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SILEX: Difference between revisions
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There are two fundamental insights behind SILEX: | There are two fundamental insights behind SILEX: | ||
* UF<sub>6</sub> dimers can be broken up and excited with a single photon | Using hex and a carrier gas G: | ||
* The mass difference between <sup>235</sup>UF<sub>6</sub> and a dimer of <sup>238</sup>UF<sub>6</sub> is | |||
* UF<sub>6</sub>+G dimers can be broken up and excited with a single photon | |||
* The mass difference between <sup>235</sup>UF<sub>6</sub> and a dimer of <sup>238</sup>UF<sub>6</sub>+G is (assuming G is <sup>40</sup>Ar), 43, much larger than that between | |||
** <sup>235</sup>U and <sup>238</sup>U (3, traditional separation) or | ** <sup>235</sup>U and <sup>238</sup>U (3, traditional separation) or | ||
** <sup>235</sup>UF<sub>5</sub> and <sup>238</sup>UF<sub>6</sub> (22, MLIS) | ** <sup>235</sup>UF<sub>5</sub> and <sup>238</sup>UF<sub>6</sub> (22, MLIS) | ||
Revision as of 08:46, 29 December 2023
Third-generation laser uranium enrichment out of Australia, similar to CRISLA, superseding AVLIS and MLIS.
There are two fundamental insights behind SILEX:
Using hex and a carrier gas G:
- UF6+G dimers can be broken up and excited with a single photon
- The mass difference between 235UF6 and a dimer of 238UF6+G is (assuming G is 40Ar), 43, much larger than that between
- 235U and 238U (3, traditional separation) or
- 235UF5 and 238UF6 (22, MLIS)
