Short-wave ultraviolet treatment equipment suitable for being used in vivo and in vitro

Abstract

The invention discloses in-vivo and in-vitro short-wave ultraviolet treatment equipment, and relates to the technical field of ultraviolet treatment equipment, the in-vivo and in-vitro short-wave ultraviolet treatment equipment comprises a main machine part and a cleaning part, the main machine part is rotatably connected with the cleaning part, the cleaning part is used for dust blocking and cleaning of the main machine part, and the cleaning part comprises a dustproof mechanism, a cleaning mechanism and a post-processing mechanism. The cleaning mechanism comprises a first driving assembly, a rotating assembly and at least one wiping assembly, the first driving assembly, the rotating assembly and the at least one wiping assembly are arranged in the dustproof mechanism, the first driving assembly is connected with the rotating assembly, and the at least one wiping assembly is installed on the rotating assembly; the first driving assembly and the rotating assembly drive the wiping assembly to move in a spiral track, the cleaning part is connected with the main machine part through a hinge and can be used as a protective cover in the non-use period, and dust falling of the treatment module is prevented. And after being used, the cleaning device can be directly overturned to enter a cleaning mode and is compact in structure and smooth in operation process.

Description

Technical Field

[0001] This invention relates to the field of ultraviolet therapy equipment technology, specifically a shortwave ultraviolet therapy device suitable for both in vivo and in vitro treatment. Background Technology

[0002] Shortwave ultraviolet (UV) therapy devices are commonly used in the medical field for sterilization, anti-inflammation, and tissue repair promotion on the body surface and inside cavities. They are particularly suitable for local treatment in departments such as dermatology, otolaryngology, and gynecology. Currently, commonly used shortwave ultraviolet therapy devices in clinical practice are usually equipped with replaceable or reusable external irradiation heads and internal treatment probes. During treatment, these modules come into direct contact with the patient's skin or mucous membranes, and are prone to adhering with biological residues such as tissue fluid, blood, and skin flakes. If not cleaned in time, this will not only reduce the transmission efficiency and treatment effect of ultraviolet rays, but may also become a breeding ground for bacteria, bringing the risk of cross-infection.

[0003] Existing cleaning methods mostly involve manual wiping or soaking disinfection by medical staff, which is cumbersome and time-consuming. Moreover, the cleaning effect depends on the operator's meticulousness, making it difficult to guarantee the thoroughness and consistency of each cleaning. Therefore, existing devices of this type mostly focus on optimizing the light source module and improving the treatment accuracy, while there are still significant shortcomings in the daily cleaning and maintenance of treatment accessories. Therefore, there is a need in this field for a shortwave ultraviolet therapy device that can achieve automated cleaning of the treatment module to improve the convenience, safety, and intelligence of clinical use and equipment maintenance. Summary of the Invention

[0004] The purpose of this invention is to provide a shortwave ultraviolet therapy device suitable for both in vivo and in vitro treatment, in order to solve the problems raised in the prior art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a shortwave ultraviolet therapy device suitable for in vivo and in vitro treatment, comprising a main unit and a cleaning unit, wherein the main unit is connected to the cleaning unit, and the cleaning unit performs dust protection and cleaning on the main unit; The cleaning unit includes a dustproof mechanism and a cleaning mechanism. The cleaning mechanism includes a first driving component, a rotating component, and at least one set of wiping components. The first driving component and at least one set of wiping components are disposed inside the dustproof mechanism. The rotating assembly includes a rotating cylinder installed inside the dustproof mechanism and connected to the first driving assembly. The rotating cylinder has at least one groove, in which a screw is rotatably mounted. A slider is also slidably mounted in each groove, and the slider is threadedly connected to the screw. The wiping assembly is mounted on the slider. The rotating cylinder also has at least one bottom groove. When the auxiliary driving component drives the screw to rotate, the screw drives the slider to slide up and down along the groove using a helical pair. When the rotating cylinder also rotates simultaneously, the wiping assembly rotates around the treatment module under the drive of the rotating cylinder, achieving comprehensive wiping of all parts of the treatment module.

