Disinfection device for common ophthalmology inspectoscope

Abstract

The invention provides a disinfection device for a common ophthalmology inspectoscope. The disinfection device structurally comprises a positioning bottom plate, a control host, a heat dissipation end, a display screen and a disinfection structure, after the disinfection structure is further improved, a disinfectant is stored through the liquid disinfector, and then the bearing box utilizes multiple slots and sliding rails to enable multiple assembly carriers to move in parallel through the sliding blocks, so that different types of inspectoscopes can be disinfected separately; furthermore, the loading body can enable the disinfectant sprayed out of the round hole area to continuously flow downwards through the partition net of the limiting frame and finally gather at the bottom of the bearing box, and meanwhile, the disinfectant can flow back to an inspection mirror on the partition net by combining a triangular block, so that the situation that the disinfectant is directly sprayed out and permeates from a gap area is prevented; and the disinfection stability of the inspection mirror on the partition net can be improved through cooperation with an internal ultraviolet lamp piece, and the disinfection comprehensiveness effect of the inspection mirror can be improved through the ultraviolet lamp piece on the inner wall of the limiting frame according to the type classification and the backflow disinfectant.

Description

Technical Field

[0001] This invention relates to the field of ophthalmic endoscope disinfection technology, and more specifically to a disinfection device for commonly used ophthalmic endoscopes. Background Technology

[0002] Commonly used ophthalmic examination endoscopes include slit-lamp microscopes, direct ophthalmoscopes, and indirect ophthalmoscopes. The appropriate endoscope is used to examine the relevant parts of the eye. After examining a patient's eye, the endoscopes are collected in a dedicated disinfection device for targeted disinfection. This allows the endoscopes to be reused and prevents cross-infection caused by the endoscopes carrying germs coming into contact with other patients' eyes. In summary, the inventors have found that existing disinfection devices have the following main drawbacks: Because current disinfection devices uniformly collect all types of examination endoscopes for simultaneous disinfection, the different types of endoscopes require individual identification after disinfection. This reduces the efficiency of endoscope classification after disinfection. Furthermore, the obstruction between endoscopes reduces the comprehensive coverage of the ultraviolet lamp and 84 disinfectant spray, resulting in some areas of the endoscopes not being accurately disinfected, thus reducing the overall effectiveness of endoscope disinfection. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a disinfection device for commonly used ophthalmic examination mirrors, the structure of which includes: a positioning base plate, a control host, a heat dissipation end, a display screen, and a disinfection structure. The upper end of the positioning base plate vertically positions the control host and the disinfection structure, and the edge of the control host carries a heat dissipation end, and the internal temperature value of the disinfection structure is observed through the display screen.

[0004] As a further improvement of the present invention, the disinfection structure is provided with a liquid disinfection device, which is located at the upper end of the load-bearing box. The front end of the load-bearing box has a slot and the edge has a slide rail for inserting and embedding the carrier and the slider.

[0005] As a further improvement of the present invention, the mounting carrier is also provided with a pull block, which is fixed to the outer area of ​​the front plate and the other end of the front plate is equipped with a limit frame to determine the positioning groove and one end is opened with a round hole to communicate with the internal partition mesh. The inner side of the front plate is also equipped with a triangular block set in the opposite position of the round hole to cooperate with the partition mesh at a distance.

[0006] As a further improvement of the present invention, the liquid sterilizer of the disinfection structure sprays disinfectant on the carrier inside the load-bearing box. Then, the carrier moves horizontally in the slide rail and slot area by the slider, so that the partition net of the limiting frame is exposed or pushed into the load-bearing box. The limiting frame is spliced ​​with the slider by the edge positioning groove, and at the same time, it contacts the inspection mirror by the inner partition net. Then, the limiting frame is inserted and aligned with the liquid sterilizer component through the round hole.

