Tensorial form and matrix elements of the relativistic nuclear recoil operator
arXiv:1106.1988 · doi:10.1088/0953-4075/44/17/175003
Abstract
Within the lowest-order relativistic approximation () and to first order in , the tensorial form of the relativistic corrections of the nuclear recoil Hamiltonian is derived, opening interesting perspectives for calculating isotope shifts in the multiconfiguration Dirac-Hartree-Fock framework. Their calculation is illustrated for selected Li-, B- and C-like ions. The present work underlines the fact that the relativistic corrections to the nuclear recoil are definitively necessary for getting reliable isotope shift values.
arXiv comment22 pages, no figures, submitted to J. Phys. B
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- Deviations from Born-Oppenheimer mass scaling in spectroscopy and ultracold molecular physics
- Relativistic calculations of the isotope shifts in highly charged Li-like ions
- Relativistic calculations of X-Ray transition energies and isotope shifts in heavy atoms
- Multiconfiguration calculations of electronic isotope shift factors in Al I
- Multiconfiguration calculations of electronic isotope shift factors in Zn I
- Nuclear recoil effect on the binding energies in highly charged He-like ions
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- Isotope shift on the chlorine electron affinity revisited by an MCHF/CI approach
- Model-QED-operator approach to relativistic calculations of the nuclear recoil effect in many-electron atoms and ions
- Theoretical isotope shifts in neutral barium
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- Atomic Parameters for the Transition of Ne I relevant in nuclear physics
- QED theory of the normal mass shift in few-electron atoms