Sensitivity of primary production to precipitation across the United States
Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental‐scale risk assessment of climate‐related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary...
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Published in | Ecology letters Vol. 23; no. 3; pp. 527 - 536 |
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Main Authors | , , , , , |
Format | Journal Article |
Language | English |
Published |
England
Blackwell Publishing Ltd
01.03.2020
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Subjects | |
Online Access | Get full text |
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Abstract | Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental‐scale risk assessment of climate‐related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically‐derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16‐year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century‐long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future.
We examined the response of a remotely‐sensed proxy for primary production to variations in precipitation and aridity across the continental U.S. over a 16 year period. Primary production is most sensitive to climate in arid and semi‐arid ecoregions where increases in aridity and climatic variablity are most rapid. These ecoregions, including the Desert Southwest and Great Plains, may be at enhanced risk for disruption to primary production and associated ecosystem services. |
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AbstractList | Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental‐scale risk assessment of climate‐related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically‐derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16‐year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century‐long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future.
We examined the response of a remotely‐sensed proxy for primary production to variations in precipitation and aridity across the continental U.S. over a 16 year period. Primary production is most sensitive to climate in arid and semi‐arid ecoregions where increases in aridity and climatic variablity are most rapid. These ecoregions, including the Desert Southwest and Great Plains, may be at enhanced risk for disruption to primary production and associated ecosystem services. Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental-scale risk assessment of climate-related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically-derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16-year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century-long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future. Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental‐scale risk assessment of climate‐related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically‐derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16‐year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century‐long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future. Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental-scale risk assessment of climate-related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically-derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16-year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century-long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future.Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental-scale risk assessment of climate-related impacts on primary production is lacking. We combined 16 years of MODIS NDVI data, a remotely sensed proxy for primary production, with observations from 1218 climate stations to derive values of ecosystem sensitivity to precipitation and aridity. For the first time, we produced an empirically-derived map of ecosystem sensitivity to climate across the conterminous United States. Over this 16-year period, annual primary production values were most sensitive to precipitation and aridity in dryland and grassland ecosystems. Century-long trends measured at the climate stations showed intensifying aridity and climatic variability in many of these sensitive regions. Dryland ecosystems in the western US may be particularly vulnerable to reductions in primary production and consequent degradation of ecosystem services as climate change and variability increase in the future. |
Author | Sala, Osvaldo E. Maurer, Gregory E. Brown, Renée F. Coulson, Tim Collins, Scott L. Hallmark, Alesia J. |
Author_xml | – sequence: 1 givenname: Gregory E. orcidid: 0000-0002-3007-8058 surname: Maurer fullname: Maurer, Gregory E. email: gregmaurer@gmail.com organization: University of California, Berkeley – sequence: 2 givenname: Alesia J. orcidid: 0000-0002-1024-5779 surname: Hallmark fullname: Hallmark, Alesia J. organization: University of New Mexico – sequence: 3 givenname: Renée F. orcidid: 0000-0002-4986-7663 surname: Brown fullname: Brown, Renée F. organization: University of New Mexico – sequence: 4 givenname: Osvaldo E. orcidid: 0000-0003-0142-9450 surname: Sala fullname: Sala, Osvaldo E. organization: Arizona State University – sequence: 5 givenname: Scott L. orcidid: 0000-0002-0193-2892 surname: Collins fullname: Collins, Scott L. organization: University of New Mexico – sequence: 6 givenname: Tim surname: Coulson fullname: Coulson, Tim |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/31912647$$D View this record in MEDLINE/PubMed |
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Snippet | Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental‐scale risk... Primary production, a key regulator of the global carbon cycle, is highly responsive to variations in climate. Yet, a detailed, continental-scale risk... |
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SubjectTerms | Arid lands Arid zones Aridity Carbon Cycle climate Climate Change Climate variability Drought dry environmental conditions Ecosystem Ecosystem degradation ecosystem function Ecosystem services Ecosystems Environmental assessment global carbon budget Grassland Grasslands interannual variability photosynthesis Precipitation Primary production primary productivity Remote sensing Risk assessment Sensitivity Stations United States Variability Western United States |
Title | Sensitivity of primary production to precipitation across the United States |
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