Water cooling lens device of carbon dioxide equipment

Abstract

The utility model discloses a water cooling lens device of carbon dioxide equipment, and relates to the technical field of carbon dioxide light paths. Aiming at the phenomena that the reflective mirror in the carbon dioxide equipment is easy to deform and crack, according to the technical scheme, the reflective mirror water cooling device comprises a water cooling assembly embedded with the reflective mirror and a light path adjusting assembly for adjusting a light path, and the water cooling assembly comprises a closed water storage cavity, the reflective mirror and a quick plug; the reflective mirror is embedded in one side face of the closed water storage cavity and communicated with an inner cavity of the closed water storage cavity, and the quick plug is installed on the opposite side face of the closed water storage cavity and communicated with the inner cavity of the closed water storage cavity. The water cooling assembly is connected to the light path adjusting assembly through an adjusting screw and an adjusting spring, and a reflective mirror of the water cooling assembly directly faces a light path channel of the light path adjusting assembly. The utility model can reduce the temperature of the lens, effectively prevent the lens from deformation, prolong the service life of the lens, reduce the later maintenance cost, and stabilize the light path propagation.

Description

Technical Field

[0001] The utility model relates to the technical field of carbon dioxide optical paths, in particular to a water-cooled lens device for carbon dioxide equipment. Background Art

[0002] According to the use of CO2 equipment in the market, customers use the equipment frequently, which leads to fatigue effect of the light reflective lens after long-term operation. Due to the energy loss of light, some energy will be retained on the light reflective lens during the transmission process, which will cause the temperature of the light reflective lens to continue to rise. When the temperature reaches the limit of the lens, the lens will deform and crack. Summary of the invention

[0003] In view of the needs and shortcomings of current technological development, the utility model provides a water-cooled lens device for a carbon dioxide device, which achieves lens cooling by embedding a reflector in a water-cooling component and communicating the reflector with a water storage cavity of the water-cooling component.

[0004] The utility model is a water-cooled lens device for a carbon dioxide device, and the technical solution adopted to solve the above technical problems is as follows:

[0005] A water-cooled lens device for a carbon dioxide device, the structure of which includes a water-cooling component with a reflector embedded therein and an optical path adjustment component for adjusting the optical path, wherein:

[0006] The water cooling assembly includes a closed water storage cavity, a reflector and a quick plug, wherein the reflector is embedded in one side of the closed water storage cavity and communicates with the inner cavity of the closed water storage cavity, and the quick plug is installed on the opposite side of the closed water storage cavity and communicates with the inner cavity of the closed water storage cavity;

[0007] The water cooling component is connected to the optical path adjustment component through an adjustment screw and an adjustment spring, and the reflector of the water cooling component faces the optical path channel of the optical path adjustment component.

[0008] Optionally, the inner cavity cross-section of the closed water storage cavity parallel to the reflector is circular, and the diameter of the circular inner cavity of the closed water storage cavity is smaller than the diameter of the reflector.

[0009] Further optionally, the surface of the reflector embedded in the closed water storage cavity is a horizontal plane, the surface of the closed water storage cavity connected to the quick plug is an inclined surface, and the inner cavity cross-section of the closed water storage cavity perpendicular to the reflector is a right-angled trapezoid.

[0010] Preferably, the angle formed by the horizontal plane and the inclined plane of the closed water storage cavity extending and intersecting each other does not exceed 5°.

[0011] Preferably, the closed water storage cavity is formed by processing of aluminum plates.

[0012] Optionally, a lens mounting hole is provided on the surface of the closed water storage cavity, and the wire loop presses down the reflective mirror to embed it into the lens mounting hole of the closed water storage cavity.

[0013] Further optionally, a silicone sealing gasket is provided between the reflector and the lens mounting hole of the closed water storage cavity.

[0014] Optionally, the optical path adjustment assembly includes an adjustment plate, a 45° reflective seat and a reflective path fixing plate, one side of the adjustment plate is connected to the closed water storage cavity through an adjustment screw and an adjustment spring, the opposite side of the adjustment plate is connected to the 45° reflective seat through an adjustment bolt and an adjustment thread, and the surface of the 45° reflective seat that is not in contact with the adjustment plate is fixedly connected to the reflective path fixing plate;

[0015] After the adjustment plate and the reflective seat are connected, an optical path channel facing the optical path adjustment component is formed.

[0016] Compared with the prior art, the water-cooled lens device of the utility model for carbon dioxide equipment has the following beneficial effects:

[0017] The utility model can reduce the temperature of the lens, effectively prevent the lens from deforming, increase the life of the lens, reduce the later maintenance cost, and at the same time stabilize the light path propagation. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Attached Figure 1 This is a structural diagram of the water-cooled lens device of the utility model;

[0019] Attached Figure 2 This is an exploded view of the water cooling component structure of the utility model;

[0020] Attached Figure 3 This is an exploded view of the optical path adjustment component structure of the utility model;

[0021] The information of each reference number in the accompanying drawings indicates:

[0022] 1. Closed water storage cavity, 2. Silicone sealing pad, 3. Reflector, 4. Wire ring,

[0023] 5. Quick plug, 6. Adjustment bolt, 7. Adjustment plate, 8. Adjustment thread,

[0024] 9. 45° reflective seat, 10. Reflective path fixing plate, 11. Water cooling assembly, 12. Optical path adjustment assembly. DETAILED DESCRIPTION

[0025] In order to make the technical solution, the technical problem solved and the technical effect of the present invention more clearly understood, the technical solution of the present invention is clearly and completely described below in conjunction with specific embodiments.

