Stochastic Epidemic Models and Their Statistical Analysis / Edition 1

Stochastic Epidemic Models and Their Statistical Analysis / Edition 1

by Hakan Andersson, Tom Britton
ISBN-10:
0387950508
ISBN-13:
9780387950501
Pub. Date:
07/19/2000
Publisher:
Springer New York
ISBN-10:
0387950508
ISBN-13:
9780387950501
Pub. Date:
07/19/2000
Publisher:
Springer New York
Stochastic Epidemic Models and Their Statistical Analysis / Edition 1

Stochastic Epidemic Models and Their Statistical Analysis / Edition 1

by Hakan Andersson, Tom Britton

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Overview

This book describes stochastic epidemic models and methods for statist ically analyzing them. It is aimed at statisticians, biostatisticians, and biomathematicians.


Product Details

ISBN-13: 9780387950501
Publisher: Springer New York
Publication date: 07/19/2000
Series: Lecture Notes in Statistics , #151
Edition description: 2000
Pages: 156
Product dimensions: 6.10(w) x 9.25(h) x (d)

Table of Contents

I: Shastic Modelling.- 1. Introduction.- 1.1. Shastic versus deterministic models.- 1.2. A simple epidemic model: The Reed-Frost model.- 1.3. Shastic epidemics in large communities.- 1.4. History of epidemic modelling.- Exercises.- 2. The standard SIR epidemic model.- 2.1. Definition of the model.- 2.2. The Sellke construction.- 2.3. The Markovian case.- 2.4. Exact results.- Exercises.- 3. Coupling methods.- 3.1. First examples.- 3.2. Definition of coupling.- 3.3. Applications to epidemics.- Exercises.- 4. The threshold limit theorem.- 4.1. The imbedded process.- 4.2. Preliminary convergence results.- 4.3. The case mn/n -> 0 as n -> ∞ —.- 4.4. The case mn=m for all n.- 4.5. Duration of the Markovian SIR epidemic.- Exercises.- 5. Density dependent jump Markov processes.- 5.1. An example: A simple birth and death process.- 5.2. The general model.- 5.3. The Law of Large Numbers.- 5.4. The Central Limit Theorem.- 5.5. Applications to epidemic models.- Exercises.- 6. Multitype epidemics.- 6.1. The standard SIR multitype epidemic model.- 6.2. Large population limits.- 6.3. Household model.- 6.4. Comparing equal and varying susceptibility.- Exercises.- 7. Epidemics and graphs.- 7.1. Random graph interpretation.- 7.2. Constant infectious period.- 7.3. Epidemics and social networks.- 7.4. The two-dimensional lattice.- Exercises.- 8. Models for endemic diseases.- 8.1. The SIR model with demography.- 8.2. The SIS model.- Exercises.- II: Estimation.- 9. Complete observation of the epidemic process.- 9.1. Martingales and log-likelihoods of counting processes.- 9.2. ML-estimation for the standard SIR epidemic.- Exercises.- 10. Estimation in partially observed epidemics.- 10.1. Estimation based on martingale methods.- 10.2. Estimation based on the EM-algorithm.- Exercises.- 11. Markov Chain Monte Carlo methods.- 11.1. Description of the techniques.- 11.2. Important examples.- 11.3. Practical implementation issues.- 11.4. Bayesian inference for epidemics.- Exercises.- 12. Vaccination.- 12.1. Estimating vaccination policies based on one epidemic.- 12.2. Estimating vaccination policies for endemic diseases.- 12.3. Estimation of vaccine efficacy.- Exercises.- References.

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