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Metal corrosion in a supercritical carbon dioxide - liquid sodium power cycle.
Author(s) -
Robert Moore,
Thomas Conboy
Publication year - 2012
Language(s) - English
Resource type - Reports
DOI - 10.2172/1039408
Subject(s) - coolant , corrosion , supercritical fluid , supercritical carbon dioxide , brayton cycle , materials science , decarburization , carbon dioxide , diffusion , chemical engineering , inert , carbon fibers , heat exchanger , sodium , chemistry , metallurgy , thermodynamics , composite material , organic chemistry , engineering , physics , composite number
A liquid sodium cooled fast reactor coupled to a supercritical carbon dioxide Brayton power cycle is a promising combination for the next generation nuclear power production process. For optimum efficiency, a microchannel heat exchanger, constructed by diffusion bonding, can be used for heat transfer from the liquid sodium reactor coolant to the supercritical carbon dioxide. In this work, we have reviewed the literature on corrosion of metals in liquid sodium and carbon dioxide. The main conclusions are (1) pure, dry CO{sub 2} is virtually inert but can be highly corrosive in the presence of even ppm concentrations of water, (2) carburization and decarburization are very significant mechanism for corrosion in liquid sodium especially at high temperature and the mechanism is not well understood, and (3) very little information could be located on corrosion of diffusion bonded metals. Significantly more research is needed in all of these areas

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