Cooling method and cooling device for semi-conductor lamp pump and side pump laser device
A technology of cooling device and cooling method, which is applied to lasers, laser parts, phonon exciters, etc., to achieve the effect of good cooling effect and compact structure
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Embodiment 1
[0039] Embodiment 1 adopts the pumping mode of side pump, as attached figure 1 Among them, 3 is the laser cavity, the laser cavity adopts a highly reflective elliptical cylindrical cavity, and the laser rod and the xenon lamp are respectively placed on two focal points. The elliptical structure is based on geometric principles, and the light emitted from one focal point of the ellipse is reflected to the other focal point , therefore, the elliptical cylindrical cavity transfers the emitted energy of the straight tube lamp at one focal line to the laser medium at the second focal point. Laser crystals and xenon lamps are placed in the laser cavity, of which 1 is a laser crystal and 2 is a xenon lamp; in the vertical direction to the laser crystal rod, N slits are evenly opened on the laser cavity, and N rows of spray devices are arranged. Among them, 4, 5, 6, and 7 are 4 rows of spraying devices, wherein N=4; each row of spraying devices is provided with a spraying point every ...
Embodiment 2
[0041] Embodiment 2 adopts the pumping mode of the side pump, as attached figure 2 Among them, 3 is a laser cavity. The laser cavity adopts a tightly coupled elliptical cavity. The distance between the laser rod and the xenon lamp in the elliptical cylinder is very close, and it is usually the pumping cavity with the highest efficiency. There are laser crystals and xenon lamps placed in the laser cavity, of which 1 is the laser crystal and 2 is the xenon lamp; in the vertical direction to the laser crystal rod 1, there are N slits evenly opened on the laser cavity, and N rows of sprays are arranged. device, wherein 4, 5, 6, and 7 are 4 rows of spraying devices, wherein N=4; each row of spraying devices is provided with a spraying device every L1, wherein L1=10mm; the distance between the spraying device and the laser crystal rod The closest distance is L2, where L2=4.5mm; the flow rate of each spray device is P1, where P1=3mL / min; the diameter of the small water droplets prod...
Embodiment 3
[0043] Embodiment 3 adopts the pumping mode of the side pump, as attached image 3 Among them, 3 is a laser cavity, and the laser cavity adopts an out-of-focus cavity, and the laser rod and the xenon lamp are not at the two focal points of the elliptical laser cavity. In an elliptical cylindrical cavity, the radiated light passing through the laser rod will be defocused when it is reflected in the resonant cavity, and will no longer enter the laser rod. Using an out-of-focus cavity, the focus will be slightly improved, but the number of reflections on the cavity wall will increase substantially, so the system efficiency will be very dependent on the reflection of the cavity wall. Laser crystals and xenon lamps are placed in the laser cavity, of which 1 is a laser crystal and 2 is a xenon lamp; in the vertical direction to the laser crystal rod, N slits are evenly opened on the laser cavity, and N rows of spray devices are arranged. Among them, 4, 5, 6, and 7 are 4 rows of spr...
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