Calculation of nuclear-spin-dependent parity nonconservation in s-d transitions of Ba$^+$, Yb$^+$ and Ra$^+$ ions

V. A. Dzuba; V. V. Flambaum

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Calculation of nuclear-spin-dependent parity nonconservation in s-d transitions of Ba$^+$, Yb$^+$ and Ra$^+$ ions

V. A. Dzuba, V. V. Flambaum

Atomic Physics · Submitted 1 Apr 2011

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The authors' main claim The results are presented in a form convenient for extracting of the constants of nuclear-spin-dependent interaction (such as, e.g., anapole moment) from the measurements.

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arXiv ID1104.0086 (version 1)

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CitationV. A. Dzuba, V. V. Flambaum. "Calculation of nuclear-spin-dependent parity nonconservation in s-d transitions of Ba$^+$, Yb$^+$ and Ra$^+$ ions." arXiv:1104.0086 (2011). https://pith.science/paper/RHHYZPEH

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We use correlation potential and many-body perturbation theory techniques to calculate spin-independent and nuclear spin-dependent parts of the parity nonconserving amplitudes of the transitions between the $6s_{1/2}$ ground state and the $5d_{3/2}$ excited state of Ba$^+$ and Yb$^+$ and between the $7s_{1/2}$ ground state and the $6d_{3/2}$ excited state of Ra$^+$. The results are presented in a form convenient for extracting of the constants of nuclear-spin-dependent interaction (such as, e.g., anapole moment) from the measurements.

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#	sentence	role	the authors' own work	states the main conclusion	strength
s0	We use correlation potential and many-body perturbation theory techniques to calculate spin-independent and nuclear spin-dependent parts of the parity nonconserving amplitudes of the transitions between the $6s_{1/2}$ ground state and the $5d_{3/2}$ excited state of Ba$^+$ and Yb$^+$ and between the $7s_{1/2}$ ground state and the $6d_{3/2}$ excited state of Ra$^+$.	method 0.56	0.95	0.12	asserted 1.00
s1	The results are presented in a form convenient for extracting of the constants of nuclear-spin-dependent interaction (such as, e.g., anapole moment) from the measurements.	interpretation 0.44	0.82	0.25	asserted 0.99

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Original abstract

We use correlation potential and many-body perturbation theory techniques to calculate spin-independent and nuclear spin-dependent parts of the parity nonconserving amplitudes of the transitions between the $6s_{1/2}$ ground state and the $5d_{3/2}$ excited state of Ba$^+$ and Yb$^+$ and between the $7s_{1/2}$ ground state and the $6d_{3/2}$ excited state of Ra$^+$. The results are presented in a form convenient for extracting of the constants of nuclear-spin-dependent interaction (such as, e.g., anapole moment) from the measurements.

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Papers citing it

Cites it as background 1 paper

Very recently, the CI-MBPT method is used to to calculate the NSD-PNC observables of Ba$^+$, Yb$^+$ and Ra$^+$ [ref] .

Relativistic coupled-cluster theory of nuclear spin-dependent parity non-conservation · Introduction · 0.86

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Cites as support 1 paper

This has two important advantages [ref] : (i) extraction of the value of $ϰ$ from experimental data can lead to no confusion over its sign, (ii) the uncertainty for the value of the ratio of the spin-dependent and spin-independent amplitudes $R$ is usually lower than for each of the amplitudes.

Calculation of parity nonconservation in neutral ytterbium · Results · 0.98

Cites as background 1 paper

Therefore, the study of PNC in atoms is mostly focused now in two directions: (i) the measurements of the PNC ratio for a chain of isotopes which was first proposed in Ref. [ref] , and (ii) the measurements of the nuclear-spin-dependent PNC, like e.g. the contribution from nuclear anapole moment (see, e.g. reviews [ref] ).

Current trends in searches for new physics using measurements of parity violation and electric dipole moments in atoms and molecules · Introduction · 0.87

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