The three regimes of spatial recovery

An enduring challenge for ecology is identifying the drivers of ecosystem and population stability. In a spatially explicit context, key features to consider are landscape spatial structure, local interactions, and dispersal. Substantial work has been done on each of these features as a driver of st...

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Veröffentlicht in:Ecology (Durham) 2019-02, Vol.100 (2), p.1-12
Hauptverfasser: Zelnik, Yuval R., Arnoldi, Jean-François, Loreau, Michel
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container_title Ecology (Durham)
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creator Zelnik, Yuval R.
Arnoldi, Jean-François
Loreau, Michel
description An enduring challenge for ecology is identifying the drivers of ecosystem and population stability. In a spatially explicit context, key features to consider are landscape spatial structure, local interactions, and dispersal. Substantial work has been done on each of these features as a driver of stability, but little is known on the interplay between them. Missing has been a more integrative approach, able to map and identify different dynamical regimes, predicting a system’s response to perturbations. Here we first consider a simple scenario, i.e., the recovery of a homogeneous metapopulation from a single localized pulse disturbance. The analysis of this scenario reveals three fundamental recovery regimes: Isolated Regime when dispersal is not significant, Rescue Regime when dispersal mediates recovery, and Mixing Regime when perturbations spread throughout the system. Despite its simplicity, our approach leads to remarkably general predictions. These include the qualitatively different outcomes of various scenarios of habitat fragmentation, the surprising benefits of local extinctions on population persistence at the transition between regimes, and the productivity shifts of metacommunities in a changing environment. This study thus provides context to known results and insight into future directions of research.
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subjects Biodiversity and Ecology
Changing environments
Concepts & Synthesis
CONCEPTS & SYNTHESIS: EMPHASIZING NEW IDEAS TO STIMULATE RESEARCH IN ECOLOGY
Dispersal
Dispersion
ecological stability
Ecology
Ecosystem
Ecosystems
Environmental changes
Environmental Sciences
Habitat fragmentation
landscapes
local extinctions
metacommunity
metapopulation
Metapopulations
mixing
Models, Biological
Population Dynamics
Population stability
prediction
Predictions
pulse disturbance
Recovery
Stability
title The three regimes of spatial recovery
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