TY - JOUR
T1 - Targeting Extreme Events
T2 - Complementing Near-Term Ecological Forecasting With Rapid Experiments and Regional Surveys
AU - Redmond, Miranda D.
AU - Law, Darin J.
AU - Field, Jason P.
AU - Meneses, Nashelly
AU - Carroll, Charles J.W.
AU - Wion, Andreas P.
AU - Breshears, David D.
AU - Cobb, Neil S.
AU - Dietze, Michael C.
AU - Gallery, Rachel E.
N1 - Publisher Copyright:
© Copyright © 2019 Redmond, Law, Field, Meneses, Carroll, Wion, Breshears, Cobb, Dietze and Gallery.
PY - 2019/11/27
Y1 - 2019/11/27
N2 - Ecologists are improving predictive capability using near-term ecological forecasts, in which predictions are made iteratively and publically to increase transparency, rate of learning, and maximize utility. Ongoing ecological forecasting efforts focus mostly on long-term datasets of continuous variables, such as CO2 fluxes, or more abrupt variables, such as phenological events or algal blooms. Generally lacking from these forecasting efforts is the integration of short-term, opportunistic data concurrent with developing climate extremes such as drought. We posit that incorporating targeted experiments and regional surveys, implemented rapidly during developing extreme events, into current forecasting efforts will ultimately enhance our ability to forecast ecological responses to climate extremes, which are projected to increase in both frequency and intensity. We highlight a project, “chasing tree die-off,” in which we coupled an experiment with regional-scale observational field surveys during a developing severe drought to test and improve forecasts of tree die-off. General insights to consider in incorporating this approach include: (1) tracking developing climate extremes in near-real time to efficiently ramp up measurements rapidly and, if feasible, initiate an experiment quickly—including funding and site selection challenges; (2) accepting uncertainty in projected extreme climatic events and adjusting sampling design over-time as needed, especially given the spatially heterogeneous nature of many ecological disturbances; and (3) producing timely and iterative output. In summary, targeted experiments and regional surveys implemented rapidly during developing extreme climatic events offer promise to efficiently (both financially and logistically) improve our ability to forecast ecological responses to climate extremes.
AB - Ecologists are improving predictive capability using near-term ecological forecasts, in which predictions are made iteratively and publically to increase transparency, rate of learning, and maximize utility. Ongoing ecological forecasting efforts focus mostly on long-term datasets of continuous variables, such as CO2 fluxes, or more abrupt variables, such as phenological events or algal blooms. Generally lacking from these forecasting efforts is the integration of short-term, opportunistic data concurrent with developing climate extremes such as drought. We posit that incorporating targeted experiments and regional surveys, implemented rapidly during developing extreme events, into current forecasting efforts will ultimately enhance our ability to forecast ecological responses to climate extremes, which are projected to increase in both frequency and intensity. We highlight a project, “chasing tree die-off,” in which we coupled an experiment with regional-scale observational field surveys during a developing severe drought to test and improve forecasts of tree die-off. General insights to consider in incorporating this approach include: (1) tracking developing climate extremes in near-real time to efficiently ramp up measurements rapidly and, if feasible, initiate an experiment quickly—including funding and site selection challenges; (2) accepting uncertainty in projected extreme climatic events and adjusting sampling design over-time as needed, especially given the spatially heterogeneous nature of many ecological disturbances; and (3) producing timely and iterative output. In summary, targeted experiments and regional surveys implemented rapidly during developing extreme climatic events offer promise to efficiently (both financially and logistically) improve our ability to forecast ecological responses to climate extremes.
KW - adaptive monitoring
KW - anticipatory science
KW - climate change
KW - climate extremes
KW - disturbance
KW - drought
KW - ecological forecasting
KW - extreme climatic event
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U2 - 10.3389/fenvs.2019.00183
DO - 10.3389/fenvs.2019.00183
M3 - Article
AN - SCOPUS:85076699051
SN - 2296-665X
VL - 7
JO - Frontiers in Environmental Science
JF - Frontiers in Environmental Science
M1 - 183
ER -