[0006] Furthermore, each of the wiping components includes a reversing drive, a main shaft, a Y-shaped adapter arm, and a cleaning roller. The main shaft is connected to the reversing drive, the Y-shaped adapter arm is connected to the main shaft, and the cleaning roller is rolled on the side of the Y-shaped adapter arm away from the main shaft.

[0007] Furthermore, an electric push-pull rod is installed inside the main shaft, and a connecting rod is rotatably connected to the piston rod of the electric push-pull rod. A pin hole is opened on the side of the Y-shaped adapter arm away from the cleaning roller at the junction of the Y-shaped adapter arm and the main shaft. The end of the connecting rod away from the electric push-pull rod is connected to the Y-shaped adapter arm. Before wiping the treatment module, the electric push-pull rod uses the connecting rod to control the swing of the Y-shaped adapter arm so that the cleaning roller contacts the surface of the treatment module, and the cleaning roller is always kept in contact with the surface of the treatment module during the wiping process. When the slider slides upward, the Y-shaped adapter arm causes the cleaning roller to face downward, wiping the treatment module from bottom to top. When the slider returns to slide downward, the reversing drive rotates the Y-shaped adapter arm and causes the cleaning roller to face upward, wiping the treatment module from top to bottom, ensuring that both the ends and the middle of the treatment module are thoroughly cleaned.

[0008] Furthermore, the first driving assembly includes a main driving component, a driving ring, and an auxiliary driving component. The main driving component is connected to the bottom of the rotating cylinder. One end of the screw passes through the rotating cylinder and is connected to a bevel gear. The driving ring is rotatably mounted on the rotating cylinder. The inner ring of the driving ring has a conical tooth profile, and the outer ring of the driving ring has a cylindrical tooth profile. The conical tooth profile meshes with the bevel gear. The auxiliary driving component is connected to a driving gear, which meshes with the cylindrical tooth profile. The main driving component drives the rotating cylinder to rotate, and the auxiliary driving component drives the driving ring to rotate. If the rotational speed of the rotating cylinder is the same as the rotational speed of the driving ring, then the rotating cylinder and the driving ring are relatively stationary. When the rotation speed of the drive ring is faster than that of the rotating cylinder, there is relative motion between the drive ring and the rotating cylinder. The drive ring drives the bevel gear to rotate through the conical tooth profile. The bevel gear drives the screw to rotate. The screw further drives the slider to slide in the groove. The slider drives the wiping assembly to move. Similarly, when the rotational speed of the drive ring is slower than that of the rotating drum, there is also relative motion between the drive ring and the rotating drum. The rotation direction of the screw is opposite to that of the drive ring. By using the main drive component and the auxiliary drive component to control the rotation of the rotating drum and the drive ring at the same speed or at a different speed, the direction and speed of the screw can be controlled, thereby achieving the purpose of driving the wiping assembly to work.

[0009] Furthermore, the cleaning unit also includes a post-processing mechanism, which includes a second drive assembly and at least one set of suction assemblies. Each set of suction assemblies includes a mesh tube and a pulley ring. The pulley ring is installed on one side of the mesh tube, and several fan blades are evenly distributed in a ring on the inner side of the pulley ring. The second drive assembly is composed of a servo drive component, which is connected to the side of the mesh tube away from the pulley ring. After cleaning the treatment module, the electric push-pull rod uses a connecting rod to retract the Y-shaped adapter arm to its original position. The cleaning roller, facing downwards, can pass through the bottom groove and rectangular groove in sequence until it contacts the mesh tube. The servo drive component drives the mesh tube to rotate, and the mesh tube drives the cleaning roller to rotate through friction. The mesh tube and the pulley ring rotate synchronously. When the several fan blades rotate, they discharge the air in the mesh tube through the dust discharge hole, so that the dust on the cleaning roller is washed away and discharged under the action of the airflow, realizing the self-cleaning of the cleaning roller, so that the cleaning roller can be used multiple times. The cleaning roller is replaceable. After a period of use, the operator can open the cover and replace it with a brand new cleaning roller.

