1105 K
28 pp.
 
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TitleCalculations on Isotope Separation by Laser Induced Photodissociation of Polyatomic Molecules. Final Report
Author(s)Lamb, W. E. Jr.
Publication DateNovember 1978
Report NumberCOO-4294-2
Unique IdentifierACC0090
Other NumbersOSTI ID: 6486661
Research OrgUniversity of Arizona, Tucson (USA).
Contract NoEN-77-S-02-4294.A000
Sponsoring OrgU.S. Department of Energy
Subject400203 -- Isotope Exchange & Isotope Separation -- (-1987) ;050503 -- Nuclear Fuels -- Uranium Enrichment -- Laser Excitation-- (-1989); Laser Isotope Separation -- Research Programs; Sulfur Fluorides -- Dissociation; Interatomic Forces; Laser Radiation; Photolysis
KeywordsChemical Reactions; Decomposition; Electromagnetic Radiation; Fluorides; Fluorine Compounds; Halides; Halogen Compounds; Isotope Separation; Photochemical Reactions; Radiations; Separation Processes; Sulfur Compounds
Related Web PagesWillis E. Lamb, Jr., the Hydrogen Atom, and the Lamb Shift
AbstractThis report describes research on the theory of isotope separation produced by the illumination of polyatomic molecules by intense infrared laser radiation. Newton`s equations of motion were integrated for the atoms of the SF{sub 6} molecule including the laser field interaction. The first year`s work has been largely dedicated to obtaining a suitable interatomic potential valid for arbitrary configurations of the seven particles. This potential gives the correct symmetry of the molecule, the equilibrium configuration, the frequencies of the six distinct normal modes of oscillation and the correct (or assumed) value of the total potential energy of the molecule. Other conditions can easily be imposed in order to obtain a more refined potential energy function, for example, by making allowance for anharmonicity data. A suitable expression was also obtained for the interaction energy between a laser field and the polyatomic molecule. The electromagnetic field is treated classically, and it would be easily possible to treat the cases of time dependent pulses, frequency modulation and noise.
1105 K
28 pp.
 
View Document 
  


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