We report an uncertainty evaluation of an optical lattice clock based on the S01↔P03 transition in the bosonic isotope Yb174 by use of magnetically induced spectroscopy. The absolute frequency of the S01↔P03 transition has been determined through comparisons with optical and microwave standards at NIST. The weighted mean of the evaluations is ν(Yb174)=518294025309217.8(0.9)Hz. The uncertainty due to systematic effects has been reduced to less than 0.8Hz, which represents 1.5×10−15 in fractional frequency
Optical lattice clocks with uncertainty and instability in the 1017-range and below have so far been...
An absolute frequency measurement has been made of the 2S1/2–2F7/2 electric octupole transition in a...
The primary frequency and time standard, defined via a transition frequency of caesium-133, is reali...
We describe the development and latest results of an optical lattice clock based on neutral Yb atoms...
We present the absolute frequency measurement of the transition 1S0 - 3P0 at 578 nm in ytterbium 171...
Optical clocks operated on satellites are expected to open up new opportunities in time transfer, ge...
Spectroscopy of the 411-nm transition in 171Yb+ has been performed and the feasibility of its use as...
We report the absolute frequency measurement of the unperturbed transition 1S0 -3P0 at 578 nm in 171...
We report on an evaluation of an optical clock that uses the S21/2→D25/2 transition of a single Sr+8...
With ultracold $^{87}$Sr confined in a magic wavelength optical lattice, we present the most precise...
Atomic clocks, the most accurate instruments in existence, are reaching new levels of precision. The...
International audienceIn this paper we report the evaluation of an optical lattice clock based on ne...
We report on a frequency ratio measurement of a Hg199-based optical lattice clock referencing a Sr87...
Transition frequencies of atoms and ions are among the most accurately accessible quantities in natu...
Optical clocks realize transition frequencies between atomic energy levels with a relative uncertain...
Optical lattice clocks with uncertainty and instability in the 1017-range and below have so far been...
An absolute frequency measurement has been made of the 2S1/2–2F7/2 electric octupole transition in a...
The primary frequency and time standard, defined via a transition frequency of caesium-133, is reali...
We describe the development and latest results of an optical lattice clock based on neutral Yb atoms...
We present the absolute frequency measurement of the transition 1S0 - 3P0 at 578 nm in ytterbium 171...
Optical clocks operated on satellites are expected to open up new opportunities in time transfer, ge...
Spectroscopy of the 411-nm transition in 171Yb+ has been performed and the feasibility of its use as...
We report the absolute frequency measurement of the unperturbed transition 1S0 -3P0 at 578 nm in 171...
We report on an evaluation of an optical clock that uses the S21/2→D25/2 transition of a single Sr+8...
With ultracold $^{87}$Sr confined in a magic wavelength optical lattice, we present the most precise...
Atomic clocks, the most accurate instruments in existence, are reaching new levels of precision. The...
International audienceIn this paper we report the evaluation of an optical lattice clock based on ne...
We report on a frequency ratio measurement of a Hg199-based optical lattice clock referencing a Sr87...
Transition frequencies of atoms and ions are among the most accurately accessible quantities in natu...
Optical clocks realize transition frequencies between atomic energy levels with a relative uncertain...
Optical lattice clocks with uncertainty and instability in the 1017-range and below have so far been...
An absolute frequency measurement has been made of the 2S1/2–2F7/2 electric octupole transition in a...
The primary frequency and time standard, defined via a transition frequency of caesium-133, is reali...