Managing interacting disturbances: Lessons from a case study in Australian forests

Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can affect ecological processes, biodiversity and ecosystem condition; yet few ecosystems have been subject to multiple studies of the effects of...

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Published inThe Journal of applied ecology Vol. 57; no. 9; pp. 1711 - 1716
Main Authors Lindenmayer, David B., Foster, Claire N., Westgate, Martin J., Scheele, Ben C., Blanchard, Wade, Leverkus, Alexandro B.
Format Journal Article
LanguageEnglish
Published Oxford Blackwell Publishing Ltd 01.09.2020
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ISSN0021-8901
1365-2664
DOI10.1111/1365-2664.13696

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Abstract Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can affect ecological processes, biodiversity and ecosystem condition; yet few ecosystems have been subject to multiple studies of the effects of interacting disturbances. This limits the understanding of ways to mitigate the impacts of interacting disturbances. Over the past 37 years, we have completed a range of studies of interacting effects in the Mountain Ash Eucalyptus regnans forests of south‐eastern Australia. Here we summarize evidence for interacting disturbances in this ecosystem. This includes evidence of linked or coupled disturbances (termed interaction chains; sensu Foster et al., Global Change Biology, 22, 2016, 1325) between logging and subsequent fire severity. We also describe effects of other interacting disturbances such as those resulting from post‐fire (salvage) logging as well as landscape‐level, spatio‐temporal changes in forest cover associated with logging and wildfires. Policy implications. Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective. Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective.
AbstractList Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can affect ecological processes, biodiversity and ecosystem condition; yet few ecosystems have been subject to multiple studies of the effects of interacting disturbances. This limits the understanding of ways to mitigate the impacts of interacting disturbances.Over the past 37 years, we have completed a range of studies of interacting effects in the Mountain Ash Eucalyptus regnans forests of south‐eastern Australia. Here we summarize evidence for interacting disturbances in this ecosystem. This includes evidence of linked or coupled disturbances (termed interaction chains; sensu Foster et al., Global Change Biology, 22, 2016, 1325) between logging and subsequent fire severity. We also describe effects of other interacting disturbances such as those resulting from post‐fire (salvage) logging as well as landscape‐level, spatio‐temporal changes in forest cover associated with logging and wildfires.Policy implications. Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective.
Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can affect ecological processes, biodiversity and ecosystem condition; yet few ecosystems have been subject to multiple studies of the effects of interacting disturbances. This limits the understanding of ways to mitigate the impacts of interacting disturbances. Over the past 37 years, we have completed a range of studies of interacting effects in the Mountain Ash Eucalyptus regnans forests of south‐eastern Australia. Here we summarize evidence for interacting disturbances in this ecosystem. This includes evidence of linked or coupled disturbances (termed interaction chains; sensu Foster et al., Global Change Biology, 22, 2016, 1325) between logging and subsequent fire severity. We also describe effects of other interacting disturbances such as those resulting from post‐fire (salvage) logging as well as landscape‐level, spatio‐temporal changes in forest cover associated with logging and wildfires. Policy implications. Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective. Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective.
Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can affect ecological processes, biodiversity and ecosystem condition; yet few ecosystems have been subject to multiple studies of the effects of interacting disturbances. This limits the understanding of ways to mitigate the impacts of interacting disturbances. Over the past 37 years, we have completed a range of studies of interacting effects in the Mountain Ash Eucalyptus regnans forests of south‐eastern Australia. Here we summarize evidence for interacting disturbances in this ecosystem. This includes evidence of linked or coupled disturbances (termed interaction chains; sensu Foster et al., Global Change Biology , 22, 2016, 1325) between logging and subsequent fire severity. We also describe effects of other interacting disturbances such as those resulting from post‐fire (salvage) logging as well as landscape‐level, spatio‐temporal changes in forest cover associated with logging and wildfires. Policy implications . Insights from research in Mountain Ash forests provide broader lessons for managing interacting disturbances in forest ecosystems. These include the importance of cataloguing and mapping multiple disturbances in both space and time and developing conceptual models of ecosystem dynamics and ecological processes. Where there is a high risk of interactions between disturbances, appropriate management actions could include: (a) eliminating some drivers or re‐assessing levels of human extraction of resources, (b) reducing the spatial and/or temporal overlap of drivers and (c) identifying leverage points where management actions are most likely to be effective.
Author Lindenmayer, David B.
Scheele, Ben C.
Leverkus, Alexandro B.
Westgate, Martin J.
Foster, Claire N.
Blanchard, Wade
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Snippet Ecosystems are shaped by a range of drivers including human and natural disturbances. They also may be subject to interactions between disturbances which can...
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SubjectTerms applied ecology
Ash
Ashes
Australia
Biodiversity
case studies
clearcutting
Disturbances
Ecosystem dynamics
Ecosystem management
Ecosystems
Environment models
Eucalyptus
Eucalyptus regnans
fire severity
Forest ecosystems
Forest management
Forests
global change
humans
interaction chains
issues and policy
linked disturbances
Logging
Mapping
Mountain Ash forests
Mountain forests
Mountains
Natural disturbance
risk
salvage logging
space and time
Terrestrial ecosystems
wildfire
Wildfires
Title Managing interacting disturbances: Lessons from a case study in Australian forests
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2F1365-2664.13696
https://www.proquest.com/docview/2439970423
https://www.proquest.com/docview/2524305020
Volume 57
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