Optical atomic clocks with suppressed black body radiation shift

Abstract

We study a wide range of neutral atoms and ions suitable for ultra-precise atomic optical clocks with naturally suppressed black body radiation shift of clock transition frequency. Calculations show that scalar polarizabilities of clock states cancel each other for at least one order of magnitude for considered systems. Results for calculations of frequencies, quadrupole moments of the states, clock transition amplitudes and natural widths of upper clock states are presented.

References in corpus (7)

• 'Designer atoms' for quantum metrology
• Multipolar theory of black-body radiation shift of atomic energy levels and its implications for optical lattice clocks
• Observation of the 1S0 - 3P0 clock transition in 27Al+
• Enhanced laboratory sensitivity to variation of the fine-structure constant using highly-charged ions
• Hole transitions in multiply-charged ions for precision laser spectroscopy and searching for alpha-variation
• Highly charged ions with E1, M1, and E2 transitions within laser range
• Scalar Static Polarizabilities of Lanthanides and Actinides

Cited by in corpus (5)

• Suppression of clock shifts at field-insensitive transitions
• Observation of the ${}^1$S${}_0$ to ${}^3$D${}_1$ clock transition in ${}^{175}$Lu${}^{+}$
• High-accuracy optical clocks based on group 16-like highly charged ions
• Atomic clocks highly sensitive to the variation of the fine structure constant based on Hf II, Hf IV, and W VI ions
• Relativistic many-body calculation of energies, lifetimes, polarizabilities, blackbody radiative shift and hyperfine constants in Lu2+