Microwave signal generation method and system based on microcavity feedback locking laser
A microwave signal and generation method technology, applied in the field of microwave photonics, can solve the problems of difficult optical path and circuit control, complex circuit, difficult on-chip integration, etc., and achieve the effect of simple and easy implementation, high system integration, and cost reduction
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Embodiment 1
[0075] Based on the backscattered light of the microcavity or the reflected light of the end surface, and the optical injection-locked single-frequency laser matching the two resonant peaks of the microcavity, the method of generating microwave signals is mainly composed of a single-frequency laser, a coupler, and a microcavity, such as image 3 shown. In addition, the method of generating microwave signals based on the microcavity backscattered light or end-face reflected light and the optical injection-locked laser matching the two resonant peaks of the microcavity can also be composed of a single-chip integrated dual-wavelength laser and a resonant cavity, that is, a single-chip The output end of the integrated dual-wavelength laser is directly connected to the input end of the microcavity. In this embodiment, all devices may be on-chip integrated devices.
[0076] The light output by the two single-frequency lasers is combined by a coupler, and the combined light enters the...
Embodiment 2
[0078] The light output by the laser passes through the microcavity and is matched with the two resonant peaks of the microcavity. The optical feedback injection locking method to generate microwave signals is mainly composed of a single-frequency laser, a coupler, a circulator, and a microcavity, such as Figure 4 shown. In addition, the light output by the laser passes through the microcavity, and the light whose operating frequency matches the two resonant peaks of the microcavity will be feedback injection locked to generate microwave signals. The method can also be composed of a single-chip integrated dual-wavelength laser, circulator, and resonant cavity. That is, the output end of the single-chip integrated dual-wavelength laser is directly connected to the 2-port of the circulator. In this embodiment, all devices may be on-chip integrated devices.
[0079] After the two single-frequency lasers are combined by the coupler, the light is input from port 2 of the circulat...
Embodiment 3
[0081] Based on the backscattered light of the microcavity or the reflected light of the end surface, and the optical injection-locked laser matching the two resonant modes (TE mode and TM mode) of the microcavity, the method of generating microwave signals mainly consists of a single-frequency laser, a coupler, and a polarization controller. , microcavity structure, such as Figure 5 shown. In addition, the method of generating microwave signals based on the microcavity backscattered light or end-face reflected light and the optical injection-locked laser that matches the two resonant modes (TE mode and TM mode) of the microcavity can also be composed of a monolithic integrated dual-wavelength laser, A polarization controller and a resonant cavity are formed, that is, the output end of the monolithic integrated dual-wavelength laser is directly connected to the polarization controller. In this embodiment, all devices may be on-chip integrated devices.
[0082] After the two...
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