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Kazakhstan partners with Russia for new nuclear power plant
Today, there are 34 countries with operational nuclear power plants—but there are dozens more working on building a nuclear plant of their own. While progress on these projects inevitably ebbs and flows, broadly, momentum seems to be building on the international stage.
That growing momentum manifested last week in Kazakhstan’s announcement that it has officially partnered with Russia on a new nuclear power plant project. Prior to these new agreements, Russia, which borders Kazakhstan to the north, was already engaged in extensive preliminary work on the project.
Sidney Katz, George I. Cathers
Nuclear Technology | Volume 5 | Number 1 | July 1968 | Pages 5-10
Technical Paper and Note | doi.org/10.13182/NT68-A27978
Articles are hosted by Taylor and Francis Online.
In the search for an efficient sorption-desorption system for recovering and purifying plutonium hexafluoride, 31 candidate metal fluorides were tested. Of these, the fluorides of the IA and IIA metals were found to react (or sorb) most favorably and were therefore selected for further study. Results of extensive tests, in which the sorption and desorption capabilities of these more promising fluorides were considered, indicated that only lithium fluoride was effective in both respects. A chemical equilibrium was found to exist between plutonium hexafluoride, fluorine, lithium fluoride, and a complex (probably Li4PuF8) containing Pu(IV). The sorption of plutonium hexafluoride was much improved as the surface area of the lithium fluoride was increased. Plutonium hexafluoride containing no detectable uranium hexafluoride was obtained from a mixture by a sorption-desorption separation.