Document Type
Annual Report
Publication Date
10-28-2003
First page number:
1
Last page number:
26
Abstract
The recovery of iodine released during the processing of used nuclear fuel poses a significant challenge to the transmutation of radioactive iodine. During the first year of this program we have examined the potential of Fullerene Containing Carbon compounds (FCC) developed by KRI, and natural organic matter (NOM) as sorbents for iodine released during the reprocessing of nuclear fuel. This work involved the development of bench-scale testing of the FCC and NOM material in a simulated process off-gas environment.
During the first two quarters of this program we explored various analytical methods available for measurement of iodine, iodide, and iodate. We reproduced an analytical method proposed by Mishra et al., 2000 for measurement of trace levels of iodide and iodine in aqueous solution. Iodine or hypoiodic acid reacts with N,N-dimethylanaline to form p-iododimethylaniline. Iodide can be measured after selective oxidation of iodide with 2-iodosobenzoate to produce active iodine that is subsequently reacted with N,Ndimethylaniline. The product p-iodo-N,N-dimethylaniline can be quantified by GC/MS. This method gave excellent results in dilute aqueous solutions however; we did encounter some interference in the presence of NOM. The method should still be useful for quantifying low levels on iodine released by FCC or other sorbent materials.
Keywords
Fullerenes; Iodine — Isotopes; Organic compounds; Radioactive wastes; Reactor fuel reprocessing; Sequestration (Chemistry); Sorbents; Transmutation (Chemistry)
Controlled Subject
Fullerenes; Iodine--Isotopes; Radioactive wastes
Disciplines
Analytical Chemistry | Chemistry | Oil, Gas, and Energy | Physical Chemistry
File Format
File Size
210 KB
Language
English
Rights
COPYRIGHT UNDETERMINED. For more information about this rights statement, please visit http://rightsstatements.org/vocab/UND/1.0/
Repository Citation
Steinberg, S. M.,
Emerson, D. W.,
Cerefice, G.
(2003).
Immobilization of Fission Iodine by Reaction with a Fullerene Containing Carbon Compound and Insoluble Natural Organic Matrix.
1-26.
Available at:
https://digitalscholarship.unlv.edu/hrc_trp_separations/39
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