Measuring and Modeling Component and Whole-System Carbon Exchange
Author(s) -
Paul V. Bolstad
Publication year - 2006
Publication title -
osti oai (u.s. department of energy office of scientific and technical information)
Language(s) - English
Resource type - Reports
DOI - 10.2172/894651
Subject(s) - ecosystem , environmental science , atmospheric sciences , flux (metallurgy) , range (aeronautics) , wetland , carbon sink , carbon fibers , carbon cycle , carbon flux , atmosphere (unit) , component (thermodynamics) , carbon dioxide , carbon dioxide in earth's atmosphere , forest ecology , ecosystem respiration , ecology , eddy covariance , geography , meteorology , chemistry , biology , geology , physics , materials science , organic chemistry , composite number , composite material , thermodynamics
We measured ecosystem/atmospheric carbon exchange through a range of methods covering a range of scales. We measured carbon (C) pool and flux for a number of previously poorly quantified ecosystems, developed measurement and modeling methods, and applied these to substantially increase the accuracy and reduce uncertainty in ecosystem/atmospheric C exchange at a range of scales. It appears most upland forests are weak to strong carbon sinks, and status depends largely on disturbance history and age. Net flux from wetland ecosystems appears to be from weak sinks to moderate sources of C to the atmosphere. We found limited evidence for a positive feedback of warming/drying to increased ecosystem C emissions. We further developed multi-source integration and modeling methods, including multiple towers, to scale estimates to landscapes and larger regions
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