Spatial consistency in drivers of population dynamics of a declining migratory bird

被引:17
作者
Nater, Chloe R. [1 ,2 ]
Burgess, Malcolm D. D. [3 ,4 ,5 ]
Coffey, Peter [6 ]
Harris, Bob [6 ]
Lander, Frank [4 ]
Price, David [4 ]
Reed, Mike [7 ]
Robinson, Robert A. A. [8 ]
机构
[1] Norwegian Inst Nat Res NINA, Trondheim, Norway
[2] Norwegian Univ Sci & Technol NTNU, Ctr Biodivers Dynam, Trondheim, Norway
[3] RSPB Ctr Conservat Sci, Sandy, England
[4] PiedFly Net, Yarner Wood, Devon, England
[5] Univ Exeter, Ctr Res Anim Behav, Exeter, England
[6] Merseyside Ringing Grp, Merseyside, England
[7] 143 Daniells Welwyn Garden City, Hertford, England
[8] British Trust Ornithol, Thetford, England
基金
芬兰科学院;
关键词
annual survival; comparative analysis; environmental effects; full annual cycle; integrated population model; LTRE; multi-population; pied flycatcher; FLYCATCHER FICEDULA-HYPOLEUCA; DEMOGRAPHIC DRIVERS; BREEDING SUCCESS; CONSERVATION; LATITUDES; WEATHER; MODELS; GROWTH;
D O I
10.1111/1365-2656.13834
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
Many migratory species are in decline across their geographical ranges. Single-population studies can provide important insights into drivers at a local scale, but effective conservation requires multi-population perspectives. This is challenging because relevant data are often hard to consolidate, and state-of-the-art analytical tools are typically tailored to specific datasets. We capitalized on a recent data harmonization initiative (SPI-Birds) and linked it to a generalized modelling framework to identify the demographic and environmental drivers of large-scale population decline in migratory pied flycatchers (Ficedula hypoleuca) breeding across Britain. We implemented a generalized integrated population model (IPM) to estimate age-specific vital rates, including their dependency on environmental conditions, and total and breeding population size of pied flycatchers using long-term (34-64 years) monitoring data from seven locations representative of the British breeding range. We then quantified the relative contributions of different vital rates and population structure to changes in short- and long-term population growth rate using transient life table response experiments (LTREs). Substantial covariation in population sizes across breeding locations suggested that change was the result of large-scale drivers. This was supported by LTRE analyses, which attributed past changes in short-term population growth rates and long-term population trends primarily to variation in annual survival and dispersal dynamics, which largely act during migration and/or nonbreeding season. Contributions of variation in local reproductive parameters were small in comparison, despite sensitivity to local temperature and rainfall within the breeding period. We show that both short- and long-term population changes of British breeding pied flycatchers are likely linked to factors acting during migration and in nonbreeding areas, where future research should be prioritized. We illustrate the potential of multi-population analyses for informing management at (inter)national scales and highlight the importance of data standardization, generalized and accessible analytical tools, and reproducible workflows to achieve them.
引用
收藏
页码:97 / 111
页数:15
相关论文
共 68 条
[41]   Demographic variation in space and time: implications for conservation targeting [J].
Morrison, Catriona A. ;
Butler, Simon J. ;
Clark, Jacquie A. ;
Arizaga, Juan ;
Balta, Oriol ;
Cepak, Jaroslav ;
Nebot, Arantza Leal ;
Piha, Markus ;
Thorup, Kasper ;
Wenninger, Thomas ;
Robinson, Robert A. ;
Gill, Jennifer A. .
ROYAL SOCIETY OPEN SCIENCE, 2022, 9 (03)
[42]   Post-fledging survival of altricial birds: ecological determinants and adaptation [J].
Naef-Daenzer, Beat ;
Grueebler, Martin U. .
JOURNAL OF FIELD ORNITHOLOGY, 2016, 87 (03) :227-250
[43]  
Nater C.R., 2022, SPI BIRDS SPI IPM V0, DOI 10.5281/zenodo.7253297
[44]  
Nater C.R., 2022, DRYAD DIGITAL REPOSI, DOI 10.5061/dryad.rbnzs7hf9
[45]   Contributions from terrestrial and marine resources stabilize predator populations in a rapidly changing climate [J].
Nater, Chloe R. ;
Eide, Nina E. ;
Pedersen, Ashild O. ;
Yoccoz, Nigel G. ;
Fuglei, Eva .
ECOSPHERE, 2021, 12 (06)
[46]  
Newton I., 1998, POPULATION LIMITATIO
[47]  
Office M., 2019, MET OFF OP UK LAND S
[48]   Quantifying range-wide variation in population trends from local abundance surveys and widespread opportunistic occurrence records [J].
Pagel, Joern ;
Anderson, Barbara J. ;
O'Hara, Robert B. ;
Cramer, Wolfgang ;
Fox, Richard ;
Jeltsch, Florian ;
Roy, David B. ;
Thomas, Chris D. ;
Schurr, Frank M. .
METHODS IN ECOLOGY AND EVOLUTION, 2014, 5 (08) :751-760
[49]   Integrated population models poorly estimate the demographic contribution of immigration [J].
Paquet, Matthieu ;
Knape, Jonas ;
Arlt, Debora ;
Forslund, Par ;
Part, Tomas ;
Flagstad, Oystein ;
Jones, Carl G. ;
Nicoll, Malcolm A. C. ;
Norris, Ken ;
Pemberton, Josephine M. ;
Sand, Hakan ;
Svensson, Linn ;
Tatayah, Vikash ;
Wabakken, Petter ;
Wikenros, Camilla ;
Akesson, Mikael ;
Low, Matthew .
METHODS IN ECOLOGY AND EVOLUTION, 2021, 12 (10) :1899-1910
[50]   Why we should care about movements: Using spatially explicit integrated population models to assess habitat source-sink dynamics [J].
Paquet, Matthieu ;
Arlt, Debora ;
Knape, Jonas ;
Low, Matthew ;
Forslund, Par ;
Part, Tomas .
JOURNAL OF ANIMAL ECOLOGY, 2020, 89 (12) :2922-2933