Optical parametric oscillator for intracavity mode mismatch compensation
An optical parametric oscillator and mismatch compensation technology, applied in the field of optoelectronics
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Embodiment 1
[0017] Embodiment 1: according to image 3 An optical parametric oscillator with cavity mode mismatch compensation is fabricated for the output of 1.5 micron laser.
[0018] Laser crystal 2 uses Nd:YVO 4 ; The nonlinear optical crystal 5 adopts KTP cut according to the non-critical phase matching of θ=90°, φ=0°; the planar dielectric mirror 7 for absorbing idler light adopts a 4mm thick BK7 glass lens. Total anti-cavity mirror 1 is coated with a film system that is highly reflective to 1.06 micron fundamental frequency laser; output cavity mirror 6 is coated with a film system that is highly reflective to 1.06 micron fundamental frequency laser and has a transmittance of 13% for 1.5 micron signal light; composite cavity mirror 4 Coated with a film system with high transmission for 1.06 micron fundamental frequency laser and high reflection for 1.5 micron signal light; planar dielectric mirror for absorbing idler frequency light 7 Coating for 1.5 micron signal light, 3.5 micro...
Embodiment 2
[0020] Embodiment 2: According to Figure 4 An optical parametric oscillator with cavity mode mismatch compensation is fabricated for the output of 1.5 micron laser.
[0021] Laser crystal 2 uses Nd:YVO 4 ; The nonlinear optical crystal 5 adopts KTP cut according to the non-critical phase matching of θ=90°, φ=0°; the planar dielectric mirror 7 for idler light absorption adopts a 6mm thick BK7 glass lens. The full anti-cavity mirror 1 is coated with a film system that is highly reflective to the 1.06 micron fundamental frequency laser; the output cavity mirror 6 is coated with a film system that is highly reflective to the 1.06 micron fundamental frequency laser and has a light transmittance of 13% for the 1.5 micron signal; The side (left side) of the light-absorbing planar dielectric mirror 7 close to the acousto-optic Q switch 3 is coated with a film system that is highly transparent to the 1.06 micron fundamental frequency laser and at the same time highly reflective to th...
Embodiment 3
[0023] Embodiment 3: according to image 3 (or Figure 4 ) to make an optical parametric oscillator with cavity mode mismatch compensation for outputting 1.5 micron laser.
[0024] The difference from Examples 1 and 2 is that the laser crystal 2 uses Nd:YAG or Nd:YAP or Nd:KGW or Nd:GdVO 4 , to fabricate an optical parametric oscillator with cavity mode mismatch compensation.
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