Adjustable microcavity soliton optical frequency comb system and method based on special doped fiber
A technology of doped fiber and optical frequency comb, applied in lasers, phonon exciters, laser parts and other directions, can solve the problems of uncontrollable preparation process, complex preparation process, poor repeatability, etc., and achieve photothermal conversion efficiency High performance, strong environmental stability, and high preparation reproducibility
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Embodiment 1
[0055] figure 1 is a schematic diagram of a tunable microcavity soliton optical frequency comb system based on a special doped fiber according to an exemplary embodiment, such as figure 1 As shown, the system may include a soliton excitation module 1, a fiber ball comb module 2, a spectrum detection module 3 and an optical control tuning module 4, and the soliton excitation module 1 is used to generate a pump laser with adjustable wavelength, power and polarization; The fiber ball-comb module 2 is used to receive the pump laser to realize soliton excitation, and includes a fiber microsphere resonator 21 and a micro-nano coupling fiber 22, wherein the fiber microsphere resonator 21 is prepared based on a special doped fiber. , after the micro-nano coupling fiber 22 is coupled with the fiber microsphere resonant cavity 21, the soliton optical frequency comb signal is output from the micro-nano fiber, wherein the special doped fiber absorbs the spectrum of a specific band to perf...
Embodiment 2
[0077] The present application also provides a method for tuning a tunable optical frequency comb based on a special doped fiber. The method is applied to the system described in Embodiment 1, and may include:
[0078] Step S21: generating a pump laser with a predetermined wavelength, power and polarization through the soliton excitation module 1;
[0079] Step S22: The pump laser is transmitted to the micro-nano coupling fiber 22, and the position and distance of the micro-nano coupling fiber 22 and the fiber microsphere resonator 21 are adjusted, so that the soliton optical frequency comb signal is in the fiber microsphere. The surface of the resonant cavity 21 is generated and output by the micro-nano coupling fiber 22;
[0080] Step S23: Input the soliton optical frequency comb signal into the spectrum detection module 3 and transmit the first output of the spectrum detection module 3 to the optical control tuning module 4, so as to adjust the optical fiber through the out...
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