[0026] Embodiment 1:

[0027] Combined with Figure 1 This embodiment provides a water-cooled lens device for a carbon dioxide device, the structure of which includes a water-cooling component 11 with a reflector 3 embedded therein and an optical path adjustment component 12 for adjusting the optical path.

[0028] Combined with Figure 2 The water cooling component 11 includes a closed water storage cavity 1, a reflector 3 and a quick plug 5. The reflector 3 is embedded in one side of the closed water storage cavity 1 and is connected to the inner cavity of the closed water storage cavity 1. The quick plug 5 is installed on the opposite side of the closed water storage cavity 1 and is connected to the inner cavity of the closed water storage cavity 1. The water cooling component 11 is connected to the optical path adjustment component 12 through an adjusting screw and an adjusting spring, and the reflector 3 of the water cooling component 11 is opposite to the optical path channel of the optical path adjustment component 12.

[0029] Combined with Figure 3 The optical path adjustment component 12 includes an adjustment plate 7, a 45° reflective seat 9 and a reflective path fixing plate 10. One side of the adjustment plate 7 is connected to the closed water storage cavity 1 through an adjustment screw and an adjustment spring, and the opposite side of the adjustment plate 7 is connected to the 45° reflective seat 9 through an adjustment bolt 6 and an adjustment thread 8. The surface of the 45° reflective seat 9 that is not in contact with the adjustment plate 7 is fixedly connected to the reflective path fixing plate 10; after the adjustment plate 7 and the reflective seat are connected, an optical path channel facing the optical path adjustment component 12 is formed.

[0030] In this embodiment, a lens mounting hole is opened on the surface of the closed water storage cavity 1, and the wire ring 4 presses down the reflector 3 to embed it into the lens mounting hole of the closed water storage cavity 1; a silicone sealing gasket 2 is arranged between the reflector 3 and the lens mounting hole of the closed water storage cavity 1.

[0031] The operation of cooling the reflector 3 by using the water-cooled lens device of this embodiment is as follows: external water-cooling liquid enters the inner cavity of the closed water storage cavity 1 through the quick plug 5, and the water-cooling liquid in the inner cavity contacts the reflector 3 to achieve water cooling.

[0032] It should be added that, in order to better achieve the cooling of the reflector 3, the quick plug 5 includes a liquid inlet end and a liquid outlet end, and the external water-cooling liquid flows into the inner cavity of the closed water storage cavity 1 from the liquid inlet end of the quick plug 5, and flows out of the inner cavity of the closed water storage cavity 1 from the liquid outlet end of the quick plug 5. The rapid flow of the water-cooling liquid accelerates the cooling of the reflector 3.

[0033] Embodiment 2:

[0034] Combined with Figure 1 This embodiment provides a water-cooled lens device for a carbon dioxide device, the structure of which includes a water-cooling component 11 with a reflector 3 embedded therein and an optical path adjustment component 12 for adjusting the optical path.

[0035] Combined with Figure 2The water cooling component 11 includes a closed water storage cavity 1, a reflector 3 and a quick plug 5. The reflector 3 is embedded in one side of the closed water storage cavity 1 and is connected to the inner cavity of the closed water storage cavity 1. The quick plug 5 is installed on the opposite side of the closed water storage cavity 1 and is connected to the inner cavity of the closed water storage cavity 1. The water cooling component 11 is connected to the optical path adjustment component 12 through an adjusting screw and an adjusting spring, and the reflector 3 of the water cooling component 11 is opposite to the optical path channel of the optical path adjustment component 12.

[0036] Combined with Figure 3 The optical path adjustment component 12 includes an adjustment plate 7, a 45° reflective seat 9 and a reflective path fixing plate 10. One side of the adjustment plate 7 is connected to the closed water storage cavity 1 through an adjustment screw and an adjustment spring, and the opposite side of the adjustment plate 7 is connected to the 45° reflective seat 9 through an adjustment bolt 6 and an adjustment thread 8. The surface of the 45° reflective seat 9 that is not in contact with the adjustment plate 7 is fixedly connected to the reflective path fixing plate 10; after the adjustment plate 7 and the reflective seat are connected, an optical path channel facing the optical path adjustment component 12 is formed.

[0037] In this embodiment, the closed water storage cavity 1 is formed by aluminum plate, and a lens mounting hole is opened on the surface of the closed water storage cavity 1. The wire ring 4 presses down the reflector 3 to embed it into the lens mounting hole of the closed water storage cavity 1; a silicone sealing pad 2 is arranged between the reflector 3 and the lens mounting hole of the closed water storage cavity 1.

