The VGAM Package for Capture-Recapture Data Using the Conditional Likelihood

被引:0
|
作者
Yee, Thomas W. [1 ]
Stoklosa, Jakub [2 ]
Huggins, Richard M. [3 ]
机构
[1] Univ Auckland, Auckland 1, New Zealand
[2] Univ New S Wales, Sydney, NSW 2052, Australia
[3] Univ Melbourne, Melbourne, Vic 3010, Australia
来源
JOURNAL OF STATISTICAL SOFTWARE | 2015年 / 65卷 / 05期
关键词
closed population size estimation; conditional likelihood; mark-capture-recapture; vector generalized additive model; VGAM; NONPARAMETRIC-ESTIMATION; BEHAVIORAL-RESPONSE; AUXILIARY VARIABLES; NATURAL-SELECTION; MODELS;
D O I
暂无
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
It is well known that using individual covariate information (such as body weight or gender) to model heterogeneity in capture-recapture (CR) experiments can greatly enhance inferences on the size of a closed population. Since individual covariates are only observable for captured individuals, complex conditional likelihood methods are usually required and these do not constitute a standard generalized linear model (GLM) family. Modern statistical techniques such as generalized additive models (GAMs), which allow a relaxing of the linearity assumptions on the covariates, are readily available for many standard GLM families. Fortunately, a natural statistical framework for maximizing conditional likelihoods is available in the Vector GLM and Vector GAM classes of models. We present several new R functions (implemented within the VGAM package) specifically developed to allow the incorporation of individual covariates in the analysis of closed population CR data using a GLM/GAM-like approach and the conditional likelihood. As a result, a wide variety of practical tools are now readily available in the VGAM object oriented framework. We discuss and demonstrate their advantages, features and flexibility using the new VGAM CR functions on several examples.
引用
下载
收藏
页码:1 / 33
页数:33
相关论文
共 50 条
  • [31] CAPTURE-RECAPTURE ANALYSIS
    HAMMERSLEY, JM
    BIOMETRIKA, 1953, 40 (3-4) : 265 - 278
  • [32] Semiparametric empirical likelihood inference for abundance from one-inflated capture-recapture data
    Liu, Yang
    Li, Pengfei
    Liu, Yukun
    Zhang, Riquan
    BIOMETRICAL JOURNAL, 2022, 64 (06) : 1040 - 1055
  • [33] Maximum likelihood inference for the band-read error model for capture-recapture data with misidentification
    Zhang, Wei
    Price, Steven J.
    Bonner, Simon J.
    ENVIRONMENTAL AND ECOLOGICAL STATISTICS, 2021, 28 (02) : 405 - 422
  • [34] Approaches for the direct estimation of λ, and demographic contributions to λ, using capture-recapture data
    Nichols, JD
    Hines, JE
    JOURNAL OF APPLIED STATISTICS, 2002, 29 (1-4) : 539 - 568
  • [35] Estimating the size of an open population using sparse capture-recapture data
    Huggins, Richard
    Stoklosa, Jakub
    Roach, Cameron
    Yip, Paul
    BIOMETRICS, 2018, 74 (01) : 280 - 288
  • [36] Analysis of capture-recapture data with a Rasch-type model allowing for conditional dependence and multidimensionality
    Bartolucci, F
    Forcina, A
    BIOMETRICS, 2001, 57 (03) : 714 - 719
  • [37] CAPTURE-RECAPTURE ESTIMATION WITH SAMPLES OF SIZE ONE USING FREQUENCY DATA
    WILSON, RM
    COLLINS, MF
    BIOMETRIKA, 1992, 79 (03) : 543 - 553
  • [38] Maximum likelihood abundance estimation from capture-recapture data when covariates are missing at random
    Liu, Yang
    Liu, Yukun
    Li, Pengfei
    Zhu, Lin
    BIOMETRICS, 2021, 77 (03) : 1050 - 1060
  • [39] Capture-recapture using multiple data sources: estimating the prevalence of diabetes
    Cameron, Claire M.
    Coppell, Kirsten J.
    Fletcher, David J.
    Sharples, Katrina J.
    AUSTRALIAN AND NEW ZEALAND JOURNAL OF PUBLIC HEALTH, 2012, 36 (03) : 223 - 228
  • [40] Estimating dispersal among numerous sites using capture-recapture data
    Lagrange, Pamela
    Pradel, Roger
    Belisle, Marc
    Gimenez, Olivier
    ECOLOGY, 2014, 95 (08) : 2316 - 2323