[0010] Furthermore, the dustproof mechanism includes a dustproof cover, which has a cleaning chamber and at least one dust discharge hole. The cleaning chamber and the dust discharge hole are connected by a rectangular groove. The rotating cylinder is rotatably installed in the cleaning chamber. The bottom groove is the same size as the rectangular groove. The mesh cylinder is rotatably installed in the dust discharge hole. During the storage stage, both the external treatment module and the internal treatment module are placed in the ultraviolet therapy instrument. The operator covers the ultraviolet therapy instrument with the dustproof cover to prevent dust from falling on the external treatment module and the internal treatment module. After the treatment equipment is used, the operator flips the dust cover 90 degrees, and flips the rear end of the dust cover to the bottom. At this time, the external treatment module and the internal treatment module are placed into the cleaning chamber, and the cleaning mechanism cleans the surface of the treatment module.

[0011] Furthermore, the dust cover is provided with two opposing cover plates at the opening of the cleaning chamber. The two cover plates are rotatably connected to the dust cover. A semi-circular groove is provided in the middle of each cover plate. After the two cover plates are closed, the semi-circular groove clamps and fixes the external treatment module and the internal treatment module, so as to facilitate the cleaning mechanism to clean the treatment module and prevent it from moving during the wiping process.

[0012] Furthermore, the main unit includes an ultraviolet therapy device, an external treatment module, and an internal treatment module, which are connected to the ultraviolet therapy device via circuitry.

[0013] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention, by setting up a cleaning mechanism with a spiral wiping trajectory and a post-vacuuming treatment mechanism, can automatically perform all-round, thorough cleaning and decontamination of the surface of the external and internal treatment modules, significantly reducing the labor intensity of medical staff, avoiding the risk of bacterial residue and cross-infection caused by incomplete manual cleaning, and realizing fully automatic and efficient cleaning of the treatment modules.

[0014] 2. The post-treatment mechanism can automatically vacuum and clean the wiping components after each cleaning treatment, effectively removing and collecting the attached dirt, keeping the cleaning roller clean and reusable, reducing the frequency of consumable replacement, and improving the economy and convenience of use.

[0015] 3. The cleaning section is connected to the main unit via a hinge and can be used as a protective cover during non-use periods to prevent dust from settling on the treatment module. After use, it can be flipped over to enter the cleaning mode. The compact structure and smooth operation process realize the integration of equipment storage, treatment, cleaning and maintenance, greatly optimizing the clinical workflow and equipment management efficiency. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall appearance and structure of the present invention. Figure 1 ; Figure 2 This is a schematic diagram of the overall appearance and structure of the present invention. Figure 2 ; Figure 3 This is a schematic diagram of the opening structure of the cleaning part of the present invention; Figure 4 This is a schematic diagram of the internal structure of the dust cover of the present invention; Figure 5 This is a schematic diagram of the internal structure of the rotating cylinder of the present invention; Figure 6 This is a schematic diagram of the wiping assembly of the present invention; Figure 7 This is a schematic diagram of the structure of the present invention mounted on a mobile carrier.

