Properties of the triplet metastable states of the alkaline-earth atoms
arXiv:physics/0408120 · doi:10.1103/PhysRevA.70.052503
Abstract
The static and dynamic properties of the alkaline-earth atoms in their metastable state are computed in a configuration interaction approach with a semi-empirical model potential for the core. Among the properties determined are the scalar and tensor polarizabilities, the quadrupole moment, some of the oscillator strengths and the dispersion coefficients of the van der Waals interaction. A simple method for including the effect of the core on the dispersion parameters is described.
arXiv comment19 pages, in press PRA
References in corpus (7)
- High-precision calculations of van der Waals coefficients for heteronuclear alkali-metal dimers
- An Optical Clock with Ultracold Neutral Atoms
- Properties of metastable alkaline-earth-metal atoms calculated using an accurate effective core potential
- Ultracold collision properties of metastable alkaline-earth atoms
- Multichannel cold collisions between metastable Sr atoms
- Tensorial analysis of the long-range interaction between metastable alkaline-earth atoms
- Scattering length of the ground state Mg+Mg collision
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- Finite field calculations of static polarizabilities and hyperpolarizabilities of In and Sr
- Relativistic calculations of and coefficients for strontium dimers
- Polarizabilities of the Mg and Si ions
- Long range interactions between alkali and alkaline-earth atoms
- Blackbody radiation shift of B clock transition
- Black-body radiation shift of the Ga clock transition
- Multiphoton ionization through the triplet states of Mg by linearly and circularly polarized laser pulses
- Configuration Interaction calculations of positron binding to Be(3Po)