Introduction Motivation Terminology Scope and layout of the book Minor outbreaks when infectives are homogeneous When are outbreaks certain to be minor? Preventing epidemics by mass immunization Reproduction number What is a minor outbreak? Probability of a minor outbreak Importation of the infectious disease Estimating R Minor outbreaks in a community of households Modified allocation of offspring Household reproduction number When are outbreaks certain to be minor? Mass immunization Are results affected by the way the infection is imported? Estimating RH Minor outbreaks when individuals differ Type-specific offspring distributions When are outbreaks certain to be minor? Mass immunization Types of individual in a community of households Two reproduction numbers for a community of households Transmission intensity function Describing transmission intensity by a function Estimating the transmission intensity function Role of the transmission intensity function in modeling Partially effective vaccines Vaccine effect on transmission between individuals Impact of mass immunization on the reproduction number Estimating vaccine effects Social distancing What is social distancing? Reduced mixing Isolating symptomatic infectives Targeting high transmission intensities Reducing epidemic size Simulated epidemics The nature of our deterministic epidemic model Epidemic size in a homogeneous community Mass immunization Herd immunity Estimating the reproduction number Types of individual Dynamics of infection incidence The epidemic curve Estimating parameter values from daily incidence data Endemic transmission Using data to inform model choice Model-free comparison of data on outbreak size Transmission among homogeneous individuals Allowing transmission rates to differ between individuals Terminology and notation References Subject index Discussion, Exercises, Supplementary material, and Bibliographic notes appear at the end of each chapter.
Niels G. Becker is an emeritus professor of biostatistics at the Australian National University, where he was the director of the National Centre for Epidemiology and Population Health from 2007 until 2011. Dr. Becker has published more than 150 peer-reviewed articles. His research interests include the control of infectious diseases, triggers of adverse health events, and the analysis of foodborne disease data.
"This book provides an accessible introduction to the use of mathematical models to inform infectious disease management. The core material is designed to be read by someone with a 'modest knowledge of mathematics', possessing the ability to 'interpret an algebraic formula and [understand] what it means to solve an equation'; some additional knowledge of basic statistics is stated as being useful. ... The core material is complemented by more technical supplementary material at the end of each chapter, for readers with greater knowledge of mathematics. Exercises are included in each chapter which support the material and would be suitable for use as part of an introductory course...The language in the book is direct and clear, and the material is well motivated. ... Overall, this book is a valuable resource to those new to infectious disease (stochastic) modelling. It is rather unique in the level of assumed knowledge, the probabilistic foundation (including handling of branching process and stochastic household model results), the provision of tangible and realistic insight into how these models inform public health management, and the integration of data. To achieve this all within just over 200 pages is a great feat." -Joshua V. Ross School of Mathematical Sciences, The University of Adelaide, in Australian & New Zealand Journal of Statistics, 2016 "This new book seeks to fill an important gap in the literature on infectious disease modeling, namely separating the now well-developed mathematical and statistical theory of infectious diseases from its public health application to infectious disease control. Professor Becker bridges the two worlds by presenting a logical succession of simple models that relate to some of the pressing questions arising in outbreak control. The approach is very effective and has resulted in an engaging volume that, in my estimation, will become a classic of the literature and thus a worthy successor to the author's earlier landmark volume on the subject. It will be essential reading for a broad range of scientists working on infectious diseases, notably statisticians, modelers, and epidemiologists with an interest in quantitative methods." -Paddy Farrington, The Open University, UK