Population recovery highlights spatial organization dynamics in adult leopards
Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female...
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| Vydáno v: | Journal of zoology (1987) Ročník 299; číslo 3; s. 153 - 162 |
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Blackwell Publishing Ltd
01.07.2016
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| Abstract | Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female home range size and overlap are set by habitat productivity and remain stable under increasing population density, whereas male home range size and overlap decrease with increased mate competition. An alternative dispersal‐regulated strategy predicts that females relinquish part of their home range to philopatric daughters and form matrilineal clusters, while adult male spacing is stable with density‐dependent subadult male emigration rates. We used 11 years of telemetry data to assess the response of adult leopard Panthera pardus spacing following the release of harvest pressure. Female annual home ranges and core areas were smaller than in males. Intersexual overlap was larger than intra‐sexual overlap in males or in females. As leopard density increased, female home range size and inter‐annual fidelity in home range use decreased, and females formed matrilineal kin clusters. In contrast, male leopards maintained large home ranges, and did not track female home range contraction. Spacing dynamics in adult leopards was consistent with dispersal‐regulated strategies, and did not support a classical dual reproductive strategy. Our study suggests possible hidden lag effects of harvest disturbance on spacing dynamics that are not necessarily apparent when only assessing demographic recovery of harvested populations.
Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. We used 11 years of telemetry data to assess the response of spacing patterns in adult leopards to the release of harvest pressure. Under increasing population density, females relinquished part of their home range to philopatric daughters to form matrilineal clusters, whereas males maintained stable large home ranges in order to maximize mating opportunities. The spacing dynamics in adult leopards was consistent with sex‐specific, dispersal‐regulated reproductive strategies. |
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| AbstractList | Polygynous species follow sex-specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex-specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female home range size and overlap are set by habitat productivity and remain stable under increasing population density, whereas male home range size and overlap decrease with increased mate competition. An alternative dispersal-regulated strategy predicts that females relinquish part of their home range to philopatric daughters and form matrilineal clusters, while adult male spacing is stable with density-dependent subadult male emigration rates. We used 11 years of telemetry data to assess the response of adult leopard Panthera pardus spacing following the release of harvest pressure. Female annual home ranges and core areas were smaller than in males. Intersexual overlap was larger than intra-sexual overlap in males or in females. As leopard density increased, female home range size and inter-annual fidelity in home range use decreased, and females formed matrilineal kin clusters. In contrast, male leopards maintained large home ranges, and did not track female home range contraction. Spacing dynamics in adult leopards was consistent with dispersal-regulated strategies, and did not support a classical dual reproductive strategy. Our study suggests possible hidden lag effects of harvest disturbance on spacing dynamics that are not necessarily apparent when only assessing demographic recovery of harvested populations. Polygynous species follow sex-specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex-specific responses in spacing patterns. We used 11 years of telemetry data to assess the response of spacing patterns in adult leopards to the release of harvest pressure. Under increasing population density, females relinquished part of their home range to philopatric daughters to form matrilineal clusters, whereas males maintained stable large home ranges in order to maximize mating opportunities. The spacing dynamics in adult leopards was consistent with sex-specific, dispersal-regulated reproductive strategies. Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female home range size and overlap are set by habitat productivity and remain stable under increasing population density, whereas male home range size and overlap decrease with increased mate competition. An alternative dispersal‐regulated strategy predicts that females relinquish part of their home range to philopatric daughters and form matrilineal clusters, while adult male spacing is stable with density‐dependent subadult male emigration rates. We used 11 years of telemetry data to assess the response of adult leopard Panthera pardus spacing following the release of harvest pressure. Female annual home ranges and core areas were smaller than in males. Intersexual overlap was larger than intra‐sexual overlap in males or in females. As leopard density increased, female home range size and inter‐annual fidelity in home range use decreased, and females formed matrilineal kin clusters. In contrast, male leopards maintained large home ranges, and did not track female home range contraction. Spacing dynamics in adult leopards was consistent with dispersal‐regulated strategies, and did not support a classical dual reproductive strategy. Our study suggests possible hidden lag effects of harvest disturbance on spacing dynamics that are not necessarily apparent when only assessing demographic recovery of harvested populations. Polygynous species follow sex-specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex-specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female home range size and overlap are set by habitat productivity and remain stable under