Multi-wavelength tunable laser based on multi-channel optical superlattice
An optical superlattice, multi-channel technology, applied in the field of laser and nonlinear optical frequency conversion, can solve the problems of unutilized and wasted energy, and achieve the effect of improving energy utilization.
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Embodiment 1
[0032] Embodiment 1 of the present invention such as figure 1 As shown, a multi-wavelength tunable laser based on multi-channel optical superlattice, including pump source laser A, beam shaping system B, polarization beam splitting system C, two polarization conversion and beam focusing systems D1 and D2, beam The collection system E and the multi-channel optical parametric resonator F are characterized in that the pump source laser A is located before the beam shaping system B, the polarization beam splitting system C is located after the beam shaping system B, and the energy from the pump The laser light of Puyuan laser A is divided into two beams, one of which is placed in the polarization conversion and beam focusing system D1, and the other is placed in the polarization conversion and beam focusing system D2 and the beam collection system E, and the output ends of the two beams are both placed In front of the multi-channel optical parametric resonator F, the laser is outp...
Embodiment 2
[0036] Such as figure 2 As shown, it includes a pump source laser A, a beam shaping system B, a polarization beam splitting system C, two polarization conversion and beam focusing systems D1 and D2, a beam collection system E, and a multi-channel optical parametric resonator F, which is characterized in that the pump The pump source laser A is located before the beam shaping system B, and the polarization beam splitting system C is located after the beam shaping system B. After the polarization beam splitting system C, the laser light from the pump source laser A can be divided into two beams. The polarization conversion and beam focusing system D1 is placed, the polarization conversion and beam focusing system D2 and the beam collection system E are placed in the other optical path, the output ends of the two optical paths are placed in front of the multi-channel optical parametric resonant cavity F, and the Resonator F outputs laser light, wherein: beam shaping system B is ...
Embodiment 3
[0041] Embodiment 3 of the present invention such as image 3 As shown, it includes pump source laser A, beam shaping system B, polarization beam splitting system C, three polarization conversion and beam focusing systems D1, D2 and D3, beam collection system E, and multi-channel optical parametric resonator F. The pump source laser A is located before the beam shaping system B, and the polarization beam splitting system C is located after the beam shaping system B. After the polarization beam splitting system C, the laser light from the pump source laser A can be divided into three beams, one of which is The optical path is through the half-wave plate 4, polarizing beam splitter 5, half-wave plate 7, optical isolator 8, 45° mirror 6, and half-wave plate 25 in the polarization beam splitting system C , polarizing beam splitter 26 and 45° reflector 27 form, the second path optical path is through half-wave plate 4, polarizing beam splitter 5, half-wave plate 7, optical isolator...
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