Variation in anthropogenic tolerance alters dispersal capacity of a large carnivore

Abstract Population connectivity is essential for long-term species persistence, and a major challenge to the conservation of isolated wildlife populations globally. Understanding how individual variation in movement behavior scales up to affect population connectivity across human-dominated landscapes is essential for the development and implementation of effective conservation and management plans, particularly for wide-ranging species with potential for human-wildlife conflict. Based on the observed movement behavior of 84 pumas ( Puma concolor ) in the Santa Cruz Mountains, we characterized individual variation in tolerance towards anthropogenic presence and used EcoScape, a novel functional habitat connectivity algorithm, to predict how individual differences in behavior affect the connectivity and dispersal capacity of an at-risk carnivore population. We found that individual differences in human tolerance have a greater effect than sex-based differences on modeled ability to disperse through anthropogenic landscapes, and strongly influence connectivity. This work highlights how individual variation in animal responses to human disturbance affects dispersal capacity, and offers a novel approach to predicting the persistence of metapopulations in the context of rapid global change.

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Publication Details

Journal
Scientific Reports
Published
2026-09-25
DOI
https://doi.org/10.1038/s41598-026-57851-1
Primary Topic
Wildlife Ecology and Conservation
Type
article
Field-Weighted Citation Impact
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article

Variation in anthropogenic tolerance alters dispersal capacity of a large carnivore

Fernando Nájera, Christopher C. Wilmers, Luca de Alfaro, John J. Morgan et al.
Scientific Reports
Wildlife Ecology and Conservation
article

Variation in anthropogenic tolerance alters dispersal capacity of a large carnivore

Fernando Nájera, Christopher C. Wilmers, Luca de Alfaro, John J. Morgan, K. Whitney Hansen, Natalia Ocampo-Peñuela
article en

Abstract

Abstract Population connectivity is essential for long-term species persistence, and a major challenge to the conservation of isolated wildlife populations globally. Understanding how individual variation in movement behavior scales up to affect population connectivity across human-dominated landscapes is essential for the development and implementation of effective conservation and management plans, particularly for wide-ranging species with potential for human-wildlife conflict. Based on the observed movement behavior of 84 pumas ( Puma concolor ) in the Santa Cruz Mountains, we characterized individual variation in tolerance towards anthropogenic presence and used EcoScape, a novel functional habitat connectivity algorithm, to predict how individual differences in behavior affect the connectivity and dispersal capacity of an at-risk carnivore population. We found that individual differences in human tolerance have a greater effect than sex-based differences on modeled ability to disperse through anthropogenic landscapes, and strongly influence connectivity. This work highlights how individual variation in animal responses to human disturbance affects dispersal capacity, and offers a novel approach to predicting the persistence of metapopulations in the context of rapid global change.

Scientific ReportsVol. 16(1)
Texas A&M University – Kingsville (US), University of California, Santa Cruz (US)
Life in Land
Openalex Percentile: Top 11%
Wildlife Ecology and Conservation
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