A Broadband Coupling Optical Microcavity System Integrated on Chip and Its Coupling Method
An optical microcavity and broadband technology, applied in the field of micro-nano optics, can solve the problem that the wave vector changes of the waveguide mode and the whispering gallery mode are different, the broadband coupling between the optical waveguide and the circular optical microcavity cannot be realized, and the waveguide mode cannot be phase-matched, etc. problems to achieve high measurement quality factors
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Embodiment 1
[0026] Such as figure 2 As shown, the on-chip integrated broadband coupled optical microcavity system of this embodiment includes: a first laser light source 11, a second laser light source 12, a beam combiner 2, a focusing objective lens 3, an optical waveguide 4, and a non-circular optical microcavity 5. And the chip; the optical waveguide 4 and the non-circular optical microcavity are integrated in the chip.
[0027] In this embodiment, the optical waveguide has a width of 500 nanometers and a thickness of 500 nanometers. The boundary equation of the non-circular optical microcavity is Where n=4, R 0 =50 microns, a 1 =0.031644, a 2 = -0.099768,a 3 =0.012216, a 4 =0.128828, η=18% optical waveguide and non-circular optical microcavity use silicon dioxide.
[0028] The output laser wavelength of the first laser light source 11 is 1550 nanometers, and the output laser wavelength of the second laser light source 12 is 780 nanometers. The output laser light is transformed into a bea...
Embodiment 2
[0031] Such as image 3 As shown, the on-chip integrated broadband coupled optical microcavity system of this embodiment includes: a laser light source 1, a focusing objective lens 3, an optical waveguide 4, and a non-circular optical microcavity 5.
[0032] In this embodiment, the optical waveguide has a width of 500 nanometers and a thickness of 500 nanometers. The boundary equation of the non-circular optical microcavity is Where n=4, R 0 =50 microns, a 1 =0.031644, a 2 = -0.099768, a 3 =0.012216, a 4 =0.128828, η=18%. Optical waveguides and non-circular optical microcavities use lithium niobate.
[0033] The laser light source 1 outputs a laser with a wavelength of 1550 nanometers. The focusing objective lens 3 is focused on the end face of the optical waveguide 4, and then coupled from the optical waveguide 4 to the non-circular optical microcavity 5, which enhances the interaction between light and matter through the optical microcavity. The second harmonic is simultaneous...
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