Compact Yb optical atomic clock project: design principle and current status
arXiv:1603.05816 · doi:10.1088/1742-6596/723/1/012025
Abstract
We present the design of a compact optical clock based on the 435.5 nm transition in Yb. The ion trap will be based on a micro-fabricated circuit, with surface electrodes generating a trapping potential to localize a single Yb ion a few hundred m from the electrodes. We present our trap design as well as simulations of the resulting trapping pseudo-potential. We also present a compact, multi-channel wavelength meter that will permit the frequency stabilization of the cooling, repumping and clear-out lasers at 369.5 nm, 935.2 nm and 638.6 nm needed to cool the ion. We use this wavelength meter to characterize and stabilize the frequency of extended cavity diode lasers at 369.5 nm and 638.6 nm.
7 pages, 5 figures. Proc. of the 8th FSM 2015, Potsdam, Germany. To be published in IOP Journal of Physics: Conference Series
References in corpus (9)
- Frequency ratio of two optical clock transitions in Yb and constraints on the time-variation of fundamental constants
- Improved limit on a temporal variation of from comparisons of Yb and Cs atomic clocks
- Scaling and Suppression of Anomalous Quantum Decoherence in Ion Traps
- Electrostatics of surface-electrode ion traps
- Development of a strontium optical lattice clock for the SOC mission on the ISS
- Frequency stability of a wavelength meter and applications to laser frequency stabilization
- Generalized Hyper-Ramsey Resonance with separated oscillating fields
- Ultra-low phase noise all-optical microwave generation setup based on commercial devices
- Ion-trap electrode preparation with Ne bombardment
Cited by in corpus (5)
- Realizing quantum gates with optically-addressable Yb ion qudits
- Single-ion, transportable optical atomic clocks
- Continuous dynamical decoupling of optical Yb qudits with radiofrequency fields
- Residual Phase Noise Measurement of Optical Second Harmonic Generation in PPLN Waveguides
- Heating rate measurement and characterization of a prototype surface-electrode trap for optical frequency metrology