High power all-solid-phase double resonance sum frequency blue light laser arrangement
A laser device, all solid-state technology, applied in the field of lasers, can solve problems such as difficult adjustment, achieve high-power blue light output, and simple structure
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Embodiment 1
[0034] Embodiment 1: According to figure 2 Create a dual-resonance sum-frequency blue laser device that outputs continuous wave blue light
[0035]The laser laser device includes sequentially placing semiconductor lasers on the optical path as the pump light source 10, using a plano-concave mirror, whose plane is coated with an 808nm antireflection coating, and the concave surface is coated with an 808nm antireflection coating and 1319nm, 660nm, and 440nm high reflection coatings for resonance Cavity mirror 1; laser crystal Nd:YAG 2, frequency doubling crystal 4, and cavity mirror 6 are plano-concave mirrors, and the concave surface is coated with 1319nm, 660nm high-reflection film and 440nm anti-reflection film; and beam splitting prism 7; also includes: a And frequency crystal 5, it selects LBO crystal for use, and its cutting angle is θ=90.0°, Ф=21.0°, placed between frequency doubling crystal 4 and cavity mirror 6, dispersion compensation element 3 and a beam splitting pr...
Embodiment 2
[0037] Example 2: Press image 3 Create a dual-resonance sum-frequency blue-light compound cavity laser device that outputs continuous wave blue light
[0038] The laser device includes sequentially placing LD semiconductor lasers as the pump light source 10 on the optical path, using a plano-concave mirror, coating the plane with an 808nm antireflection coating, and the concave surface is coated with an 808nm antireflection coating and 1319nm, 660nm, and 440nm high reflection coatings as a resonant cavity Mirror 1; laser crystal Nd:YAG2, a frequency doubling crystal 4 select LBO crystal, the cutting angle of BBO is θ=4.2°, Ф=0°, a concave surface is plated with 1319nm, 660nm high reflection coating and 440nm anti-reflection coating The plano-concave mirror is used as the cavity mirror 6 and the beam splitting prism 7, and is characterized in that it also includes: a compound cavity mirror 8, and a sum frequency crystal 5 selects a periodically poled lithium niobate crystal PP...
Embodiment 3
[0042] According to the optical path in Figure 4, a dual-resonance external cavity and high-frequency blue light laser device outputting quasi-continuous wave blue light was fabricated
[0043] This laser device comprises that semiconductor lasers are placed in sequence as the pump light source 10, with an anti-reflection film of 808nm and a high-reflection film of 1342nm, 671nm, and 447nm on the front face, and a laser crystal 2 with an anti-reflection film of 1342nm, 671nm, and 447nm on the rear end face. The front face is used as a resonant cavity mirror; the dispersion compensation element 3, the frequency doubling crystal 4, the sum frequency crystal 5, and the beam splitting prism 7 are characterized in that: a Q switch 9 is placed between the frequency doubling crystal 4 and the sum frequency crystal 5 Among them; the pump light source 10 is placed in front of the laser crystal 2 to pump from the end face, and the side close to the Q switch 9 is coated with 1342nm, 671nm...
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