[0007] As a further improvement of the present invention, the positioning base plate is perpendicular to the control host and the disinfection structure, and the front end of the control host is electrically connected to the disinfection structure. The disinfection structure includes a constant temperature module that monitors and controls the internal temperature of the disinfection structure through a display screen.

[0008] As a further improvement of the present invention, the liquid sterilizer contains a disinfectant and the load-bearing box has multiple slots, the number of slots matching the number of slide rails to allow the carrier and slider to move in parallel.

[0009] As a further improvement of the present invention, the pull block is connected to the front plate by welding. The limiting frame of the front plate is spliced ​​with one end of the slider through the positioning groove and is aligned with the components of the liquid sterilizer by using the round hole. The partition net is set in a parallel position. The triangular block is solid. The inner wall area of ​​the limiting frame is also equipped with an ultraviolet lamp.

[0010] As a further improvement of the present invention, the liquid sterilizer is provided with a container, and the lower ends of the container are connected to the two sides of the limiting plate. A solid plate is connected to the side of the limiting plate. A central block is provided at the lower end of the solid plate and a guide block mounted on the top is embedded in the lower end of the container to set the conduit in the surface area of ​​the solid plate. The conduit carrying a nozzle is embedded in the circular hole area of ​​the limiting frame and communicates with the partition net and the triangular block.

[0011] As a further improvement of the present invention, the limiting plates at the lower end of the container are symmetrical to each other and limit the edge of the solid plate. The surface of the solid plate is provided with multiple sets of conduits and guide blocks, and the disinfectant of the container is sprayed into the carrier through the nozzle to contact the inspection mirror.

[0012] As a further improvement of the present invention, the nozzle is also provided with a restraining column, which is welded to the bottom center of the adsorption plate and the upper layer of the adsorption plate covers the bottom of the small water pump. The small water pump has a connecting groove on its side connected to a conduit, and a straight pipe is mounted on the top of the small water pump.

[0013] As a further improvement of the present invention, the diameter of the restraining column is smaller than that of the adsorption disk and they are perpendicular to each other. The small water pump side connection groove of the adsorption disk is circular and matches the shape of the conduit. The straight pipe is a circular protrusion inserted into the circular hole area of ​​the limiting frame.

[0014] As a further improvement of the present invention, a parallel block is also provided at the bottom of the load-bearing box. The parallel block covers the lower end of the fixed block. An assembly block is connected to the upper edge of the fixed block and embedded in the bottom edge of the load-bearing box, so that the empty groove at the center position is connected to the bottom of the partition net. An inclined block is provided in the empty groove area and an output pipe is connected to the outside.

[0015] As a further improvement of the present invention, the parallel block and the fixed block are parallel to each other. The assembly block of the fixed block is set in a vertical orientation and is set at the edge position to complete the splicing with the bottom of the load-bearing box in a vertical interlocking manner. The empty groove is in a concave shape and the disinfectant introduced by the partition net is guided to the output pipe area by the inclined block.

[0016] As a further improvement of the present invention, the output tube is also provided with a connecting plate, the connecting plate is disposed at one end of the tube body and the tube body has an output groove in the center, the upper and lower ends of the tube body are also provided with protrusions and the edges are equipped with magnetic blocks.

[0017] As a further improvement of the present invention, the area of ​​the connecting plate is the same as that of the tube body, and the output slot of the tube body is opened in a straight line. Solid protrusions and magnetic blocks are provided at both the upper and lower ends of the tube body.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention, with further improvements to the disinfection structure, stores disinfectant in a liquid sterilizer. The load-bearing box utilizes multiple slots and slide rails to allow multiple assembled carriers to move parallel via sliders, enabling separate disinfection of different types of examination mirrors. Furthermore, the carriers, through the partition mesh of the limiting frame, allow the disinfectant sprayed from the circular holes to continuously flow downwards and eventually collect at the bottom of the load-bearing box. Simultaneously, the triangular blocks allow the disinfectant to flow back onto the examination mirrors on the partition mesh, preventing direct spraying and seepage through gaps. Combined with the internal ultraviolet lamps, this improves the disinfection stability of the examination mirrors on the partition mesh. The classification by type, the reflux of disinfectant, and the ultraviolet lamps on the inner wall of the limiting frame enhance the overall disinfection effect on the examination mirrors.

