Mechanical tunability of an ultra-narrow spectral feature with uniaxial stress
arXiv:1912.10885 · doi:10.1103/PhysRevApplied.13.044022
Abstract
Rare-earth doped crystals have numerous applications ranging from frequency metrology to quantum information processing. To fully benefit from their exceptional coherence properties, the effect of mechanical strain on the energy levels of the dopants - whether it is a resource or perturbation - needs to be considered. We demonstrate that by applying uniaxial stress to a rare-earth doped crystal containing a spectral hole, we can shift the hole by a controlled amount that is larger than the width of the hole. We deduce the sensitivity of ions in an matrix as a function of crystal site and the crystalline axis along which the stress is applied.
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- First-order thermal insensitivity of the frequency of a narrow spectral hole in a crystal
- Efficient integrated quantum memory for light
- Temperature-dependent mechanical losses of Eu:YSiO for spectral hole burning laser stabilization
- Thermal-noise Limits to the Frequency Stability of Burned Spectral Holes
- Ultranarrow spectral line of the radiation in double qubit-cavity ultrastrong coupling system