increasing population density, whereas male home range size and overlap decrease with increased mate competition. An alternative dispersal-regulated strategy predicts that females relinquish part of their home range to philopatric daughters and form matrilineal clusters, while adult male spacing is stable with density-dependent subadult male emigration rates. We used 11 years of telemetry data to assess the response of adult leopard Panthera pardus spacing following the release of harvest pressure. Female annual home ranges and core areas were smaller than in males. Intersexual overlap was larger than intra-sexual overlap in males or in females. As leopard density increased, female home range size and inter-annual fidelity in home range use decreased, and females formed matrilineal kin clusters. In contrast, male leopards maintained large home ranges, and did not track female home range contraction. Spacing dynamics in adult leopards was consistent with dispersal-regulated strategies, and did not support a classical dual reproductive strategy. Our study suggests possible hidden lag effects of harvest disturbance on spacing dynamics that are not necessarily apparent when only assessing demographic recovery of harvested populations. Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. A classical dual reproductive strategy hypothesis posits that female home range size and overlap are set by habitat productivity and remain stable under increasing population density, whereas male home range size and overlap decrease with increased mate competition. An alternative dispersal‐regulated strategy predicts that females relinquish part of their home range to philopatric daughters and form matrilineal clusters, while adult male spacing is stable with density‐dependent subadult male emigration rates. We used 11 years of telemetry data to assess the response of adult leopard Panthera pardus spacing following the release of harvest pressure. Female annual home ranges and core areas were smaller than in males. Intersexual overlap was larger than intra‐sexual overlap in males or in females. As leopard density increased, female home range size and inter‐annual fidelity in home range use decreased, and females formed matrilineal kin clusters. In contrast, male leopards maintained large home ranges, and did not track female home range contraction. Spacing dynamics in adult leopards was consistent with dispersal‐regulated strategies, and did not support a classical dual reproductive strategy. Our study suggests possible hidden lag effects of harvest disturbance on spacing dynamics that are not necessarily apparent when only assessing demographic recovery of harvested populations. Polygynous species follow sex‐specific spacing patterns to maximize reproductive success, and changes in population density under otherwise stable environmental conditions likely provoke sex‐specific responses in spacing patterns. We used 11 years of telemetry data to assess the response of spacing patterns in adult leopards to the release of harvest pressure. Under increasing population density, females relinquished part of their home range to philopatric daughters to form matrilineal clusters, whereas males maintained stable large home ranges in order to maximize mating opportunities. The spacing dynamics in adult leopards was consistent with sex‐specific, dispersal‐regulated reproductive strategies. |
| Author | Balme, G. A. Robinson, H. S. Slotow, R. Dickerson, T. Fattebert, J. Hunter, L. T. B. |
| Author_xml | – sequence: 1 givenname: J. surname: Fattebert fullname: Fattebert, J. email: julien.fattebert@gmail.com organization: Panthera, New York, NY, USA – sequence: 2 givenname: G. A. surname: Balme fullname: Balme, G. A. organization: Panthera, New York, NY, USA – sequence: 3 givenname: H. S. surname: Robinson fullname: Robinson, H. S. organization: Panthera, New York, NY, USA – sequence: 4 givenname: T. surname: Dickerson fullname: Dickerson, T. organization: Panthera, NY, New York, USA – sequence: 5 givenname: R. surname: Slotow fullname: Slotow, R. organization: School of Life Sciences, University of KwaZulu-Natal, Durban, South Africa – sequence: 6 givenname: L. T. B. surname: Hunter fullname: Hunter, L. T. B. organization: Panthera, New York, NY, USA |
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| Notes | National Research Foundation - No. FA 2004050400038 ark:/67375/WNG-8QXK4M3V-9 University of KwaZulu-Natal Gay Langmuir Bursary Panthera, Albert and Didy Hartog istex:79E038F1B6FB5F1C8F30DF1F1B77D948BB73DC4A Figure S1. Leopard density and prey biomass estimates, Phinda Private Game Reserve, South Africa, 2002-2012. Table S1. Summary statistics of consecutive seasonal home range and core area size of adult females and adult male leopards in Phinda Private Game Reserve, South Africa, 2002-2012. Table S2. Summary statistics of annual home range size estimated using the minimum convex polygon (MCP) method in adult female and male leopards, Phinda Private Game Reserve, South Africa, 2002-2012. Table S3. Summary statistics of the inter-individual annual home range percent area overlap in adult female and male leopards, Phinda Private Game Reserve, South Africa, 2002-2012. Table S4. Summary statistics of the intra-individual annual home range percent area overlap in adult female and male leopards, Phinda Private Game Reserve, South Africa, 2002-2012. Table S5. Annual number of VHF and GPS telemetry relocations collected from adult leopards sampled in Phinda Game Reserve, South Africa, 2002-2012. Stichting Timbo Foundation ArticleID:JZO12344 ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14 content type line 23 |
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| SubjectTerms | Animal populations Animal reproduction density-dependence dual reproductive strategy Emigration Environmental conditions Females home range Panthera pardus Population density Population growth Reproduction South Africa Telemetry Wildcats Wildlife conservation |
| Title | Population recovery highlights spatial organization dynamics in adult leopards |
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