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Aridity and land use negatively influence a dominant species' upper critical thermal limits

Understanding the physiological tolerances of ectotherms, such as thermal limits, is important in predicting biotic responses to climate change. However, it is even more important to examine these impacts alongside those from other landscape changes: such as the reduction of native vegetation cover,...

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Published in:PeerJ (San Francisco, CA) CA), 2019, Vol.6, p.e6252
Main Authors: Andrew, Nigel R, Miller, Cara, Hall, Graham, Hemmings, Zac, Oliver, Ian
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Miller, Cara
Hall, Graham
Hemmings, Zac
Oliver, Ian
description Understanding the physiological tolerances of ectotherms, such as thermal limits, is important in predicting biotic responses to climate change. However, it is even more important to examine these impacts alongside those from other landscape changes: such as the reduction of native vegetation cover, landscape fragmentation and changes in land use intensity (LUI). Here, we integrate the observed thermal limits of the dominant and ubiquitous meat ant across climate (aridity), land cover and land use gradients spanning 270 km in length and 840 m in altitude across northern New South Wales, Australia. Meat ants were chosen for study as they are ecosystem engineers and changes in their populations may result in a cascade of changes in the populations of other species. When we assessed critical thermal maximum temperatures (CT ) of meat ants in relation to the environmental gradients we found little influence of climate (aridity) but that CT decreased as LUI increased. We found no overall correlation between CT and CT . We did however find that tolerance to warming was lower for ants sampled from more arid locations. Our findings suggest that as LUI and aridification increase, the physiological resilience of will decline. A reduction in physiological resilience may lead to a reduction in the ecosystem service provision that these populations provide throughout their distribution.
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subjects Climate change
Climate Change Biology
Ecology
Entomology
Formicidae
Land cover
Land use
Landscape adaptation
Thermal stress
Zoology
title Aridity and land use negatively influence a dominant species' upper critical thermal limits
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