Continental risk assessment for understudied taxa post‐catastrophic wildfire indicates severe impacts on the Australian bee fauna

The 2019–2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly...

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Published inGlobal change biology Vol. 27; no. 24; pp. 6551 - 6567
Main Authors Dorey, James B., Rebola, Celina M., Davies, Olivia K., Prendergast, Kit S., Parslow, Ben A., Hogendoorn, Katja, Leijs, Remko, Hearn, Lucas R., Leitch, Emrys J., O’Reilly, Robert L., Marsh, Jessica, Woinarski, John C. Z., Caddy‐Retalic, Stefan
Format Journal Article
LanguageEnglish
Published Oxford Blackwell Publishing Ltd 01.12.2021
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Online AccessGet full text
ISSN1354-1013
1365-2486
1365-2486
DOI10.1111/gcb.15879

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Abstract The 2019–2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly to implement priority remedial management actions for the most‐affected species to help prevent extinctions. To date, priority responses have been biased towards high‐profile taxa with substantial information bases. Here, we demonstrate that sufficient data are available to model the extinction risk for many less well‐known species, which could inform much broader and more effective ecological disaster responses. Using publicly available collection and GIS datasets, combined with life‐history data, we modelled the extinction risk from the 2019–2020 catastrophic Australian wildfires for 553 Australian native bee species (33% of all described Australian bee taxa). We suggest that two species are now eligible for listing as Endangered and nine are eligible for listing as Vulnerable under IUCN criteria, on the basis of fire overlap, intensity, frequency, and life‐history traits: this tally far exceeds the three Australian bee species listed as threatened prior to the wildfire. We demonstrate how to undertake a wide‐scale assessment of wildfire impact on a poorly understood group to help to focus surveys and recovery efforts. We also provide the methods and the script required to make similar assessments for other taxa or in other regions. The novel methods, outcomes, and implications are from analyses of the Black Summer wildfires on Australia's native bees. IUCN and EPBC categories are (L) Least Concern, (V) Vulnerable, (E) Endangered, and (CE) Critically Endangered. Silhouettes were either sourced from www.phylopic.org or created by the authors.
AbstractList The 2019–2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly to implement priority remedial management actions for the most‐affected species to help prevent extinctions. To date, priority responses have been biased towards high‐profile taxa with substantial information bases. Here, we demonstrate that sufficient data are available to model the extinction risk for many less well‐known species, which could inform much broader and more effective ecological disaster responses. Using publicly available collection and GIS datasets, combined with life‐history data, we modelled the extinction risk from the 2019–2020 catastrophic Australian wildfires for 553 Australian native bee species (33% of all described Australian bee taxa). We suggest that two species are now eligible for listing as Endangered and nine are eligible for listing as Vulnerable under IUCN criteria, on the basis of fire overlap, intensity, frequency, and life‐history traits: this tally far exceeds the three Australian bee species listed as threatened prior to the wildfire. We demonstrate how to undertake a wide‐scale assessment of wildfire impact on a poorly understood group to help to focus surveys and recovery efforts. We also provide the methods and the script required to make similar assessments for other taxa or in other regions.
The 2019–2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly to implement priority remedial management actions for the most‐affected species to help prevent extinctions. To date, priority responses have been biased towards high‐profile taxa with substantial information bases. Here, we demonstrate that sufficient data are available to model the extinction risk for many less well‐known species, which could inform much broader and more effective ecological disaster responses. Using publicly available collection and GIS datasets, combined with life‐history data, we modelled the extinction risk from the 2019–2020 catastrophic Australian wildfires for 553 Australian native bee species (33% of all described Australian bee taxa). We suggest that two species are now eligible for listing as Endangered and nine are eligible for listing as Vulnerable under IUCN criteria, on the basis of fire overlap, intensity, frequency, and life‐history traits: this tally far exceeds the three Australian bee species listed as threatened prior to the wildfire. We demonstrate how to undertake a wide‐scale assessment of wildfire impact on a poorly understood group to help to focus surveys and recovery efforts. We also provide the methods and the script required to make similar assessments for other taxa or in other regions. The novel methods, outcomes, and implications are from analyses of the Black Summer wildfires on Australia's native bees. IUCN and EPBC categories are (L) Least Concern, (V) Vulnerable, (E) Endangered, and (CE) Critically Endangered. Silhouettes were either sourced from www.phylopic.org or created by the authors.
