Abstract
Prediction of ecosystem response to global environmental change is a pressing scientific challenge of major societal relevance. Many ecosystems display nonlinear responses to environmental change, and may even undergo practically irreversible ‘regime shifts’ that initiate ecosystem collapse. Recently, early warning signals based on spatiotemporal metrics have been proposed for the identification of impending regime shifts. The rapidly increasing availability of remotely sensed data provides excellent opportunities to apply such model‐based spatial early warning signals in the real world, to assess ecosystem resilience and identify impending regime shifts induced by global change. Such information would allow land‐managers and policy makers to interfere and avoid catastrophic shifts, but also to induce regime shifts that move ecosystems to a desired state. Here, we show that the application of spatial early warning signals in real‐world landscapes presents unique and unexpected challenges, and may result in misleading conclusions when employed without careful consideration of the spatial data and processes at hand. We identify key practical and theoretical issues and provide guidelines for applying spatial early warning signals in heterogeneous, real‐world landscapes based on literature review and examples from real‐world data. Major identified issues include (1) spatial heterogeneity in real‐world landscapes may enhance reversibility of regime shifts and boost landscape‐level resilience to environmental change (2) ecosystem states are often difficult to define, while these definitions have great impact on spatial early warning signals and (3) spatial environmental variability and socio‐economic factors may affect spatial patterns, spatial early warning signals and associated regime shift predictions. We propose a novel framework, shifting from an ecosystem perspective towards a landscape approach. The framework can be used to identify conditions under which resilience assessment with spatial remotely sensed data may be successful, to support well‐informed application of spatial early warning signals, and to improve predictions of ecosystem responses to global environmental change.
Original language | English |
---|---|
Pages (from-to) | 1905-1921 |
Number of pages | 17 |
Journal | Global Change Biology |
Volume | 25 |
Issue number | 6 |
DOIs | |
Publication status | Published - 1 Jun 2019 |
Keywords
- alternative stable states
- critical slowing down
- early warning signals
- ecosystem resilience
- environmental change
- landsapes
- regime shifts
- remote sensing
- spatial patterns
- tipping points
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Nijp, J. J., Temme, A. J. A. M., Voorn, G. A. K., Kooistra, L., Hengeveld, G. M., Soons, M. B., Teuling, A. J., & Wallinga, J. (2019). Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes. Global Change Biology, 25(6), 1905-1921. https://doi.org/10.1111/gcb.14591
Nijp, Jelmer J. ; Temme, Arnaud J.a.m. ; Voorn, George A.k. et al. / Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes. In: Global Change Biology. 2019 ; Vol. 25, No. 6. pp. 1905-1921.
@article{d665223d5a074b25aed41a520f75e66b,
title = "Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes",
abstract = "Prediction of ecosystem response to global environmental change is a pressing scientific challenge of major societal relevance. Many ecosystems display nonlinear responses to environmental change, and may even undergo practically irreversible {\textquoteleft}regime shifts{\textquoteright} that initiate ecosystem collapse. Recently, early warning signals based on spatiotemporal metrics have been proposed for the identification of impending regime shifts. The rapidly increasing availability of remotely sensed data provides excellent opportunities to apply such model‐based spatial early warning signals in the real world, to assess ecosystem resilience and identify impending regime shifts induced by global change. Such information would allow land‐managers and policy makers to interfere and avoid catastrophic shifts, but also to induce regime shifts that move ecosystems to a desired state. Here, we show that the application of spatial early warning signals in real‐world landscapes presents unique and unexpected challenges, and may result in misleading conclusions when employed without careful consideration of the spatial data and processes at hand. We identify key practical and theoretical issues and provide guidelines for applying spatial early warning signals in heterogeneous, real‐world landscapes based on literature review and examples from real‐world data. Major identified issues include (1) spatial heterogeneity in real‐world landscapes may enhance reversibility of regime shifts and boost landscape‐level resilience to environmental change (2) ecosystem states are often difficult to define, while these definitions have great impact on spatial early warning signals and (3) spatial environmental variability and socio‐economic factors may affect spatial patterns, spatial early warning signals and associated regime shift predictions. We propose a novel framework, shifting from an ecosystem perspective towards a landscape approach. The framework can be used to identify conditions under which resilience assessment with spatial remotely sensed data may be successful, to support well‐informed application of spatial early warning signals, and to improve predictions of ecosystem responses to global environmental change.",
keywords = "alternative stable states, critical slowing down, early warning signals, ecosystem resilience, environmental change, landsapes, regime shifts, remote sensing, spatial patterns, tipping points",
author = "Nijp, {Jelmer J.} and Temme, {Arnaud J.a.m.} and Voorn, {George A.k.} and Lammert Kooistra and Hengeveld, {Geerten M.} and Soons, {Merel B.} and Teuling, {Adriaan J.} and Jakob Wallinga",
year = "2019",
month = jun,
day = "1",
doi = "10.1111/gcb.14591",
language = "English",
volume = "25",
pages = "1905--1921",
journal = "Global Change Biology",
issn = "1354-1013",
publisher = "John Wiley & Sons, Ltd (10.1111)",
number = "6",
}
Nijp, JJ, Temme, AJAM, Voorn, GAK, Kooistra, L, Hengeveld, GM, Soons, MB, Teuling, AJ & Wallinga, J 2019, 'Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes', Global Change Biology, vol. 25, no. 6, pp. 1905-1921. https://doi.org/10.1111/gcb.14591
Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes. / Nijp, Jelmer J.; Temme, Arnaud J.a.m.; Voorn, George A.k. et al.
