4.6 Article

Kerr-Raman Optical Frequency Combs in Silica Microsphere Pumped Near Zero Dispersion Wavelength

期刊

IEEE ACCESS
卷 9, 期 -, 页码 6729-6734

出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/ACCESS.2021.3049183

关键词

Silicon compounds; Optical fiber dispersion; Optical harmonic generation; Nonlinear optics; Stimulated emission; Microcavities; Numerical models; Optical frequency comb (OFC); Kerr-assisted OFC; Raman-assisted OFC; silica microsphere; whispering gallery mode resonator (WGMR)

资金

  1. Russian Science Foundation, (theoretical and experimental investigation of optical frequency comb (OFC) generation) [20-72-10188]
  2. Mega-grant of the Ministry of Science and Higher Education of the Russian Federation, (development of the testbed for study of microresonators) [14.W03.31.0032]
  3. Russian Science Foundation [20-72-10188] Funding Source: Russian Science Foundation

向作者/读者索取更多资源

This study investigates the generation of optical frequency combs in a silica microsphere, covering multiple telecommunication bands with a 270-nm comb. Different pump wavelengths and dispersion regions have varying effects on the generation of optical frequency combs, with the mechanisms of individual peaks verified through numerical simulations.
Optical frequency combs generated in whispering gallery mode microresonators are in high demand for basic science and a large number of applications including telecommunication systems and quantum optics. Here, we study experimentally and theoretically optical frequency comb generation in a silica microsphere with a zero dispersion wavelength near 1.55 mu m pumped by a continuous wave laser widely tunable in the C-band. We considered the optical frequency comb generation for a pump wavelength in a normal dispersion region, in a low anomalous dispersion region, and very close to the zero dispersion wavelength. Kerr-assisted and Raman-assisted (Stokes) combs as well as anti-Stokes combs emerging due to the four-wave mixing between the Kerr and Raman combs are attained in experiments. The mechanisms of producing individual peaks of optical frequency combs are verified in numerical simulations. A 270-nm optical frequency comb covering the telecommunication E-, S-, C-, L-, U-bands and further up to 1.7 mu m is also demonstrated.

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