Unraveling the effects of management and climate on carbon fluxes of U.S. croplands using the USDA Long-Term Agroecosystem (LTAR) network

•Climate and management affected carbon fluxes across sites.•C uptake & release were positively correlated with temperature & precipitation.•No-till was associated with increased ecosystem respiration.•High biomass crops were associated with higher net carbon uptake. Understanding the carbon...

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Veröffentlicht in:	Agricultural and forest meteorology 2022-11, Vol.326, p.109154, Article 109154
Hauptverfasser:	Menefee, D., Scott, Russell L., Abraha, M., Alfieri, J.G., Baker, J., Browning, Dawn M., Chen, Jiquan, Gonet, Jeff, Johnson, J.M.F., Miller, G.R., Nifong, Rachel, Robertson, Phil, Russell, E.S., Saliendra, N., Schreiner-Mcgraw, Adam P., Suyker, A., Wagle, P., Wente, Chris, White, P.M., Smith, Doug
Format:	Artikel
Sprache:	eng
Schlagworte:	Agroecosystems atmospheric precipitation carbon carbon dioxide Carbon flux carbon sequestration climate cropland Croplands data collection Ecosystem respiration eddy covariance ENVIRONMENTAL SCIENCES forests Glycine max Gross primary productivity irrigation management Long-Term Agroecosystem Research Network meteorology Nebraska Net primary productivity regression analysis Saccharum soybeans sugarcane temperature
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