In: Global Change Biology, Vol. 25, No. 6, 01.06.2019, p. 1905-1921.
Research output: Contribution to journal › Article › Academic › peer-review
TY - JOUR
T1 - Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes
AU - Nijp, Jelmer J.
AU - Temme, Arnaud J.a.m.
AU - Voorn, George A.k.
AU - Kooistra, Lammert
AU - Hengeveld, Geerten M.
AU - Soons, Merel B.
AU - Teuling, Adriaan J.
AU - Wallinga, Jakob
PY - 2019/6/1
Y1 - 2019/6/1
N2 - Prediction of ecosystem response to global environmental change is a pressing scientific challenge of major societal relevance. Many ecosystems display nonlinear responses to environmental change, and may even undergo practically irreversible ‘regime shifts’ that initiate ecosystem collapse. Recently, early warning signals based on spatiotemporal metrics have been proposed for the identification of impending regime shifts. The rapidly increasing availability of remotely sensed data provides excellent opportunities to apply such model‐based spatial early warning signals in the real world, to assess ecosystem resilience and identify impending regime shifts induced by global change. Such information would allow land‐managers and policy makers to interfere and avoid catastrophic shifts, but also to induce regime shifts that move ecosystems to a desired state. Here, we show that the application of spatial early warning signals in real‐world landscapes presents unique and unexpected challenges, and may result in misleading conclusions when employed without careful consideration of the spatial data and processes at hand. We identify key practical and theoretical issues and provide guidelines for applying spatial early warning signals in heterogeneous, real‐world landscapes based on literature review and examples from real‐world data. Major identified issues include (1) spatial heterogeneity in real‐world landscapes may enhance reversibility of regime shifts and boost landscape‐level resilience to environmental change (2) ecosystem states are often difficult to define, while these definitions have great impact on spatial early warning signals and (3) spatial environmental variability and socio‐economic factors may affect spatial patterns, spatial early warning signals and associated regime shift predictions. We propose a novel framework, shifting from an ecosystem perspective towards a landscape approach. The framework can be used to identify conditions under which resilience assessment with spatial remotely sensed data may be successful, to support well‐informed application of spatial early warning signals, and to improve predictions of ecosystem responses to global environmental change.
AB - Prediction of ecosystem response to global environmental change is a pressing scientific challenge of major societal relevance. Many ecosystems display nonlinear responses to environmental change, and may even undergo practically irreversible ‘regime shifts’ that initiate ecosystem collapse. Recently, early warning signals based on spatiotemporal metrics have been proposed for the identification of impending regime shifts. The rapidly increasing availability of remotely sensed data provides excellent opportunities to apply such model‐based spatial early warning signals in the real world, to assess ecosystem resilience and identify impending regime shifts induced by global change. Such information would allow land‐managers and policy makers to interfere and avoid catastrophic shifts, but also to induce regime shifts that move ecosystems to a desired state. Here, we show that the application of spatial early warning signals in real‐world landscapes presents unique and unexpected challenges, and may result in misleading conclusions when employed without careful consideration of the spatial data and processes at hand. We identify key practical and theoretical issues and provide guidelines for applying spatial early warning signals in heterogeneous, real‐world landscapes based on literature review and examples from real‐world data. Major identified issues include (1) spatial heterogeneity in real‐world landscapes may enhance reversibility of regime shifts and boost landscape‐level resilience to environmental change (2) ecosystem states are often difficult to define, while these definitions have great impact on spatial early warning signals and (3) spatial environmental variability and socio‐economic factors may affect spatial patterns, spatial early warning signals and associated regime shift predictions. We propose a novel framework, shifting from an ecosystem perspective towards a landscape approach. The framework can be used to identify conditions under which resilience assessment with spatial remotely sensed data may be successful, to support well‐informed application of spatial early warning signals, and to improve predictions of ecosystem responses to global environmental change.
KW - alternative stable states
KW - critical slowing down
KW - early warning signals
KW - ecosystem resilience
KW - environmental change
KW - landsapes
KW - regime shifts
KW - remote sensing
KW - spatial patterns
KW - tipping points
U2 - 10.1111/gcb.14591
DO - 10.1111/gcb.14591
M3 - Article
SN - 1354-1013
VL - 25
SP - 1905
EP - 1921
JO - Global Change Biology
JF - Global Change Biology
IS - 6
ER -
Nijp JJ, Temme AJAM, Voorn GAK, Kooistra L, Hengeveld GM, Soons MB et al. Spatial early warning signals for impending regime shifts: A practical framework for application in real‐world landscapes. Global Change Biology. 2019 Jun 1;25(6):1905-1921. doi: 10.1111/gcb.14591