2015Physical Review AOpen access

Explicitly correlated wave function for a boron atom

Mariusz Puchalski, Jacek Komasa, Krzysztof Pachucki

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Abstract

Relativistically corrected energies and other atomic properties are calculated for B and B${}^{+}$ to very high precision by employing the explicitly correlated Gaussian basis, where the orders-of-magnitude improvement in the accuracy paves the way for unveiling more of the nuclear structural information.

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Relativistically corrected energies and other atomic properties are calculated for B and B${}^{+}$ to very high precision by employing the explicitly correlated Gaussian basis, where the orders-of-magnitude improvement in the accuracy paves the way for unveiling more of the nuclear structural information.

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Available abstract

Relativistically corrected energies and other atomic properties are calculated for B and B${}^{+}$ to very high precision by employing the explicitly correlated Gaussian basis, where the orders-of-magnitude improvement in the accuracy paves the way for unveiling more of the nuclear structural information.

Key concepts: Charge radius, Boron, Halo nucleus, Wave function, Atomic physics, Effective nuclear charge, Atom (system on chip), Hyperfine structure

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