Molecular laser isotope separation versus atomic vapor laser isotope separation

Computing the Anharmonic Vibrational Spectrum of UF6 in 15 Dimensions with an Optimized Basis Set and Rectangular Collocation

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A computational study of adsorption and vibrations of UF6 on graphene derivatives: Conditions for 2D enrichment

“…The relative differences between spectra due to different U isotopes may still be small (about 10 À5 for electronic spectra), but the availability of highly-coherent lasers permits selective excitation. The two laser-driven enrichment technologies that have been thoroughly studied and have potential for commercialization are AVLIS [4] and MLIS/SILEX [5] processes. AVLIS (Atomic Vapor Laser Isotope Separation) is based on electronic excitations, with the required coherency on the order of 10 À5 .…”

Synchronous characterization of semiconductor microcavity laser beam

“…In the past several decades, laser beams have been widely used in different fields both for diagnostics and as a powerful, precise and clean (noncontact) tool to modify the structure of matter. Their applications range from materials processing 6 , lithography 7 , medical treatments 8 , laser printing 9 , optical data storage 7 , micromachining 10 in the electronics industry, isotope separation 11 , optical processing [12][13][14] , optical manipulation 15 and laboratory research 16 . All these fields of application require a high degree of control on the laser source for optimal guiding and shaping, thus control on the process.…”