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Climate Change Impacts for the Conterminous USA: An Integrated Assessment: Part 3. Dryland Production of Grain and Forage Crops
Here we simulate dryland agriculture in the United States in order to assess potential future agricultural production under a set of general circulation model (GCM)-based climate change scenarios. The total national production of three major grain crops--corn, soybeans, and winter wheat--and two for...
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Published in: | Climatic change 2005-03, Vol.69 (1), p.43-65 |
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description | Here we simulate dryland agriculture in the United States in order to assess potential future agricultural production under a set of general circulation model (GCM)-based climate change scenarios. The total national production of three major grain crops--corn, soybeans, and winter wheat--and two forage crops--alfalfa and clover hay--is calculated for the actual present day core production area (CPA) of each of these crops. In general, higher global mean temperature (GMT) reduces production and higher atmospheric carbon dioxide concentration ([CO2]) increases production. Depending on the climatic change scenarios employed overall national production of the crops studied changes by up to plus or minus 25% from present-day levels. Impacts are more significant regionally, with crop production varying by greater than +/-50% from baseline levels. Analysis of currently possible production areas (CPPAs) for each crop indicates that the regions most likely to be affected by climate change are those on the margins of the areas in which they are currently grown. Crop yield variability was found to be primarily influenced by local weather and geographic features rather than by large-scale changes in climate patterns and atmospheric composition. Future US agronomic potential will be significantly affected by the changes in climate projected here. The nature of the crop response will depend primarily on to what extent precipitation patterns change and also on the degree of warming experienced. [PUBLICATION ABSTRACT] |
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Dryland Production of Grain and Forage Crops</title><title>Climatic change</title><description>Here we simulate dryland agriculture in the United States in order to assess potential future agricultural production under a set of general circulation model (GCM)-based climate change scenarios. The total national production of three major grain crops--corn, soybeans, and winter wheat--and two forage crops--alfalfa and clover hay--is calculated for the actual present day core production area (CPA) of each of these crops. In general, higher global mean temperature (GMT) reduces production and higher atmospheric carbon dioxide concentration ([CO2]) increases production. Depending on the climatic change scenarios employed overall national production of the crops studied changes by up to plus or minus 25% from present-day levels. Impacts are more significant regionally, with crop production varying by greater than +/-50% from baseline levels. 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subjects | Adaptation Agricultural production Agriculture Alfalfa Arid zones Carbon dioxide Cereal crops Climate change Crop production Crop yield Crops Dryland farming Environmental impact Forage Forage crops General circulation models Global temperatures Grain Grain crops Greenhouse effect Precipitation Productivity Rain Regions Simulation Soil erosion Soybeans Temperature Water shortages Weather Wheat Winter Winter wheat |
title | Climate Change Impacts for the Conterminous USA: An Integrated Assessment: Part 3. Dryland Production of Grain and Forage Crops |
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