Interaction of climate change with effects of conspecific and heterospecific density on reproduction

Anders Møller; Javier Balbontín; André Dhondt; Frank Adriaensen; Alexandr Artemyev; Jerzy Bańbura; Emilio Barba; Clotilde Biard; Jacques Blondel; Jean‐charles Bouvier; Jordi Camprodon; Francesco Cecere; Motti Charter; Mariusz Cichoń; Camillo Cusimano; Anna Dubiec; Blandine Doligez; Marcel Eens; Tapio Eeva; Peter Ferns; Jukka Forsman; Aya Goldshtein; Anne Goodenough; Andrew Gosler; Lars Gustafsson; Iga Harnist; Ian Hartley; Philippe Heeb; Shelley Hinsley; Staffan Jacob; Antero Järvinen; Rimvydas Juškaitis; Erkki Korpimäki; Indrikis Krams; Toni Laaksonen; Bernard Leclercq; Esa Lehikoinen; Olli Loukola; Mark Mainwaring; Raivo Mänd; Bruno Massa; Erik Matthysen; Tomasz Mazgajski; Santiago Merino; Cezary Mitrus; Mikko Mönkkönen; Ruedi Nager; Jan‐åke Nilsson; Sven Nilsson; Ana Norte; Mikael von Numers; Markku Orell; Carla Pimentel; Rianne Pinxten; Ilze Priedniece; Vladimir Remeš; Heinz Richner; Hugo Robles; Seppo Rytkönen; Juan Senar; Janne Seppänen; Luís da Silva; Tore Slagsvold; Tapio Solonen; Alberto Sorace; Martyn Stenning; János Török; Piotr Tryjanowski; Arie van Noordwijk; Wiesław Walankiewicz; Marcel Lambrechts

doi:10.1111/oik.07305

Journal articles

Interaction of climate change with effects of conspecific and heterospecific density on reproduction

Anders Møller ^{1, 2, *} Javier Balbontín ³ André Dhondt ⁴ Frank Adriaensen ⁵ Alexandr Artemyev ⁶ Jerzy Bańbura ⁷ Emilio Barba ⁸ Clotilde Biard ⁹ Jacques Blondel ¹⁰ Jean‐charles Bouvier ¹¹ Jordi Camprodon ¹² Francesco Cecere Motti Charter ¹³ Mariusz Cichoń ¹⁴ Camillo Cusimano ¹⁵ Anna Dubiec ¹⁶ Blandine Doligez ¹⁷ Marcel Eens ⁵ Tapio Eeva ¹⁸ Peter Ferns ¹⁹ Jukka Forsman ²⁰ Aya Goldshtein ²¹ Anne Goodenough ²² Andrew Gosler ²³ Lars Gustafsson ²⁴ Iga Harnist ¹⁶ Ian Hartley ²⁵ Philippe Heeb ²⁶ Shelley Hinsley ²⁷ Staffan Jacob ²⁸ Antero Järvinen ²⁹ Rimvydas Juškaitis ³⁰ Erkki Korpimäki ¹⁸ Indrikis Krams ³¹ Toni Laaksonen ¹⁸ Bernard Leclercq Esa Lehikoinen ¹⁸ Olli Loukola ²⁰ Mark Mainwaring ³² Raivo Mänd ³¹ Bruno Massa ¹⁵ Erik Matthysen ⁵ Tomasz Mazgajski ¹⁶ Santiago Merino ³³ Cezary Mitrus ³⁴ Mikko Mönkkönen ³⁵ Ruedi Nager ³⁶ Jan‐åke Nilsson ³⁷ Sven Nilsson ³⁷ Ana Norte ³⁸ Mikael von Numers ³⁹ Markku Orell ²⁰ Carla Pimentel ⁴⁰ Rianne Pinxten ⁵ Ilze Priedniece ⁴¹ Vladimir Remeš ⁴² Heinz Richner ⁴³ Hugo Robles ^{44, 5} Seppo Rytkönen ²⁰ Juan Senar ⁴⁵ Janne Seppänen ³⁵ Luís da Silva ⁴⁶ Tore Slagsvold ⁴⁷ Tapio Solonen ⁴⁸ Alberto Sorace ⁴⁹ Martyn Stenning ⁵⁰ János Török ⁵¹ Piotr Tryjanowski ⁵² Arie van Noordwijk ⁵³ Wiesław Walankiewicz ³⁴ Marcel Lambrechts ¹⁰

