Minnesota Spatial Analysis R Code MNlungSpatial.R
- Minnesota Lung Cancer Shapefiles MNlung.shx MNlung.shp MNlung.prj MNlung.dbf
- WinBUGS code for Contraception Data Example ContraceptWinBUGS.txt
- WinBUGS code for Theophylline Data Example TheophWinBUGS.txt
- Samples to demonstrate flip-flop phenomenon in Fig 9.11 betachain1.txt betachain2.txt
- Samples from lognormal and power models to produce residual plots Fig 9.13(c)-(f) TheophWinBUGSLognormalOut.txt TheophWinBUGSPowerOut.txt
- Samples of parameters from power models to produce plot Fig 9.14 WinBUGSsigma0.txt WinBUGSsigma1.txt WinBUGSgamma.txt
- Samples of parameters to produce plot Fig 9.15 WinBUGSClmed.txt WinBUGSkamed.txt WinBUGSkemed.txt
- Illiteracy data that are analyzed in Exercise 9.5 illiteracy.xls
- R code

- BPD and Birthweight Data birthweight.txt
- R code

- Spinal Bone Mineral Density Data spinalbonedata.txt
- BPD and Birthweight Data birthweight.txt
- Cosmic Microwave Background Data cosmicmicrowave.txt
- R code

- BPD and Birthweight Data birthweight.txt
- Iris Data iris.txt

Bayesian and Frequentist Regression Methods provides a modern account of both Bayesian and frequentist methods of regression analysis. Many texts cover one or the other of the approaches, but this is the most comprehensive combination of Bayesian and frequentist methods that exists in one place. The two philosophical approaches to regression methodology are featured here as complementary techniques, with theory and data analysis providing supplementary components of the discussion. In particular, methods are illustrated using a variety of data sets. The majority of the data sets are drawn from biostatistics but the techniques are generalizable to a wide range of other disciplines. While the philosophy behind each approach is discussed, the book is not ideological in nature and an emphasis is placed on practical application and it is shown that, in many situations, careful application of the respective approaches can lead to broadly similar conclusions. To use this text, the reader requires a basic understanding of calculus and liner algebra, and introductory courses in probability and statistical theory. The book is based on the author's experience teaching a graduate sequence in regression methods.

An introductory chapter describes a number of motivating examples and discusses general issues that need consideration before a regression analysis is carried out. The book is then broken into four parts: I Inferential Approaches; II Independent Data; III Dependent Data; IV Nonparametric Modeling. Exercises reinforce the content of each chapter in the four parts of the book. The first two chapters of Part I provide general descriptions of the frequentist and Bayesian approaches to inference, with a particular emphasis on the rationale of each approach and a delineation of situations in which one or the other approach is preferable. The third chapter in Part I discusses model selection and hypothesis testing. Part II considers independent data and contains three chapters on linear models, general regression models (including generalized linear models) and binary data models. The two chapters of Part III consider dependent data with linear models and general regression models. Mixed models and generalized estimating equations are the approaches to inference that are emphasized. Part IV contains three chapters on nonparametric modeling with a concentration on spline and kernel methods. The examples and simulation studies of the text are almost exclusively carried out using the freely-available R software.

Part I: Inferential Approaches

Chapter 2: Frequentist Inference

Chapter 3: Bayesian Inference

Chapter 4: Hypothesis Testing

Part II: Independent Data

Chapter 5: Linear Models

Chapter 6: General Regression Models

Chapter 7: Binary Data Models

Part III: Dependent Data

Chapter 8: Linear Models

Chapter 9: General Regression Models

Part IV: Nonparametric Modeling

Chapter 10: Preliminaries for Nonparametric Modeling

Chapter 11: Spline and Kernel Methods

Chapter 12: Nonparametric Regression with Multiple Predictors