Climate change vulnerability higher in arctic than alpine bumblebees

Arctic and alpine species are expected to be particularly vulnerable to climate change as they inhabit areas of extreme climates. To understand how such species may respond, we compared two groups of bumblebees that specialise in arctic (Alpinobombus) and alpine (Mendacibombus) biomes. These bumbleb...

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Main Authors: Lee, Calvin K.F., Williams, Paul H., Pearson, Richard G.
Format: Article in Journal/Newspaper
Language:unknown
Published: eScholarship, University of California 2019
Subjects:
Online Access:https://escholarship.org/uc/item/8c10f5xm
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spelling ftcdlib:oai:escholarship.org/ark:/13030/qt8c10f5xm 2023-05-15T13:20:27+02:00 Climate change vulnerability higher in arctic than alpine bumblebees Lee, Calvin K.F. Williams, Paul H. Pearson, Richard G. 2019-01-01 application/pdf https://escholarship.org/uc/item/8c10f5xm unknown eScholarship, University of California qt8c10f5xm https://escholarship.org/uc/item/8c10f5xm CC-BY CC-BY Frontiers of Biogeography, vol 11, iss 4 alpine Alpinobombus arctic bumblebees climate change climate extremes Mendacibombus species distribution model article 2019 ftcdlib 2020-01-03T23:53:27Z Arctic and alpine species are expected to be particularly vulnerable to climate change as they inhabit areas of extreme climates. To understand how such species may respond, we compared two groups of bumblebees that specialise in arctic (Alpinobombus) and alpine (Mendacibombus) biomes. These bumblebee species are all extreme cold specialists with similar ecological niches, making them good candidate species for comparison of how groups inhabiting different biomes may respond to climate change. Using an ensemble of species distribution models for eighteen bumblebee species (ten Mendacibombus; eight Alpinobombus), we estimated their current distributions using selected climate variables. The models were used to predict future distributions based on two future climate change scenarios for 2040-2060 and three dispersal scenarios. We found significant differences between the predicted relative area changes of the two groups under all combinations of climate change and dispersal scenarios. Alpinobombus species were consistently projected to have larger distribution declines, while the responses of Mendacibombus species were much more varied, with some Mendacibombus species projected to have distribution expansions provided that they are able to disperse to occupy new territory. From these results, we show that arctic species would be much more likely than alpine species to experience distribution declines under climate change. Article in Journal/Newspaper ALPINOBOMBUS Arctic Climate change University of California: eScholarship Arctic
institution Open Polar
collection University of California: eScholarship
op_collection_id ftcdlib
language unknown
topic alpine
Alpinobombus
arctic
bumblebees
climate change
climate extremes
Mendacibombus
species distribution model
spellingShingle alpine
Alpinobombus
arctic
bumblebees
climate change
climate extremes
Mendacibombus
species distribution model
Lee, Calvin K.F.
Williams, Paul H.
Pearson, Richard G.
Climate change vulnerability higher in arctic than alpine bumblebees
topic_facet alpine
Alpinobombus
arctic
bumblebees
climate change
climate extremes
Mendacibombus
species distribution model
description Arctic and alpine species are expected to be particularly vulnerable to climate change as they inhabit areas of extreme climates. To understand how such species may respond, we compared two groups of bumblebees that specialise in arctic (Alpinobombus) and alpine (Mendacibombus) biomes. These bumblebee species are all extreme cold specialists with similar ecological niches, making them good candidate species for comparison of how groups inhabiting different biomes may respond to climate change. Using an ensemble of species distribution models for eighteen bumblebee species (ten Mendacibombus; eight Alpinobombus), we estimated their current distributions using selected climate variables. The models were used to predict future distributions based on two future climate change scenarios for 2040-2060 and three dispersal scenarios. We found significant differences between the predicted relative area changes of the two groups under all combinations of climate change and dispersal scenarios. Alpinobombus species were consistently projected to have larger distribution declines, while the responses of Mendacibombus species were much more varied, with some Mendacibombus species projected to have distribution expansions provided that they are able to disperse to occupy new territory. From these results, we show that arctic species would be much more likely than alpine species to experience distribution declines under climate change.
format Article in Journal/Newspaper
author Lee, Calvin K.F.
Williams, Paul H.
Pearson, Richard G.
author_facet Lee, Calvin K.F.
Williams, Paul H.
Pearson, Richard G.
author_sort Lee, Calvin K.F.
title Climate change vulnerability higher in arctic than alpine bumblebees
title_short Climate change vulnerability higher in arctic than alpine bumblebees
title_full Climate change vulnerability higher in arctic than alpine bumblebees
title_fullStr Climate change vulnerability higher in arctic than alpine bumblebees
title_full_unstemmed Climate change vulnerability higher in arctic than alpine bumblebees
title_sort climate change vulnerability higher in arctic than alpine bumblebees
publisher eScholarship, University of California
publishDate 2019
url https://escholarship.org/uc/item/8c10f5xm
geographic Arctic
geographic_facet Arctic
genre ALPINOBOMBUS
Arctic
Climate change
genre_facet ALPINOBOMBUS
Arctic
Climate change
op_source Frontiers of Biogeography, vol 11, iss 4
op_relation qt8c10f5xm
https://escholarship.org/uc/item/8c10f5xm
op_rights CC-BY
op_rightsnorm CC-BY
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