[0017] In the diagram: 1. Ultraviolet therapy device; 2. Dustproof cover; 3. External treatment module; 4. Internal treatment module; 5. Slide groove; 6. Cleaning chamber; 7. Slider; 8. Screw; 9. Bevel gear; 10. Hollow cup motor; 11. Main shaft; 12. Y-shaped adapter arm; 13. Cleaning roller; 14. Connecting rod; 15. Electric push-pull rod; 16. Drive ring; 17. Drive gear; 18. First servo motor; 19. Second servo motor; 20. Third servo motor; 21. Mesh tube; 22. Pulley ring; 23. Transmission belt; 24. Fan blade; 25. Rotating drum; 26. Bottom groove; 27. Dust exhaust hole; 28. Cover plate. Detailed Implementation

[0018] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0019] Example: Figures 1-7 As shown, the present invention provides a technical solution: a shortwave ultraviolet therapy device suitable for both in vivo and in vitro treatment, comprising a main unit and a cleaning unit, which are rotatably connected. The main unit and the cleaning unit are mounted on a mobile carrier. The cleaning unit protects and cleans the main unit from dust. The main unit includes an ultraviolet therapy instrument 1, an external treatment module 3, and an internal treatment module 4. The external treatment module 3 and the internal treatment module 4 are connected to the ultraviolet therapy instrument 1 via circuitry. The cleaning unit includes a dustproof mechanism, a cleaning mechanism, and a post-processing mechanism. The cleaning mechanism includes a first drive component, a rotating component, and two sets of wiping components. The first drive component, the rotating component, and at least one set of wiping components are disposed inside the dustproof mechanism. The first drive component is connected to the rotating component. Two sets of wiping components are mounted on a rotating component. The first drive component and the rotating component drive the wiping components to move in a spiral trajectory. The post-processing mechanism includes a second drive component and two sets of vacuuming components. The second drive component and at least one set of vacuuming components are located inside the dustproof mechanism. The second drive component is connected to the vacuuming components. The vacuuming components clean the wiping components. The dustproof cover 2 is provided with two opposing cover plates 28 at the opening of the cleaning chamber 6. The two cover plates 28 are rotatably connected to the dustproof cover 2. A semi-circular groove is provided in the middle of each of the two cover plates 28. After the two cover plates 28 are closed, the semi-circular groove clamps and fixes the external treatment module 3 and the internal treatment module 4, so as to facilitate the cleaning mechanism to clean the treatment modules and prevent them from moving during the wiping process.

[0020] The rotating assembly includes a rotating cylinder 25 with two grooves 5. A screw 8 is rotatably mounted in each groove 5, and a slider 7 is slidably mounted in each groove 5. The slider 7 is threadedly connected to the screw 8. The wiping assembly is mounted on the slider 7. The rotating cylinder 25 also has two bottom grooves 26. Each wiping assembly includes a hollow cup motor 10, a main shaft 11, a Y-shaped adapter arm 12, and a cleaning roller 13. The main shaft 11 is connected to the hollow cup motor 10. The Y-shaped adapter arm 12 is rotatably mounted on the main shaft 11. The cleaning roller 13 is rotatably mounted on the side of the Y-shaped adapter arm 12 away from the main shaft 11. An electric push rod 15 is installed inside the main shaft 11. A connecting rod 14 is rotatably connected to the piston rod of the electric push rod 15. A pin hole is provided on the side of the Y-shaped adapter arm 12 away from the cleaning roller 13 at the junction with the main shaft 11. The end of the connecting rod 14 away from the electric push rod 15 is rotatably connected to the Y-shaped adapter arm 12. When the second servo motor 19 drives the screw 8 to rotate, the screw 8 drives the slider 7 to slide up and down along the slide groove 5 using a helical pair. When the rotating cylinder 25 also rotates at the same time, the wiping assembly rotates around the treatment module under the drive of the rotating cylinder 25, realizing comprehensive wiping of all parts of the treatment module. Before wiping the treatment module, the electric push-pull rod 15 controls the Y-shaped adapter arm 12 to swing using the connecting rod 14, so that the cleaning roller 13 contacts the surface of the treatment module, and keeps the cleaning roller 13 in contact with the surface of the treatment module during the wiping process. When the slider 7 slides upward, the Y-shaped adapter arm 12 makes the cleaning roller 13 face downward, wiping the treatment module from bottom to top. When the slider 7 returns to slide downward, the hollow cup motor 10 rotates the Y-shaped adapter arm 12 and makes the cleaning roller 13 face upward, wiping the treatment module from top to bottom, ensuring that the ends and middle of the treatment module can be thoroughly cleaned.

