Full-annual-cycle population models for migratory birds

被引:164
作者
Hostetler, Jeffrey A. [1 ]
Sillett, T. Scott [1 ]
Marra, Peter P. [1 ]
机构
[1] Smithsonian Conservat Biol Inst, Migratory Bird Ctr, Washington, DC USA
来源
AUK | 2015年 / 132卷 / 02期
基金
美国国家科学基金会;
关键词
density dependence; full life-cycle; migratory connectivity; nonbreeding; population dynamics; population limitation; seasonal; vital rates; OPTIMAL ANNUAL ROUTINES; CLIMATE-CHANGE; HABITAT QUALITY; SENSITIVITY-ANALYSIS; OPTIMAL CONSERVATION; SPATIALLY EXPLICIT; DENSITY-DEPENDENCE; AMERICAN REDSTARTS; RED KNOTS; CONSEQUENCES;
D O I
10.1642/AUK-14-211.1
中图分类号
Q95 [动物学];
学科分类号
071002 ;
摘要
Full-annual-cycle (FAC) models integrate seasonal demographic and environmental processes to elucidate the factors that limit and regulate animal populations. Unlike traditional, breeding-season-focused models of migratory populations, FAC population models include the effects on population dynamics of events in both the breeding and the nonbreeding season (i.e. winter and migration). Given that migratory birds can spend most of the year away from the breeding grounds and face seasonally specific threats and limitation, FAC models can provide critical and unique insights about their population dynamics. We review existing FAC population model types, including demographic network models, seasonal matrix models, and individual-based models, with examples of each type. We also suggest some approaches new to FAC population modeling-integrated population models and integral projection models-and make recommendations for the development and implementation of these models. Incorporating model components such as density dependence, migratory connectivity (the demographic linkages between breeding and nonbreeding areas), and seasonal interactions can be critical for model realism but can also increase model complexity and development time. Much of the development of FAC population models has been more theoretical than applied. The main limitation to the application of the developed models is availability of empirical data for all annual stages, particularly knowledge of migratory connectivity and density-dependent seasonal survival. As these data become more available, the models outlined here should find additional uses.
引用
收藏
页码:433 / 449
页数:17
相关论文
共 101 条
[1]   An assessment of integrated population models: bias, accuracy, and violation of the assumption of independence [J].
Abadi, Fitsum ;
Gimenez, Olivier ;
Arlettaz, Raphael ;
Schaub, Michael .
ECOLOGY, 2010, 91 (01) :7-14
[2]   Estimation of immigration rate using integrated population models [J].
Abadi, Fitsum ;
Gimenez, Olivier ;
Ullrich, Bruno ;
Arlettaz, Raphael ;
Schaub, Michael .
JOURNAL OF APPLIED ECOLOGY, 2010, 47 (02) :393-400
[3]  
Akcakaya H.R., 2002, RAMAS GIS: Linking Spatial Data with Population Viability Analysis
[4]   Rapid population decline in red knots:: fitness consequences of decreased refuelling rates and late arrival in Delaware Bay [J].
Baker, AJ ;
González, PM ;
Piersma, T ;
Niles, LJ ;
do Nascimento, IDS ;
Atkinson, PW ;
Clark, NA ;
Minton, CDT ;
Peck, MK ;
Aarts, G .
PROCEEDINGS OF THE ROYAL SOCIETY B-BIOLOGICAL SCIENCES, 2004, 271 (1541) :875-882
[5]   Multiple Allee effects and population management [J].
Berec, Ludek ;
Angulo, Elena ;
Courchamp, Franck .
TRENDS IN ECOLOGY & EVOLUTION, 2007, 22 (04) :185-191
[6]   Integrating mark-recapture-recovery and census data to estimate animal abundance and demographic parameters [J].
Besbeas, P ;
Freeman, SN ;
Morgan, BJT ;
Catchpole, EA .
BIOMETRICS, 2002, 58 (03) :540-547
[7]   Body size, carry-over effects and survival in a seasonal environment: consequences for population dynamics [J].
Betini, Gustavo S. ;
Griswold, Cortland K. ;
Prodan, Livia ;
Norris, D. Ryan .
JOURNAL OF ANIMAL ECOLOGY, 2014, 83 (06) :1313-1321
[8]   Carry-over effects, sequential density dependence and the dynamics of populations in a seasonal environment [J].
Betini, Gustavo S. ;
Griswold, Cortland K. ;
Norris, D. Ryan .
PROCEEDINGS OF THE ROYAL SOCIETY B-BIOLOGICAL SCIENCES, 2013, 280 (1759)
[9]   Extension of landscape-based population viability models to ecoregional scales for conservation planning [J].
Bonnot, Thomas W. ;
Thompson, Frank R., III ;
Millspaugh, Joshua J. .
BIOLOGICAL CONSERVATION, 2011, 144 (07) :2041-2053
[10]  
Brooks S. P., 2004, Animal Biodiversity and Conservation, V27, P515