Thermokinetic/mass-transfer analysis of carbon capture for reuse/sequestration.
Author(s) -
Ellen B. Stechel,
Patrick V. Brady,
Chad Staiger,
Anay Luketa
Publication year - 2010
Language(s) - English
Resource type - Reports
DOI - 10.2172/1010854
Subject(s) - raw material , bottleneck , carbon fibers , process engineering , waste management , environmental science , reuse , carbon sequestration , carbon capture and storage (timeline) , hydrocarbon , carbon dioxide , chemistry , engineering , materials science , ecology , organic chemistry , climate change , composite number , composite material , biology , embedded system
Effective capture of atmospheric carbon is a key bottleneck preventing non bio-based, carbon-neutral production of synthetic liquid hydrocarbon fuels using CO{sub 2} as the carbon feedstock. Here we outline the boundary conditions of atmospheric carbon capture for recycle to liquid hydrocarbon fuels production and re-use options and we also identify the technical advances that must be made for such a process to become technically and commercially viable at scale. While conversion of atmospheric CO{sub 2} into a pure feedstock for hydrocarbon fuels synthesis is presently feasible at the bench-scale - albeit at high cost energetically and economically - the methods and materials needed to concentrate large amounts of CO{sub 2} at low cost and high efficiency remain technically immature. Industrial-scale capture must entail: (1) Processing of large volumes of air through an effective CO{sub 2} capture media and (2) Efficient separation of CO{sub 2} from the processed air flow into a pure stream of CO{sub 2}
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