[0021] The first drive assembly includes a first servo motor 18, a drive ring 16, and a second servo motor 19. The first servo motor 18 is connected to the bottom of the rotating cylinder 25. One end of the screw 8 passes through the rotating cylinder 25 and is connected to a bevel gear 9. The drive ring 16 is rotatably mounted on the rotating cylinder 25. The inner ring of the drive ring 16 has a conical tooth profile, and the outer ring of the drive ring 16 has a cylindrical tooth profile. The conical tooth profile meshes with the bevel gear 9. The second servo motor 19 is connected to a drive gear 17, which meshes with the cylindrical tooth profile. The first servo motor 18 drives the rotating cylinder 25 to rotate, and the second servo motor 19 drives the drive ring 16 to rotate. If the rotational speed of the rotating cylinder 25 is the same as the rotational speed of the drive ring 16, then the rotating cylinder 25 and the drive ring 16 rotate in tandem. When stationary, if the rotational speed of the drive ring 16 is faster than that of the rotating cylinder 25, there is relative motion between the drive ring 16 and the rotating cylinder 25. The drive ring 16 drives the bevel gear 9 to rotate through the conical tooth profile. The bevel gear 9 drives the screw 8 to rotate. The screw 8 further drives the slider 7 to slide in the slide groove 5. The slider 7 drives the wiping assembly to move. Similarly, if the rotational speed of the drive ring 16 is slower than that of the rotating cylinder 25, there is also relative motion between the drive ring 16 and the rotating cylinder 25. The rotation direction of the screw 8 is opposite to that of the drive ring 16. By using the first servo motor 18 and the second servo motor 19 to control the rotation of the rotating cylinder 25 and the drive ring 16 at the same speed or different speed, the direction and speed control of the screw 8 can be achieved, thereby driving the wiping assembly to work.

[0022] Each suction assembly includes a mesh tube 21 and a pulley ring 22. The pulley ring 22 is installed on one side of the mesh tube 21, and several fan blades 24 are evenly distributed in a ring on the inner side of the pulley ring 22. The second drive assembly consists of a third servo motor 20, which is connected to the side of the mesh tube 21 away from the pulley ring 22. The two pulley rings 22 are connected by a transmission belt 23. The dustproof mechanism includes a dustproof cover 2, which has a cleaning chamber 6 and two dust discharge holes 27. The cleaning chamber 6 and the dust discharge holes 27 are connected by a rectangular groove. The rotating drum 25 is rotatably installed in the cleaning chamber 6. The bottom groove 26 is the same size as the rectangular groove. The gauze tube 21 is rotatably installed in the dust discharge hole 27. During the storage stage of the treatment equipment, the external treatment module 3 and the internal treatment module 4 are placed in the ultraviolet therapy instrument 1. The operator covers the ultraviolet therapy instrument 1 with the dust cover 2 to prevent dust from falling on the external treatment module 3 and the internal treatment module 4. After the treatment equipment is used, the operator flips the dust cover 2 ninety degrees and flips the rear end of the dust cover 2 to the bottom. At this time, the external treatment module 3 and the internal treatment module 4 are placed into the cleaning chamber 6, and the cleaning mechanism cleans the surface of the treatment module. After cleaning the treatment module, the electric push rod 15 uses the connecting rod 14 to retract the Y-shaped adapter arm 12 to its original position. The cleaning roller 13, facing downwards, passes through the bottom groove 26 and the rectangular groove in sequence until it contacts the gauze tube 21. The third servo motor 20 drives the gauze tube 21 to rotate. The gauze tube 21 drives the cleaning roller 13 to rotate through friction. The gauze tube 21 rotates synchronously with the pulley ring 22. When several fan blades 24 rotate, they discharge the air in the gauze tube 21 through the dust discharge hole 27, so that the dust on the cleaning roller 13 is washed away and discharged under the action of airflow, realizing the self-cleaning of the cleaning roller 13, so that the cleaning roller 13 can be used multiple times. The cleaning roller 13 is a replaceable setting. After a period of use, the operator can open the cover plate 28 to replace it with a brand new cleaning roller 13.

