Laser frequency stabilization based on steady-state spectral-hole burning in Eu:YSiO
arXiv:1504.02390 · doi:10.1103/PhysRevLett.114.253902
Abstract
We present and analyze a method of laser frequency stabilization via steady-state patterns of spectral holes in Eu:YSiO. Three regions of spectral holes are created, spaced in frequency by the ground state hyperfine splittings of Eu. The absorption pattern is shown not to degrade after days of laser frequency stabilization. An optical frequency comparison of a laser locked to such a steady-state spectral-hole pattern with an independent cavity-stabilized laser and a Yb optical lattice clock demonstrates a spectral-hole fractional frequency instability of that averages to at s. Residual amplitude modulation at the frequency of the RF drive applied to the fiber-coupled electro-optic modulator is reduced to less than fractional amplitude modulation at 1 s by an active servo. The contribution of residual amplitude modulation to the laser frequency instability is further reduced by digital division of the transmission and incident photodetector signals to less than at 1 s.
5 pages, 8 figures
References in corpus (14)
- LIGO: The Laser Interferometer Gravitational-Wave Observatory
- An Optical Lattice Clock with Accuracy and Stability at the Level
- Frequency Comparison of Two High-Accuracy Al+ Optical Clocks
- An atomic clock with instability
- A sub-40 mHz linewidth laser based on a silicon single-crystal optical cavity
- Making optical atomic clocks more stable with level laser stabilization
- New Limits on Coupling of Fundamental Constants to Gravity Using Sr Optical Lattice Clocks
- Thermal noise in optical cavities revisited
- Frequency-stabilization to 6x10^-16 via spectral-hole burning
- Geophysical applicability of atomic clocks: direct continental geoid mapping
- A cavity-stabilized laser with acceleration sensitivity below /g
- Testing General Relativity with Atomic Clocks
- Shifts of optical frequency references based on spectral-hole burning in Eu:Y2SiO5
- Absolute and relative stability of an optical frequency reference based on spectral hole burning in Eu:YSiO
Cited by in corpus (22)
- 1.5 m lasers with sub 10 mHz linewidth
- Atomic Clocks for Geodesy
- Coherent and Purcell-enhanced emission from erbium dopants in a cryogenic high-Q resonator
- Ramsey-Bordé matter-wave interferometry for laser frequency stabilization at frequency instability and below
- Closed-cycle, low-vibration 4 K cryostat for ion traps and other applications
- End-to-end topology for fiber comb based optical frequency transfer at the level
- Anisotropy and phonon modes from analysis of the dielectric function tensor and inverse dielectric function tensor of monoclinic yttrium orthosilicate
- Characteristics of long-lived persistent spectral holes in at
- Phonon order and reststrahlen bands of polar vibrations in crystals with monoclinic symmetry
- Prospects of a Pb ion clock
- Double-heterodyne probing for ultra-stable laser based on spectral hole burning in a rare-earth doped crystal
- Long 48-cm ULE cavities in vertical and horizontal orientations for Sr optical clock
- Variation of the fine structure constant caused by expansion of the Universe
- Laser stabilization to a cryogenic fiber ring resonator
- Anomalous sub-kelvin thermal frequency shifts of ultra narrow-linewidth solid state emitters
- Slow Light Frequency Reference Cavities -- Proof of Concept for Reducing the Frequency Sensitivity Due to Length Fluctuations
- Microscale crystalline rare-earth doped resonators for strain-coupled optomechanics
- Temperature-dependent mechanical losses of Eu:YSiO for spectral hole burning laser stabilization
- Thermal-noise Limits to the Frequency Stability of Burned Spectral Holes
- Direct observation of a highly forbidden optical transition in Sm:SrF
- Superradiant active optical atomic clocks: motivations and current challenges
- Comagnetometry using mirror-symmetric ions in a crystal