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A general framework for multiple - recapture estimation that incorporates linkage error correction

A general framework for multiple - recapture estimation that incorporates linkage error correction
A general framework for multiple - recapture estimation that incorporates linkage error correction
The size of a partly observed population is often estimated with the capture – recapture (for two sources) or multiple – recapture (for multiple sources) estimation method. An important assumption of these models is that records in different sources can be identified such that it is known whether these records belong to the same unit or not, i.e. records can be perfectly linked between
sources. This assumption of perfect linkage is of particular relevance if identification is not obtained by some perfect identifier (like a tag or id-code) but by indirect identifiers (like name and address or animal’s skin patterns). In that case the perfect linkage assumption is often violated, which in general leads to biased population size estimates. A solution to this problem was provided by Ding and Fienberg (1994), Di Consiglio and Tuoto (2015) and De Wolf et al. (2018).
These authors show how to use linkage probabilities to correct the capture - recapture estimator for linkage errors. Recently, Di Consiglio and Tuoto (2018) extended their method to three sources.
In this paper we provide a general framework that allows us to extend this work further in two ways. First, we extend this work further to any number of sources. Second, our framework allows to incorporate covariates in a better way. We do this by generalising the standard log - linear modelling approach used in multiple - recapture estimation such that it incorporates linkage error
correction. We show how the method performs in a simulation study
with data that resemble real data.
Centraal Bureau voor de Statistiek
Zult, Daan
3c826464-727c-41fe-be3f-50aef99679c9
de Wolf, Peter-Paul
7d834ef2-53eb-458d-94be-b6da5af078fe
Bakker, Bart
6b6265be-40df-4613-8ede-e0366fc986fa
Van Der Heijden, Peter
85157917-3b33-4683-81be-713f987fd612
Zult, Daan
3c826464-727c-41fe-be3f-50aef99679c9
de Wolf, Peter-Paul
7d834ef2-53eb-458d-94be-b6da5af078fe
Bakker, Bart
6b6265be-40df-4613-8ede-e0366fc986fa
Van Der Heijden, Peter
85157917-3b33-4683-81be-713f987fd612

Zult, Daan, de Wolf, Peter-Paul, Bakker, Bart and Van Der Heijden, Peter (2019) A general framework for multiple - recapture estimation that incorporates linkage error correction Centraal Bureau voor de Statistiek 33pp.

Record type: Monograph (Discussion Paper)

Abstract

The size of a partly observed population is often estimated with the capture – recapture (for two sources) or multiple – recapture (for multiple sources) estimation method. An important assumption of these models is that records in different sources can be identified such that it is known whether these records belong to the same unit or not, i.e. records can be perfectly linked between
sources. This assumption of perfect linkage is of particular relevance if identification is not obtained by some perfect identifier (like a tag or id-code) but by indirect identifiers (like name and address or animal’s skin patterns). In that case the perfect linkage assumption is often violated, which in general leads to biased population size estimates. A solution to this problem was provided by Ding and Fienberg (1994), Di Consiglio and Tuoto (2015) and De Wolf et al. (2018).
These authors show how to use linkage probabilities to correct the capture - recapture estimator for linkage errors. Recently, Di Consiglio and Tuoto (2018) extended their method to three sources.
In this paper we provide a general framework that allows us to extend this work further in two ways. First, we extend this work further to any number of sources. Second, our framework allows to incorporate covariates in a better way. We do this by generalising the standard log - linear modelling approach used in multiple - recapture estimation such that it incorporates linkage error
correction. We show how the method performs in a simulation study
with data that resemble real data.

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Published date: May 2019

Identifiers

Local EPrints ID: 430809
URI: http://eprints.soton.ac.uk/id/eprint/430809
PURE UUID: abf95f9b-8b03-4242-9c00-f6125b07c018
ORCID for Peter Van Der Heijden: ORCID iD orcid.org/0000-0002-3345-096X

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Date deposited: 14 May 2019 16:30
Last modified: 16 Mar 2024 04:14

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Contributors

Author: Daan Zult
Author: Peter-Paul de Wolf
Author: Bart Bakker

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