Fiber-Based Whispering Gallery Mode Microresonators for Optical Frequency Comb Generation in Telecommunication Range: Experiment and Numerical Simulation

A. Sorokin, M. P. Marisova, A. Andrianov, E. Anashkina
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Abstract

Optical frequency combs including microresonator-based ones can be used in telecommunications as multi-carrier sources in wavelength-division multiplexing. We produced samples of silica fiber-based spherical microresonators potentially interesting for this application. Whispering gallery modes were excited by broadband spontaneous emission radiation of an Er:fiber laser source. Q-factors were estimated. We also investigated theoretically the possibility of using silica-based Ge $\mathrm {O}_{2}-$ doped glass microspheres for comb generation in the dissipative soliton regime pumped at 1550 nm. It was shown numerically that optical frequency combs with a spectral width from E-band to L-band can be obtained for microspheres doped with 20 mol.% $\mathrm {G}\mathrm {e}\mathrm {O}_{2}$.
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基于光纤的窃窃廊模式微谐振器在电信范围内产生光频率梳:实验和数值模拟
包括基于微谐振器的光频梳在内的光频梳可作为波分复用中的多载波源在电信中使用。我们制作了基于二氧化硅纤维的球形微谐振器样品,可能对这种应用很感兴趣。利用铒光纤激光源的宽带自发辐射激发了窃窃廊模式。估计q因子。我们还从理论上探讨了在1550 nm抽运的耗散孤子区使用硅基Ge $\ mathm {O}_{2}-$掺杂玻璃微球产生梳状结构的可能性。数值计算表明,掺杂20 mol / l的微球可以得到谱宽从e波段到l波段的光频梳。% $\ mathm {G}\ mathm {e}\ mathm {O}_{2}$。
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