[0019] 2. This invention further improves upon the liquid sterilizer by using a limiting plate at the lower end of the container to restrict the position of the solid plate, allowing the center block at the bottom of the solid plate to insert into the bottom area of ​​the load-bearing box. This enables the guide blocks arranged on the surface to introduce the sterilization solution into the conduit area. The conduit then uses a small water pump at the nozzle to draw out the sterilization solution and spray it out from the straight pipe position. During this process, the straight pipe will insert into the circular hole area of ​​the limiting frame, which improves the restraint strength of the limiting frame position and the stability of the sterilization spray, indirectly improving the sterilization stability of the examination endoscope.

[0020] 3. This invention further improves upon the bottom of the load-bearing box by using parallel blocks to ensure the stable installation of the fixing block on the positioning base plate surface. Then, the fixing block is spliced ​​with the bottom of the load-bearing box through the assembly block, so that the empty groove in the center position can communicate with the bottom of the partition net, ensuring stable reception of the used disinfectant. Subsequently, the disinfectant is guided to the output pipe area by the tilting block. Therefore, the output pipe can be stably spliced ​​with the recycling box through the magnetic protrusion and magnetic block, allowing the used disinfectant to flow out and be recycled stably, thereby improving the convenience of the disinfection device for the recycling and processing of disinfectant. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of a disinfection device for a commonly used ophthalmic examination scope.

[0022] Figure 2 This is a three-dimensional structural diagram of an improved disinfection structure.

[0023] Figure 3 This is a schematic diagram of a three-dimensional structure of an improved carrier.

[0024] Figure 4 This is a cross-sectional structural diagram of an improved liquid sterilizer.

[0025] Figure 5 This is a three-dimensional structural diagram of an improved nozzle.

[0026] Figure 6 This is a schematic diagram of a three-dimensional structure of an improved bottom of a load-bearing box.

[0027] Figure 7 This is a three-dimensional structural diagram of an improved output tube.

[0028] In the diagram: Positioning base plate-1, Control host-2, Heat dissipation end-3, Display screen-4, Disinfection structure-5; Liquid sterilizer-51, load-bearing box-52, slot-53, slide rail-54, carrier-55, slider-56; Pull block-551, front plate-552, limit frame-553, positioning groove-554, round hole-555, partition mesh-556, triangular block-557; Container-511, Limiting plate-512, Solid plate-513, Center block-514, Guide block-515, Conduit-516, Nozzle-517; Constraint column-5171, adsorption plate-5172, small water pump-5173, connecting groove-5174, straight pipe-5175; Parallel block-521, fixed block-522, assembly block-523, empty slot-524, tilting block-525, output pipe-526; Connecting plate-5261, tube body-5262, output slot-5263, protrusion-5264, magnetic block-5265. Detailed Implementation

[0029] The present invention will be further described below with reference to the accompanying drawings: Example 1: Figures 1 to 5 As shown: This invention provides a sterilization device for commonly used ophthalmic examination mirrors. Its structure includes a positioning base plate 1, a control host 2, a heat dissipation end 3, a display screen 4, and a disinfection structure 5. The upper end of the positioning base plate 1 vertically positions the control host 2 and the disinfection structure 5, and the edge of the control host 2 carries the heat dissipation end 3. The internal temperature value of the disinfection structure 5 is observed through the display screen 4.

[0030] The disinfection structure 5 is equipped with a liquid disinfection device 51, which is located at the upper end of the load-bearing box 52. The front end of the load-bearing box 52 has a slot 53 and the edge has a slide rail 54 to allow the carrier 55 and the slider 56 to be inserted and embedded.

