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Limits to post‐fire vegetation recovery under climate change

doi: 10.1111/pce.14176
pmid: 34453442
handle: 1959.4/unsworks_78964 , 11343/298995 , 1959.7/uws:62879 , 10182/14593
doi: 10.1111/pce.14176
pmid: 34453442
handle: 1959.4/unsworks_78964 , 11343/298995 , 1959.7/uws:62879 , 10182/14593
AbstractRecord‐breaking fire seasons in many regions across the globe raise important questions about plant community responses to shifting fire regimes (i.e., changing fire frequency, severity and seasonality). Here, we examine the impacts of climate‐driven shifts in fire regimes on vegetation communities, and likely responses to fire coinciding with severe drought, heatwaves and/or insect outbreaks. We present scenario‐based conceptual models on how overlapping disturbance events and shifting fire regimes interact differently to limit post‐fire resprouting and recruitment capacity. We demonstrate that, although many communities will remain resilient to changing fire regimes in the short‐term, longer‐term changes to vegetation structure, demography and species composition are likely, with a range of subsequent effects on ecosystem function. Resprouting species are likely to be most resilient to changing fire regimes. However, even these species are susceptible if exposed to repeated short‐interval fire in combination with other stressors. Post‐fire recruitment is highly vulnerable to increased fire frequency, particularly as climatic limitations on propagule availability intensify. Prediction of community responses to fire under climate change will be greatly improved by addressing knowledge gaps on how overlapping disturbances and climate change‐induced shifts in fire regime affect post‐fire resprouting, recruitment, growth rates, and species‐level adaptation capacity.
- La Trobe University Australia
- Southwest University of Science and Technology China (People's Republic of)
- Western Sydney University Australia
- Natural Resources Canada Canada
- UNSW Sydney Australia
570, 550, 410205 - Fire ecology, Climate Change, anzsrc-for: 07 Agricultural and Veterinary Sciences, Germination, Wildfire, Obligate seeding, wildfire, Heat stress, Fires, heat stress, anzsrc-for: 3103 Ecology, Climate change, Herbivory, anzsrc-for: 31 Biological Sciences, Ecosystem, Plant Physiological Phenomena, obligate seeding, 13 Climate Action, herbivory, 3103 Ecology, Resprouting, mortality, resprouting, anzsrc-for: 3108 Plant biology, climate change, germination, anzsrc-for: 06 Biological Sciences, ANZSRC::3108 Plant biology, 190102 - Ecosystem adaptation to climate change, 31 Biological Sciences
570, 550, 410205 - Fire ecology, Climate Change, anzsrc-for: 07 Agricultural and Veterinary Sciences, Germination, Wildfire, Obligate seeding, wildfire, Heat stress, Fires, heat stress, anzsrc-for: 3103 Ecology, Climate change, Herbivory, anzsrc-for: 31 Biological Sciences, Ecosystem, Plant Physiological Phenomena, obligate seeding, 13 Climate Action, herbivory, 3103 Ecology, Resprouting, mortality, resprouting, anzsrc-for: 3108 Plant biology, climate change, germination, anzsrc-for: 06 Biological Sciences, ANZSRC::3108 Plant biology, 190102 - Ecosystem adaptation to climate change, 31 Biological Sciences
