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Kerr Frequency Comb Generation in Microsphere Resonators With Normal Dispersion

In this work, we carry out theoretical investigation of the dispersion relationship both with the radius of the microsphere cavity and wavelength for the first two radial-order mode based on the theory of microcavity dispersion. The results show that the size of the microcavity corresponding to the...

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Published in:Journal of lightwave technology 2022-02, Vol.40 (4), p.1092-1097
Main Authors: Chen, Zhenmin, Tu, Xin, Dai, Maolin, Li, Qian, Fu, H. Y.
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description In this work, we carry out theoretical investigation of the dispersion relationship both with the radius of the microsphere cavity and wavelength for the first two radial-order mode based on the theory of microcavity dispersion. The results show that the size of the microcavity corresponding to the zero dispersion point of the higher order mode is larger than that of lower order mode at the certain wavelength. The microsphere cavities with slight deformations, which have rich modes and high Q values, have been fabricated and optical frequency comb (OFC) in them with small size is realized by means of mode coupling. We have achieved OFC in cavities as small as 105 μm in diameter by assistance of the theoretical study. The total dispersions are −7.1 MHz in 1550 nm and −14.2 MHz in 1310 nm, which are both in the normal dispersion region.
doi_str_mv 10.1109/JLT.2021.3128996
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source IEEE Electronic Library (IEL) Journals
subjects Coupled modes
Diameters
Dispersion
Holes
Microcavities
Microsphere microcavity
normal dispersion
Optical device fabrication
Optical frequency
optical frequency comb
Optical interferometry
Optical pumping
Optical scattering
Optical solitons
whispering gallery mode (WGM)
title Kerr Frequency Comb Generation in Microsphere Resonators With Normal Dispersion
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