[0031] The carrier 55 is also provided with a pull block 551, which is fixed to the outer area of ​​the front plate 552. The other end of the front plate 552 is equipped with a limit frame 553 to define the positioning groove 554 and has a round hole 555 at one end that communicates with the internal partition mesh 556. The inner side of the front plate 552 is also equipped with a triangular block 557, which is positioned opposite to the round hole 555 and is spaced to fit the partition mesh 556.

[0032] In this process, the liquid sterilizer 51 of the disinfection structure 5 sprays disinfectant onto the carrier 55 inside the load-bearing box 52. Then, the carrier 55 moves horizontally in the area of ​​the slide rail 54 and slot 53 via the slider 56, exposing or pushing the partition net 556 of the limiting frame 553 into the load-bearing box 52. The limiting frame 553 is spliced ​​with the slider 56 through the edge positioning groove 554, and at the same time, it contacts the inspection mirror using the inner partition net 556. Then, the limiting frame 553 is inserted and aligned with the liquid sterilizer 51 component through the round hole 555.

[0033] The positioning base plate 1 is perpendicular to the control host 2 and the disinfection structure 5, and the front end of the control host 2 is electrically connected to the disinfection structure 5. The disinfection structure 5 contains a constant temperature module that monitors and controls the internal temperature of the disinfection structure 5 through the display screen 4.

[0034] The liquid sterilizer 51 contains a disinfectant and the load-bearing box 52 has multiple slots 53. The number of slots 53 matches the number of slide rails 54, allowing the carrier 55 and the slider 56 to move in parallel.

[0035] The pull block 551 is connected to the front plate 552 by welding. The limiting frame 553 of the front plate 552 is spliced ​​with one end of the slider 56 through the positioning groove 554 and is aligned with the components of the liquid sterilizer 51 through the round hole 555. The partition net 556 is set in a parallel position. The triangular block 557 is solid. The inner wall area of ​​the limiting frame 553 is also equipped with an ultraviolet lamp.

[0036] The liquid sterilizer 51 is equipped with a container 511. Limiting plates 512 are connected to both sides of the lower end of the container 511. A solid plate 513 is connected to the side of the limiting plate 512. A central block 514 is provided at the lower end of the solid plate 513, and a guide block 515 mounted on the top is embedded in the lower end of the container 511. A conduit 516 is placed on the surface area of ​​the solid plate 513. The conduit 516 carries a nozzle 517 and is embedded in the circular hole 555 area of ​​the limiting frame 553, communicating with the partition net 556 and the triangular block 557.

[0037] The limiting plates 512 at the lower end of the container 511 are symmetrical to each other and limit the edge of the solid plate 513. The surface of the solid plate 513 is provided with multiple sets of conduits 516 and guide blocks 515, and the disinfectant of the container 511 is sprayed into the carrier 55 through the nozzle 517 to contact the inspection mirror.

[0038] The nozzle 517 is also provided with a restraining column 5171, which is welded to the bottom center of the adsorption plate 5172 and the upper layer of the adsorption plate 5172 covers the bottom of the small water pump 5173. The small water pump 5173 has a connecting groove 5174 on its side that is connected to the conduit 516, and a straight pipe 5175 is mounted on the top of the small water pump 5173.

[0039] The diameter of the restraining column 5171 is smaller than that of the adsorption plate 5172 and they are perpendicular to each other. The side connecting groove 5174 of the small water pump 5173 of the adsorption plate 5172 is circular and matches the shape of the conduit 516. The straight pipe 5175 is a circular protrusion that is inserted into the circular hole 555 area of ​​the limiting frame 553.

