Feedback-free optical cavity with self-resonating mechanism
Yuuki Uesugi, Yuji Hosaka, Y. Honda, Atsutake Kosuge, Kazuyuki Sakaue, T. Omori, Tohru Takahashi, J. Urakawa, Masakazu Washio
Abstract
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Yuuki Uesugi, Yuji Hosaka, Y. Honda, Atsutake Kosuge, Kazuyuki Sakaue, T. Omori, Tohru Takahashi, J. Urakawa, Masakazu Washio
Abstract
Open-access reader
We demonstrated the operation of a high finesse optical cavity without utilizing an active feedback system to stabilize the resonance. The effective finesse, which is a finesse including the overall system performance, of the cavity was measured to be $394,000 \pm 10,000$, and the laser power stored in the cavity was $2.52 \pm 0.13$ kW, which is approximately 187,000 times greater than the incident power to the cavity. The stored power was stabilized with a fluctuation of $1.7 \%$, and we confirmed continuous cavity operation for more than two hours. This result has the potential to trigger an innovative evolution for applications that use optical resonant cavities such as compact photon sources with laser-Compton scattering or cavity enhanced absorption spectroscopy.
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We demonstrated the operation of a high finesse optical cavity without utilizing an active feedback system to stabilize the resonance. The effective finesse, which is a finesse including the overall system performance, of the cavity was measured to be $394,000 \pm 10,000$, and the laser power stored in the cavity was $2.52 \pm 0.13$ kW, which is approximately 187,000 times greater than the incident power to the cavity. The stored power was stabilized with a fluctuation of $1.7 \%$, and we confirmed continuous cavity operation for more than two hours. This result has the potential to trigger an innovative evolution for applications that use optical resonant cavities such as compact photon sources with laser-Compton scattering or cavity enhanced absorption spectroscopy.
Key concepts: Finesse, Optical cavity, Optics, Laser, Photon, Resonance (particle physics), Optoelectronics, Materials science