Individual variability in the phenology of an asynchronous penguin species induces consequences on breeding and carry-over effects

被引:0
|
作者
Joly, Nicolas [1 ]
Chiaradia, Andre [2 ]
Georges, Jean-Yves [1 ]
Saraux, Claire [1 ]
机构
[1] Univ Strasbourg, Inst Pluridisciplinaire Hubert Curien IPHC, UMR 7178, CNRS, 23 Rue Becquerel, F-67000 Strasbourg, France
[2] Phillip Island Nature Pk, Conservat Dept, POB 97, Cowes, Vic 3922, Australia
关键词
Breeding timing; Early-life; Repeatability; Life-history; Fitness; EUDYPTULA-MINOR; CLIMATE-CHANGE; REPRODUCTIVE SUCCESS; BODY CONDITION; NATURAL-SELECTION; CHICK GROWTH; PLASTICITY; SURVIVAL; SEABIRD; QUALITY;
D O I
10.1007/s00442-024-05644-6
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
Phenology is a major component of animals' breeding, as they need to adjust their breeding timing to match optimal environmental conditions. While the effects of shifting phenology are well-studied on populations, few studies emphasise its ecological causes and consequences at the inter-individual level. Using a 20-year monitoring of more than 2500 breeding events from similar to 500 breeding little penguins (Eudyptula minor), a very asynchronously breeding seabird, we investigated the consequences of late breeding on present and next breeding events. We found that individuals breeding later had reduced breeding success, lighter chicks at fledging, lower probability of laying a second clutch, and decreased parents' post-breeding body condition. Importantly, we found important cycling effects where delayed breeding during a given year led to significantly later laying date, lower breeding probability and lower breeding success when they breed during the next season, suggesting potential carry-over effects from one season to the next. To further understand the causes of such variability in phenology while earlier breeding is associated with better individual fitness, we aimed to assess intrinsic differences amongst individuals. We showed that the heterogeneity in breeding timing was partly fixed, the laying date being a significantly repeatable behaviour (17%), asking for more studies on heritability or early-development effects. This extensive study highlights the combined roles of carry-over effects and intrinsic differences on individual phenology, with important implications on breeding capacity through life.
引用
收藏
页数:12
相关论文
共 50 条
  • [31] Density-mediated carry-over effects explain variation in breeding output across time in a seasonal population
    Betini, Gustavo S.
    Griswold, Cortland K.
    Norris, D. Ryan
    BIOLOGY LETTERS, 2013, 9 (05)
  • [32] Carry-over effects of seasonal migration on reproductive success through breeding site retention in a partially migratory bird
    Morinay, Jennifer
    Daunt, Francis
    Morley, Tim I.
    Fenn, Sarah R.
    Burthe, Sarah J.
    Reid, Jane M.
    JOURNAL OF ANIMAL ECOLOGY, 2024, 93 (07) : 849 - 861
  • [33] Carry-over effects from breeding modulate the annual cycle of a long-distance migrant: an experimental demonstration
    Catry, Paulo
    Dias, Maria P.
    Phillips, Richard A.
    Granadeiro, Jose P.
    ECOLOGY, 2013, 94 (06) : 1230 - 1235
  • [34] A ptilochronological study of carry-over effects of conditions during wintering on breeding performance in the barn swallow Hirundo rustica
    Saino, Nicola
    Romano, Maria
    Caprioli, Manuela
    Ambrosini, Roberto
    Rubolini, Diego
    Scandolara, Chiara
    Romano, Andrea
    JOURNAL OF AVIAN BIOLOGY, 2012, 43 (06) : 513 - 524
  • [35] Environmental Conditions during Breeding Modify the Strength of Mass-Dependent Carry-Over Effects in a Migratory Bird
    Harrison, Xavier A.
    Hodgson, David J.
    Inger, Richard
    Colhoun, Kendrew
    Gudmundsson, Gudmundur A.
    McElwaine, Graham
    Tregenza, Tom
    Bearhop, Stuart
    PLOS ONE, 2013, 8 (10):
  • [36] Habitat-mediated carry-over effects lead to context-dependent outcomes of species interactions
    Van Allen, Benjamin G.
    Rudolf, Volker H. W.
    JOURNAL OF ANIMAL ECOLOGY, 2015, 84 (06) : 1646 - 1656
  • [37] Within season and carry-over effects following exposure of grassland species mixtures to increasing background ozone
    Hayes, Felicity
    Mills, Gina
    Harmens, Harry
    Wyness, Kirsten
    ENVIRONMENTAL POLLUTION, 2011, 159 (10) : 2420 - 2426
  • [38] Variation Among Species and Populations, and Carry-Over Effects of Winter Exposure on Mercury Accumulation in Small Petrels
    Quillfeldt, Petra
    Cherel, Yves
    Navarro, Joan
    Phillips, Richard A.
    Masello, Juan F.
    Suazo, Cristian G.
    Delord, Karine
    Bustamante, Paco
    FRONTIERS IN ECOLOGY AND EVOLUTION, 2022, 10
  • [39] Inter-annual variability of Net Ecosystem Productivity for a temperate mixed forest: A predominance of carry-over effects?
    Aubinet, Marc
    Hurdebise, Quentin
    Chopin, Henri
    Debacq, Alain
    De Ligne, Anne
    Heinesch, Bernard
    Manise, Tanguy
    Vincke, Caroline
    AGRICULTURAL AND FOREST METEOROLOGY, 2018, 262 : 340 - 353
  • [40] Carry-Over Effects in Nature: Effects of Canopy Cover and Individual Pond on Size, Shape, and Locomotor Performance of Metamorphosing Wood Frogs
    Boes, Matthew W.
    Benard, Michael F.
    COPEIA, 2013, (04) : 717 - 722