[0040] The specific functions and operation procedures of this embodiment are as follows: In this invention, the disinfection device for commonly used ophthalmic examination endoscopes can vertically position the control host 2 and the disinfection structure 5 via the positioning base plate 1. When the control host 2 controls the disinfection structure 5, it can monitor the internal temperature of the disinfection structure 5 via the display screen 4 to prevent the disinfectant from becoming ineffective due to excessive temperature, ensuring stable disinfection of the examination endoscope. Furthermore, the control host 2 can maintain its own temperature balance through the heat dissipation end 3 during operation. Subsequently, the load-bearing box 52 of the disinfection structure 5 is vertically installed on the upper end of the positioning base plate 1, and the liquid disinfectant 51 mounted on the top can stably spray the disinfectant into the carrier 55 area of ​​the slot 53, allowing the carrier 55 to pass through the slot 53. 3. Insert the slide, and then use the slide rail 54 to allow the slider 56 to slide, achieving a parallel sliding effect. This allows the inspection mirror to be loaded into the load-bearing box 52 or pulled out. Simultaneously, multiple slots 53 and the carrier 55 effectively separate and store different types of inspection mirrors, facilitating classification. The limiting frame 553 of the carrier 55 can be manually pulled by the pull block 551 on the front plate 552, allowing the limiting frame 553 to move stably within the slide rail 54 area, assembling with the slider 56 through the positioning groove 554. The inner partition mesh 556 then makes parallel contact with and loads the inspection mirror. The circular hole 555 at one end of the limiting frame 553 allows the liquid sterilizer 51 to sterilize. The disinfectant is sprayed, and the triangular block 557 mounted on the front plate 552 limits the position of the disinfectant. The triangular shape allows the disinfectant to flow back to the inspection mirror area of ​​the partition mesh 556, achieving a stable disinfection effect. Simultaneously, the disinfectant gradually permeates downwards through the partition mesh 556 and eventually collects at the bottom of the load-bearing box 52 for stable recovery. During the disinfection process, the container 511 of the liquid sterilizer 51 is stably installed on the upper part of the load-bearing box 52 after being vertically inserted into one end area of ​​the load-bearing box 52 by the limiting plate 512. Then, the limiting plate 512 limits the position of the solid plate 513, and the bottom center block 514 of the solid plate 513 is inserted into the bottom area of ​​the load-bearing box 52. Then, multiple sets of guide blocks 515 and conduits 516 on the surface... By connecting the nozzle 517 into the circular hole 555 and the inspection mirror of the partition mesh 556, the restraining column 5171 and the suction plate 5172 of the nozzle 517 can stably install the small water pump 5173 on the surface of the solid plate 513. This allows the conduit 516 to pass through and communicate with each other via the connecting groove 5174. At the same time, the small water pump 5173 can lead out the disinfectant from the conduit 516 and spray it directly into the inspection mirror area of ​​the partition mesh 556 through the straight pipe 5175 for contact coverage disinfection. When the straight pipe 5175 is inserted into the circular hole 555 area, it can indirectly limit the position of the limiting frame 553, improving the parallel use effect of the limiting frame 553. Therefore, it can effectively improve the disinfection intensity and stability of the inspection mirror.

[0041] Example 2: Figures 6 to 7 As shown: This invention provides a sterilization device for commonly used ophthalmic examination mirrors. Its structure includes a parallel block 521 at the bottom of the load-bearing box 52, the parallel block 521 covering the lower end of the fixed block 522, an assembly block 523 connected to the upper edge of the fixed block 522 and embedded in the bottom edge of the load-bearing box 52, and the empty groove 524 at the center position communicating with the lower part of the partition net 556, an inclined block 525 provided in the area of ​​the empty groove 524 and an output pipe 526 connected to the outside.

[0042] The parallel block 521 and the fixed block 522 are parallel to each other. The assembly block 523 of the fixed block 522 is set in a vertical orientation and is set at the edge position to complete the splicing with the bottom of the load-bearing box 52 in a vertical interlocking manner. The empty groove 524 is in a concave shape and guides the disinfectant introduced by the partition net 556 to the output pipe 526 area through the inclined block 525.

[0043] The output tube 526 is also provided with a connecting plate 5261. The connecting plate 5261 is disposed at one end of the tube body 5262 and the tube body 5262 has an output groove 5263 in the center. The tube body 5262 is also provided with protrusions 5264 at the upper and lower ends and magnetic blocks 5265 on the edge.