[0038] In this embodiment, the inner cavity section of the closed water storage cavity 1 parallel to the reflector 3 is circular, and the diameter of the circular inner cavity of the closed water storage cavity 1 is smaller than the diameter of the reflector 3. The surface of the closed water storage cavity 1 embedded with the reflector 3 is a horizontal plane, the surface of the closed water storage cavity 1 connected to the quick plug 5 is an inclined surface, and the inner cavity section of the closed water storage cavity 1 perpendicular to the reflector 3 is a right-angle trapezoid, and the angle formed by the horizontal plane and the inclined plane of the closed water storage cavity 1 extending and intersecting does not exceed 5°. This structural design can increase the inner cavity volume of the closed water storage cavity 1, so as to facilitate the injection of more water-cooling liquid into the inner cavity at one time, avoid frequent replacement of water-cooling liquid, and reduce costs.

[0039] The operation of cooling the reflector 3 by using the water-cooled lens device of this embodiment is as follows: external water-cooling liquid enters the inner cavity of the closed water storage cavity 1 through the quick plug 5, and the water-cooling liquid in the inner cavity contacts the reflector 3 to achieve water cooling.

[0040] It should be added that, in order to better achieve the cooling of the reflector 3, the quick plug 5 includes a liquid inlet end and a liquid outlet end, and the external water-cooling liquid flows into the inner cavity of the closed water storage cavity 1 from the liquid inlet end of the quick plug 5, and flows out of the inner cavity of the closed water storage cavity 1 from the liquid outlet end of the quick plug 5. In the process of cooling the reflector 3 by the water-cooling liquid in the inner cavity, when the temperature of the reflector 3 is too high in the early stage, the flowing water-cooling liquid can be used for rapid cooling, and when the temperature of the reflector 3 is significantly reduced in the later stage, the lens can be cooled by the static water-cooling liquid in the inner cavity.

[0041] In summary, the water-cooled lens device of the carbon dioxide equipment of the utility model can reduce the lens temperature, effectively prevent the lens from deforming, increase the lens life, reduce the subsequent maintenance cost, and stabilize the light path propagation.

[0042] The above specific examples are used to explain the principle and implementation of the utility model in detail. These examples are only used to help understand the core technical content of the utility model. Based on the above specific embodiments of the utility model, any improvements and modifications made by technicians in this technical field without departing from the principle of the utility model should fall within the scope of patent protection of the utility model.

Claims

1. A water-cooled lens device for a carbon dioxide device, characterized in that: Its structure includes a water cooling component with a reflector embedded therein and an optical path adjustment component for adjusting the optical path, wherein: The water cooling assembly includes a closed water storage cavity, a reflector and a quick plug, wherein the reflector is embedded in one side of the closed water storage cavity and communicates with the inner cavity of the closed water storage cavity, and the quick plug is installed on the opposite side of the closed water storage cavity and communicates with the inner cavity of the closed water storage cavity; The water cooling assembly is connected to the optical path adjustment assembly through an adjustment screw and an adjustment spring, and the reflector of the water cooling assembly faces the optical path channel of the optical path adjustment assembly.

2. A water-cooled lens device for a carbon dioxide device according to claim 1, characterized in that: The inner cavity cross-section of the closed water storage cavity parallel to the reflector is circular, and the diameter of the circular inner cavity of the closed water storage cavity is smaller than the diameter of the reflector.

3. A water-cooled lens device for a carbon dioxide device according to claim 2, characterized in that: The surface of the closed water storage cavity embedded with the reflector is a horizontal plane, the surface of the closed water storage cavity connected to the quick plug is an inclined surface, and the inner cavity cross-section of the closed water storage cavity perpendicular to the reflector is a right-angle trapezoid.

4. A water-cooled lens device for a carbon dioxide device according to claim 3, characterized in that: The angle formed by the horizontal plane and the inclined plane of the closed water storage cavity extending and intersecting each other does not exceed 5°.

5. The water-cooled lens device of the carbon dioxide equipment according to claim 1, characterized in that: The closed water storage cavity is formed by processing with an aluminum plate.

6. The water-cooled lens device of a carbon dioxide device according to claim 1, characterized in that: A lens mounting hole is provided on the surface of the closed water storage cavity, and the wire ring presses down the reflective mirror to embed it into the lens mounting hole of the closed water storage cavity.

7. A water-cooled lens device for a carbon dioxide device according to claim 6, characterized in that: A silicone sealing pad is arranged between the reflector and the lens mounting hole of the closed water storage cavity.

8. The water-cooled lens device of the carbon dioxide equipment according to claim 1, characterized in that: The optical path adjustment assembly includes an adjustment plate, a 45° reflective seat and a reflective path fixing plate, one side of the adjustment plate is connected to the closed water storage cavity through an adjustment screw and an adjustment spring, the opposite side of the adjustment plate is connected to the 45° reflective seat through an adjustment bolt and an adjustment thread, and the surface of the 45° reflective seat that does not contact the adjustment plate is fixedly connected to the reflective path fixing plate; The adjustment plate and the reflective seat are connected to form an optical path channel facing the optical path adjustment component.

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