[0023] The working principle of the present invention is as follows: After the two cover plates 28 are closed, the semi-circular groove clamps and fixes the external treatment module 3 and the internal treatment module 4, so as to facilitate the cleaning mechanism to clean the treatment module and prevent it from moving during the wiping process.

[0024] During the storage phase of the treatment equipment, both the external treatment module 3 and the internal treatment module 4 are placed in the ultraviolet therapy instrument 1. The operator covers the ultraviolet therapy instrument 1 with the dust cover 2 to prevent dust from falling on the external treatment module 3 and the internal treatment module 4. After the treatment equipment is used, the operator flips the dust cover 2 ninety degrees, and the rear end of the dust cover 2 flips to the bottom. At this time, the external treatment module 3 and the internal treatment module 4 are placed into the cleaning chamber 6, and the cleaning mechanism cleans the surface of the treatment modules.

[0025] When the second servo motor 19 drives the screw 8 to rotate, the screw 8 drives the slider 7 to slide up and down along the slide groove 5 using a helical pair. When the rotating cylinder 25 also rotates at the same time, the wiping assembly rotates around the treatment module under the drive of the rotating cylinder 25, realizing comprehensive wiping of all parts of the treatment module. Before wiping the treatment module, the electric push-pull rod 15 controls the Y-shaped adapter arm 12 to swing using the connecting rod 14, so that the cleaning roller 13 contacts the surface of the treatment module, and keeps the cleaning roller 13 in contact with the surface of the treatment module during the wiping process. When the slider 7 slides upward, the Y-shaped adapter arm 12 makes the cleaning roller 13 face downward, wiping the treatment module from bottom to top. When the slider 7 returns to slide downward, the hollow cup motor 10 rotates the Y-shaped adapter arm 12 and makes the cleaning roller 13 face upward, wiping the treatment module from top to bottom, ensuring that the ends and middle of the treatment module can be thoroughly cleaned.

[0026] The first servo motor 18 drives the rotating cylinder 25 to rotate, and the second servo motor 19 drives the drive ring 16 to rotate. If the rotation speed of the rotating cylinder 25 is the same as that of the drive ring 16, the rotating cylinder 25 and the drive ring 16 are relatively stationary. When the rotation speed of the drive ring 16 is faster than that of the rotating cylinder 25, there is relative motion between the drive ring 16 and the rotating cylinder 25. The drive ring 16 drives the bevel gear 9 to rotate through the conical tooth profile. The bevel gear 9 drives the screw 8 to rotate. The screw 8 further drives the slider 7 to slide in the slide groove 5. The slider 7 drives the wiping assembly to move. Similarly, when the rotation speed of the drive ring 16 is slower than that of the rotating cylinder 25, there is also relative motion between the drive ring 16 and the rotating cylinder 25. The rotation direction of the screw 8 is opposite to that of the former. By using the first servo motor 18 and the second servo motor 19 to control the rotating cylinder 25 and the drive ring 16 to rotate at the same speed or at a different speed, the direction and speed control of the screw 8 are realized, thereby driving the wiping assembly to work.

