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Discussions and actions on nuclear energy have penetrated several state capitol buildings, congressional hearings, and industry gatherings across the United States this month, including in Alaska, Connecticut, Louisiana, Massachusetts, Minnesota, and New York.
J. L. Maienschein, F. Magnotta, I. P. Herman, F. T. Aldridge, P. Hsiao
Fusion Science and Technology | Volume 4 | Number 2 | September 1983 | Pages 121-126
Tritium | doi.org/10.13182/FST83-A22855
Articles are hosted by Taylor and Francis Online.
Isotope separation by means of infrared-laser multiple-photon dissociation offers an efficient way to recover tritium from contaminated light or heavy water found in fission and fusion reactors. For tritium recovery from heavy water, chemical exchange of tritium into deuterated chloroform is followed by selective laser dissociation of tritiated chloroform and removal of the tritiated photoproduct, TCI. The single-step separation factor is at least 2700 and is probably greater than 5000. Here we present a description of the tritium recovery process, along with recent accomplishments in photochemical studies and engineering analysis of a recovery system.