The 2019-2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly to implement priority remedial management actions for the most-affected species to help prevent extinctions. To date, priority responses have been biased towards high-profile taxa with substantial information bases. Here, we demonstrate that sufficient data are available to model the extinction risk for many less well-known species, which could inform much broader and more effective ecological disaster responses. Using publicly available collection and GIS datasets, combined with life-history data, we modelled the extinction risk from the 2019-2020 catastrophic Australian wildfires for 553 Australian native bee species (33% of all described Australian bee taxa). We suggest that two species are now eligible for listing as Endangered and nine are eligible for listing as Vulnerable under IUCN criteria, on the basis of fire overlap, intensity, frequency, and life-history traits: this tally far exceeds the three Australian bee species listed as threatened prior to the wildfire. We demonstrate how to undertake a wide-scale assessment of wildfire impact on a poorly understood group to help to focus surveys and recovery efforts. We also provide the methods and the script required to make similar assessments for other taxa or in other regions.The 2019-2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden and marked reduction in population size for many species. In such circumstances, there is a need for conservation managers to respond rapidly to implement priority remedial management actions for the most-affected species to help prevent extinctions. To date, priority responses have been biased towards high-profile taxa with substantial information bases. Here, we demonstrate that sufficient data are available to model the extinction risk for many less well-known species, which could inform much broader and more effective ecological disaster responses. Using publicly available collection and GIS datasets, combined with life-history data, we modelled the extinction risk from the 2019-2020 catastrophic Australian wildfires for 553 Australian native bee species (33% of all described Australian bee taxa). We suggest that two species are now eligible for listing as Endangered and nine are eligible for listing as Vulnerable under IUCN criteria, on the basis of fire overlap, intensity, frequency, and life-history traits: this tally far exceeds the three Australian bee species listed as threatened prior to the wildfire. We demonstrate how to undertake a wide-scale assessment of wildfire impact on a poorly understood group to help to focus surveys and recovery efforts. We also provide the methods and the script required to make similar assessments for other taxa or in other regions.
Author Leitch, Emrys J.
O’Reilly, Robert L.
Leijs, Remko
Marsh, Jessica
Dorey, James B.
Prendergast, Kit S.
Woinarski, John C. Z.
Hearn, Lucas R.
Caddy‐Retalic, Stefan
Parslow, Ben A.
Davies, Olivia K.
Rebola, Celina M.
Hogendoorn, Katja
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Copyright 2021 John Wiley & Sons Ltd
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Notes Funding information
This research was funded by the Playford Trust PhD Scholarship to JBD and OKD and the AJ and IM Naylon PhD Scholarship to JBD. This project was also supported by the Australian Government Research Training Program Scholarship to OKD, LRH, and RLO’R.
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Snippet The 2019–2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden...
The 2019-2020 Australian Black Summer wildfires demonstrated that single events can have widespread and catastrophic impacts on biodiversity, causing a sudden...
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SubjectTerms Bees
Biodiversity
bushfire
Catastrophic events
climate change
data collection
Disaster management
disturbance
Ecological effects
Endangered & extinct species
Endangered species
extinction
extinction risk
fauna
Geographical information systems
global change
Indigenous species
invertebrates
life history
Meta-analysis
Population number
population size
Rare species
risk
Risk assessment
Species checklists
Species extinction
Surveys
Taxa
Threatened species
Wildfires
Title Continental risk assessment for understudied taxa post‐catastrophic wildfire indicates severe impacts on the Australian bee fauna
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fgcb.15879
https://www.proquest.com/docview/2596227539
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Volume 27
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