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Dynamical thermal behavior and thermal self-stability of microcavities

Optics Express · 2004 · Vol. 12(20) · pp. 4742–4742
Tal CarmonLan YangKerry J. Vahala

Abstract

As stability and continuous operation are important for almost any use of a microcavity, we demonstrate here experimentally and theoretically a self-stable equilibrium solution for a pump-microcavity system. In this stable equilibrium, intensity- and wavelength-perturbations cause a small thermal resonant-drift that is enough to compensate for the perturbation (noises); consequently the cavity stays warm and loaded as perturbations are self compensated. We also compare here, our theoretical prediction for the thermal line broadening (and for the wavelength hysteretic response) to experimental results.

Photonic and Optical DevicesMechanical and Optical ResonatorsAdvanced Fiber Laser TechnologiesPerturbation (astronomy)ThermalOpticsWavelengthThermal equilibriumStability (learning theory)Thermal stabilityPhysicsMaterials scienceMechanics
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Cited by
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References
Whispering-gallery mode microdisk lasers
Applied Physics Letters · 1992 · 1,430 citations
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Dynamical thermal behavior and thermal self-stability of microcavities · Scinovex