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First Hitting Time Regression Models: Lifetime Data Analysis Based on Underlying Stochastic Processes

ISBN: 978-1-84821-889-5
200 pages
July 2017, Wiley-ISTE
First Hitting Time Regression Models: Lifetime Data Analysis Based on Underlying Stochastic Processes (1848218893) cover image


This book aims to promote regression methods for analyzing lifetime (or time-to-event) data that are based on a representation of the underlying process, and are therefore likely to offer greater scientific insight compared to purely empirical methods.

In contrast to the rich statistical literature, the regression methods actually employed in lifetime data analysis are limited, particularly in the biomedical field where D. R. Cox’s famous semi-parametric proportional hazards model predominates. Practitioners should become familiar with more flexible models. The first hitting time regression models (or threshold regression) presented here represent observed events as the outcome of an underlying stochastic process. One example is death occurring when the patient’s health status falls to zero, but the idea has wide applicability – in biology, engineering, banking and finance, and elsewhere. The central topic is the model based on an underlying Wiener process, leading to lifetimes following the inverse Gaussian distribution. Introducing time-varying covariates and many other extensions are considered. Various applications are presented in detail.

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Table of Contents

Chapter 1. Introduction to regression modelling of lifetime data. PH models, AG models, PO models

Chapter 2. First hitting time regression models, emphasizing inverse Gaussian regression based on the Wiener process and its features

Chapter 3. Extensions of the IG FHT regression model, including time-varying covariates, semi-parametric analysis, individual random effects, multiple outcomes and recurrent events

Chapter 4. Model fitting and diagnostics

Chapter 5. Relationship to proportional hazards and accelerated life models

Chapter 6. Gamma process degradation models and other models, including Ornstein- Uhlenbeck

Chapter 6. Applications

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