[0044] The area of ​​the connecting plate 5261 is the same as that of the tube body 5262, and the output slot 5263 of the tube body 5262 is opened in a straight line. Solid protrusions 5264 and magnetic blocks 5265 are provided at both the upper and lower ends of the tube body 5262.

[0045] The specific functions and operation procedures of this embodiment are as follows: In this invention, the parallel block 521 at the bottom of the load-bearing box 52 can improve the vertical stability of the load-bearing box 52 on the surface of the positioning base plate 1 through the fixing block 522. Then, the assembly block 523 on the upper edge of the fixing block 522 can be vertically inserted into the bottom edge of the load-bearing box 52, ensuring that the central slot 524 can communicate with the area below the partition net 556. So when the slot 524 receives the disinfectant after use in the area of ​​the partition net 556, the disinfectant can be guided to the output pipe 526 area by the inclined block 525. Then, the pipe body 5262 of the output pipe 526 can... The connection plate 5261 completes the splicing with one end of the fixing block 522, allowing the used disinfectant to flow out through the output slot 5263 of the tube body 5262. At the same time, the upper and lower protrusions 5264 allow the corresponding liquid recovery tank to be embedded in parallel, and then the magnetic block 5265 is used for adsorption and fixation, ensuring that the used disinfectant can flow stably into the recovery tank. This prevents the accumulation of too much disinfectant at the bottom of the load-bearing structure 52, which would make it difficult to handle. Therefore, it indirectly improves the convenience of the disinfection device for the recycling and treatment of used disinfectant.

[0046] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A sterilization device for commonly used ophthalmic examination endoscopes, comprising: The system comprises a positioning base plate (1), a control host (2), a heat dissipation end (3), a display screen (4), and a disinfection structure (5). The upper end of the positioning base plate (1) vertically positions the control host (2) and the disinfection structure (5), and the edge of the control host (2) carries a heat dissipation end (3). The internal temperature value of the disinfection structure (5) is observed through the display screen (4). The system is characterized by: The disinfection structure (5) is equipped with a liquid disinfection device (51). The liquid disinfection device (51) is located at the upper end of the load-bearing box (52). The front end of the load-bearing box (52) has a slot (53) and the edge has a slide rail (54) to allow the carrier (55) and the slider (56) to be inserted and embedded. The mounting carrier (55) is also provided with a pull block (551), which is fixed to the outer area of ​​the front plate (552). The other end of the front plate (552) is equipped with a limit frame (553) to determine the positioning groove (554), and one end is opened with a round hole (555) to communicate with the internal partition mesh (556). The inner side of the front plate (552) is also equipped with a triangular block (557) which is set in the opposite position of the round hole (555) and is spaced to match the partition mesh (556). Disinfectant is sprayed onto the carrier (55) inside the load-bearing box (52) by the liquid sterilizer (51) of the disinfection structure (5). Then, the carrier (55) is moved by the slider (56) in the area of ​​the slide rail (54) and slot (53) to expose the partition net (556) of the limiting frame (553) to the outside or push it into the load-bearing box (52). The limiting frame (553) is spliced ​​with the slider (56) through the edge positioning groove (554). At the same time, the inner partition net (556) is in contact with the inspection mirror. Then, the limiting frame (553) is inserted and aligned with the liquid sterilizer (51) component through the round hole (555).

2. The disinfection device for commonly used ophthalmic examination lenses according to claim 1, characterized in that: The positioning base plate (1) is perpendicular to the control host (2) and the disinfection structure (5), and the front end of the control host (2) is electrically connected to the disinfection structure (5). The disinfection structure (5) contains a constant temperature module that monitors and controls the internal temperature of the disinfection structure (5) through the display screen (4).

3. The disinfection device for commonly used ophthalmic examination lenses according to claim 1, characterized in that: The liquid sterilizer (51) contains a disinfectant and the load-bearing box (52) has multiple slots (53). The number of slots (53) matches the number of slide rails (54) to allow the carrier (55) and slider (56) to move in parallel.