* Corresponding author

1 ESE - Ecologie Systématique et Evolution

2 Ministry of Education Key Laboratory for Biodiversity Science and Ecological Engineering, College of Life Sciences, Beijing Normal University, Beijing 100875

3 Universidad de Sevilla

4 Cornell University [New York]

5 UA - University of Antwerp

6 RAS - Russian Academy of Sciences [Moscow]

7 University of Lódź

8 Cavanilles Institute of Biodiversity and Evolutionary Biology, Terrestrial Vertebrates Group

9 IEES (UMR_7618 / UMR_D_242 / UMR_A_1392 / UM_113) - Institut d'écologie et des sciences de l'environnement de Paris

10 CEFE - Centre d’Ecologie Fonctionnelle et Evolutive

11 PSH - Unité de recherche Plantes et Systèmes de Culture Horticoles

12 Centre Tecnològic Forestal de Catalunya

13 University of Haifa [Haifa]

14 UJ - Jagiellonian University [Krakow]

15 Stazione Ornitologica di Palermo

16 PAN - Polish Academy of Sciences

17 Université de Lyon

18 University of Turku

19 School of Biosciences [Cardiff]

20 University of Oulu

21 Tel Aviv University [Tel Aviv]

22 University of Gloucestershire (Cheltenham, GB)

23 Edward Grey Institute, Department of Zoology

24 Uppsala University

25 Lancaster University

26 EDB - Evolution et Diversité Biologique

27 CEH - Centre for Ecology and Hydrology [Wallingford]

28 SETE - Station d'écologie théorique et expérimentale

29 University of Helsinki

30 Nature Research Centre, Institute of Ecology, Akademijos str. 2, LT-08412, Vilnius, Lithuania.

31 University of Tartu

32 University of Montana

33 CSIC - Consejo Superior de Investigaciones Científicas [Madrid]

34 Uniwersytet Wroclawski

35 JYU - University of Jyväskylä

36 University of Glasgow

37 Lund University [Lund]

38 MARE UC - Marine and Environmental Sciences Centre

39 Åbo Akademi University [Turku]

40 Université de Lisbonne

41 Latvian Fund for Nature

42 Palacky University Olomouc

43 University of Bern

44 UDC - University of A Coruña

45 Museu de Ciències Naturals de Barcelona

46 Universidade do Porto

47 UiO - University of Oslo

48 Luontotutkimus Solonen Oy

49 SROPU

50 University of Sussex

51 ELTE - Eötvös Loránd University

52 PULS - Poznan University of Life Sciences (Uniwersytet Przyrodniczy w Poznaniu)

53 Netherlands Institute of Ecology - NIOO-KNAW (NETHERLANDS)

Abstract : We studied the relationship between temperature and the coexistence of great tit Parus major and blue tit Cyanistes caeruleus, breeding in 75 study plots across Europe and North Africa. We expected an advance in laying date and a reduction in clutch size during warmer springs as a general response to climate warming and a delay in laying date and a reduction in clutch size during warmer winters due to density-dependent effects. As expected, as spring temperature increases laying date advances and as winter temperature increases clutch size is reduced in both species. Density of great tit affected the relationship between winter temperature and laying date in great and blue tit. Specifically, as density of great tit increased and temperature in winter increased both species started to reproduce later. Density of blue tit affected the relationship between spring temperature and blue and great tit laying date. Thus, both species start to reproduce earlier with increasing spring temperature as density of blue tit increases, which was not an expected outcome, since we expected that increasing spring temperature should advance laying date, while increasing density should delay it cancelling each other out. Climate warming and its interaction with density affects clutch size of great tits but not of blue tits. As predicted, great tit clutch size is reduced more with density of blue tits as temperature in winter increases. The relationship between spring temperature and density on clutch size of great tits depends on whether the increase is in density of great tit or blue tit. Therefore, an increase in temperature negatively affected the coexistence of blue and great tits differently in both species. Thus, blue tit clutch size was unaffected by the interaction effect of density with temperature, while great tit clutch size was affected in multiple ways by these interactions terms.

Keywords : blue tit clutch size Cyanistes caeruleus great tit Interspecific competition Intraspecific competition laying date Parus major temperature anomaly

Document type :

Journal articles

Domain :

Life Sciences [q-bio] / Ecology, environment

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Submitted on : Thursday, December 3, 2020 - 12:22:52 PM
Last modification on : Thursday, September 16, 2021 - 3:46:27 AM
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Interaction of climate change with effects of conspecific and heterospecific density on reproduction

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