Wildlife Society Bulletin · 2019 · 43 citations · 39 references
Natural ResourcesConservation BiologyEcologyHabitat ConservationSpecies ConservationWildlife ManagementEndangered Species ActEndangered Species ManagementEndangered Species ProtectionHabitat ProtectionThreatened Species ManagementWildlife ConservationClimate Change Impacts On PopulationsConservation Planning Under Climate ChangeCritical Habitat ProtectionEnvironmental Niche ModelingHabitat Niche ModelingNiche ModelingProtected Species ManagementThreatened Species Conservation
ABSTRACT As climate conditions continue to shift, species assemblages and composition within ecological communities may be reshuffled in unpredictable ways. Some habitat types may cease to exist while others may expand in size; protecting ecosystems and species in their current locations will become increasingly difficult. Threatened and endangered species are likely to be disproportionately affected by climate change because they are often habitat specialists and relatively rare. In the United States, the 1973 Endangered Species Act has prevented the extinction of many species. The identification and conservation of critical habitat is an important tool for species preservation. But how do we designate and preserve habitat for protected species when we are unsure about future habitat conditions? We address this question based upon the concept of managing for anticipated change, rather than focusing on the maintenance of existing conditions. We used an ecological niche modeling program (MaxEnt) to model current and future climatic niche for an endangered mammal endemic to southern California, USA; the Stephens’ kangaroo rat (SKR, Dipodomys stephensi ). Our results indicate that the climatic niche of SKR was governed primarily by precipitation during the dry season, precipitation seasonality, annual mean temperature, and mean summer temperature. Projecting current species‐presence relationships to different scenarios predicted for the future revealed substantial loss in climatic niche with increased emission rates. Areas of future suitable climatic niche were evaluated in relation to land ownership and identified as potential reserves or translocation sites, which can aid in conservation planning for this species. Additionally, species vulnerability assessments and a climate‐change analysis tool were utilized to demonstrate how overall understanding of climate change effects can be enhanced. Information presented here can serve as guiding principles for the inclusion of climate change considerations into management plans, and can better inform overall decision‐making related to endangered species management. © 2019 The Wildlife Society.
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Biodiversity hotspots for conservation priorities
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