4. The disinfection device for a commonly used ophthalmic examination scope according to claim 1, characterized in that: The pull block (551) is connected to the front plate (552) by welding. The limiting frame (553) of the front plate (552) is spliced ​​to one end of the slider (56) through the positioning groove (554) and is aligned with the components of the liquid sterilizer (51) through the round hole (555). The partition net (556) is set in a parallel position. The triangular block (557) is solid. The inner wall area of ​​the limiting frame (553) is also equipped with an ultraviolet lamp.

5. The disinfection device for a commonly used ophthalmic examination scope according to claim 1, characterized in that: The liquid sterilizer (51) is provided with a container (511). The lower end of the container (511) is connected to two limit plates (512). A solid plate (513) is connected to the side of the limit plate (512). A center block (514) is provided at the lower end of the solid plate (513), and a guide block (515) mounted on the top is embedded in the lower end of the container (511). A conduit (516) is set on the surface area of ​​the solid plate (513). The conduit (516) carries a nozzle (517) which is embedded in the circular hole (555) area of ​​the limit frame (553) and communicates with the partition net (556) and the triangular block (557). The limiting plates (512) at the lower end of the container (511) are symmetrical to each other and limit the edge of the solid plate (513). The surface of the solid plate (513) is provided with multiple sets of conduits (516) and guide blocks (515), and the disinfectant of the container (511) is sprayed into the carrier (55) through the nozzle (517) to contact the examination mirror.

6. The disinfection device for a commonly used ophthalmic examination scope according to claim 5, characterized in that: The nozzle (517) is also provided with a restraining column (5171), which is welded to the bottom center of the adsorption plate (5172) and the upper layer of the adsorption plate (5172) covers the bottom of the small water pump (5173). The small water pump (5173) has a connecting groove (5714) on its side connected to the conduit (516). A straight pipe (5175) is mounted on the top of the small water pump (5173). The diameter of the restraining column (5171) is smaller than that of the adsorption plate (5172) and they are perpendicular to each other. The small water pump (5173) of the adsorption plate (5172) has a circular connecting groove (5714) that matches the shape of the conduit (516). The straight pipe (5175) is a circular protrusion that is inserted into the circular hole (555) area of ​​the limiting frame (553).

7. The disinfection device for commonly used ophthalmic examination scopes according to claim 1, characterized in that: The bottom of the load-bearing box (52) is also provided with a parallel block (521), which covers the lower end of the fixed block (522). The upper edge of the fixed block (522) is connected to an assembly block (523) which is embedded in the bottom edge of the load-bearing box (52) and allows the empty groove (524) in the center to communicate with the bottom of the partition net (556). The empty groove (524) area is provided with an inclined block (525) and an output pipe (526) is connected to the outside. The parallel block (521) and the fixed block (522) are parallel to each other. The assembly block (523) of the fixed block (522) is set in a vertical orientation and is set at the edge position to complete the splicing with the bottom of the load-bearing box (52) in a vertical interlocking manner. The empty groove (524) is in a concave shape and guides the disinfectant introduced by the partition net (556) to the output pipe (526) area through the inclined block (525).

8. The disinfection device for commonly used ophthalmic examination lenses according to claim 7, characterized in that: The output tube (526) is also provided with a connecting plate (5261), the connecting plate (5261) is located at one end of the tube body (5262) ​​and the tube body (5262) ​​has an output slot (5263) in the center. The tube body (5262) ​​is also provided with protrusions (5264) at the upper and lower ends and magnetic blocks (5265) are mounted on the edge. The area of ​​the connecting plate (5261) is the same as that of the tube body (5262), and the output slot (5263) of the tube body (5262) ​​is opened in a straight line. Solid protrusions (5264) and magnetic blocks (5265) are provided at the upper and lower ends of the tube body (5262).

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