Cascading Regime Shifts within and across Scales. Rocha, J. C., Peterson, G., Bodin, Ö., & Levin, S. 362(6421):1379–1383.
Cascading Regime Shifts within and across Scales [link]Paper  doi  abstract   bibtex   
[Cascading effects of regime shifts] The potential for regime shifts and critical transitions in ecological and Earth systems, particularly in a changing climate, has received considerable attention. However, the possibility of interactions between such shifts is poorly understood. Rocha et al. used network analysis to explore whether critical transitions in ecosystems can be coupled with each other, even when far apart (see the Perspective by Scheffer and van Nes). They report different types of potential cascading effects, including domino effects and hidden feedbacks, that can be prevalent in different systems. Such cascading effects can couple the dynamics of regime shifts in distant places, which suggests that the interactions between transitions should be borne in mind in future forecasts. [Abstract] Regime shifts are large, abrupt, and persistent critical transitions in the function and structure of ecosystems. Yet, it is unknown how these transitions will interact, whether the occurrence of one will increase the likelihood of another or simply correlate at distant places. We explored two types of cascading effects: Domino effects create one-way dependencies, whereas hidden feedbacks produce two-way interactions. We compare them with the control case of driver sharing, which can induce correlations. Using 30 regime shifts described as networks, we show that 45\,% of regime shift pairwise combinations present at least one plausible structural interdependence. The likelihood of cascading effects depends on cross-scale interactions but differs for each type. Management of regime shifts should account for potential connections.
@article{rochaCascadingRegimeShifts2018,
  title = {Cascading Regime Shifts within and across Scales},
  author = {Rocha, Juan C. and Peterson, Garry and Bodin, Örjan and Levin, Simon},
  date = {2018-12},
  journaltitle = {Science},
  volume = {362},
  pages = {1379--1383},
  issn = {0036-8075},
  doi = {10.1126/science.aat7850},
  url = {https://doi.org/10.1126/science.aat7850},
  abstract = {[Cascading effects of regime shifts] The potential for regime shifts and critical transitions in ecological and Earth systems, particularly in a changing climate, has received considerable attention. However, the possibility of interactions between such shifts is poorly understood. Rocha et al. used network analysis to explore whether critical transitions in ecosystems can be coupled with each other, even when far apart (see the Perspective by Scheffer and van Nes). They report different types of potential cascading effects, including domino effects and hidden feedbacks, that can be prevalent in different systems. Such cascading effects can couple the dynamics of regime shifts in distant places, which suggests that the interactions between transitions should be borne in mind in future forecasts.

[Abstract] Regime shifts are large, abrupt, and persistent critical transitions in the function and structure of ecosystems. Yet, it is unknown how these transitions will interact, whether the occurrence of one will increase the likelihood of another or simply correlate at distant places. We explored two types of cascading effects: Domino effects create one-way dependencies, whereas hidden feedbacks produce two-way interactions. We compare them with the control case of driver sharing, which can induce correlations. Using 30 regime shifts described as networks, we show that 45\,\% of regime shift pairwise combinations present at least one plausible structural interdependence. The likelihood of cascading effects depends on cross-scale interactions but differs for each type. Management of regime shifts should account for potential connections.},
  keywords = {*imported-from-citeulike-INRMM,~INRMM-MiD:c-14667885,cascading-events,multi-scale,networks,regime-shift,system-of-systems,tipping-point},
  number = {6421}
}

Downloads: 0