[0027] After cleaning the treatment module, the electric push rod 15 uses the connecting rod 14 to retract the Y-shaped adapter arm 12 to its original position. The cleaning roller 13, facing downwards, passes through the bottom groove 26 and the rectangular groove in sequence until it contacts the gauze tube 21. The third servo motor 20 drives the gauze tube 21 to rotate. The gauze tube 21 drives the cleaning roller 13 to rotate through friction. The gauze tube 21 rotates synchronously with the pulley ring 22. When several fan blades 24 rotate, they discharge the air in the gauze tube 21 through the dust discharge hole 27, so that the dust on the cleaning roller 13 is washed away and discharged under the action of airflow, realizing the self-cleaning of the cleaning roller 13, so that the cleaning roller 13 can be used multiple times. The cleaning roller 13 is a replaceable setting. After a period of use, the operator can open the cover plate 28 to replace it with a brand new cleaning roller 13.

[0028] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A shortwave ultraviolet therapy device suitable for both in vivo and in vitro treatment, characterized in that: It includes a main unit and a cleaning unit, the main unit being connected to the cleaning unit, and the cleaning unit performing dust protection and cleaning on the main unit; The cleaning unit includes a dustproof mechanism and a cleaning mechanism. The cleaning mechanism includes a first driving component, a rotating component, and at least one set of wiping components. The first driving component and at least one set of wiping components are disposed inside the dustproof mechanism. The rotating assembly includes a rotating cylinder (25), which is installed inside the dustproof mechanism. The rotating cylinder (25) is connected to the first drive assembly. At least one sliding groove (5) is opened on the rotating cylinder (25). A screw (8) is rotatably installed in each of the sliding grooves (5). A slider (7) is also slidably installed in the sliding groove (5). The slider (7) is threadedly connected to the screw (8). The wiping assembly is installed on the slider (7). At least one bottom groove (26) is also opened on the rotating cylinder (25).

2. The shortwave ultraviolet therapy device suitable for in vivo and in vitro therapy according to claim 1, characterized in that: Each of the wiping components includes a reversing drive, a main shaft (11), a Y-shaped adapter arm (12), and a cleaning roller (13). The main shaft (11) is connected to the reversing drive, the Y-shaped adapter arm (12) is rotatably mounted on the main shaft (11), and the cleaning roller (13) is rolled on the side of the Y-shaped adapter arm (12) away from the main shaft (11).

3. The shortwave ultraviolet therapy device suitable for in vivo and in vitro therapy according to claim 2, characterized in that: An electric push rod (15) is installed inside the main shaft (11). A connecting rod (14) is rotatably connected to the piston rod of the electric push rod (15). A pin hole is opened on the side of the Y-shaped adapter arm (12) away from the cleaning roller (13) at the junction with the main shaft (11). The end of the connecting rod (14) away from the electric push rod (15) is connected to the Y-shaped adapter arm (12).

4. The shortwave ultraviolet therapy device suitable for in vivo and in vitro therapy according to claim 1, characterized in that: The first drive assembly includes a main drive component, a drive ring (16) and an auxiliary drive component. The main drive component is connected to the bottom of the rotating cylinder (25). One end of the screw (8) passes through the rotating cylinder (25) and is connected to a bevel gear (9). The drive ring (16) is rotatably mounted on the rotating cylinder (25). The inner ring of the drive ring (16) is provided with a conical tooth profile, and the outer ring of the drive ring (16) is provided with a cylindrical tooth profile. The conical tooth profile meshes with the bevel gear (9). The auxiliary drive component is connected to a drive gear (17), and the drive gear (17) meshes with the cylindrical tooth profile.

5. A shortwave ultraviolet therapy device suitable for in vivo and in vitro treatment according to claim 1, characterized in that: The cleaning unit also includes a post-processing mechanism, which includes a second drive assembly and at least one set of vacuuming assemblies. Each set of vacuuming assemblies includes a mesh tube (21) and a pulley ring (22). The pulley ring (22) is installed on one side of the mesh tube (21). Several fan blades (24) are evenly distributed in a ring on the inner side of the pulley ring (22). The second drive assembly is composed of a servo drive component, which is connected to the side of the mesh tube (21) away from the pulley ring (22).

6. A shortwave ultraviolet therapy device suitable for in vivo and in vitro treatment according to claim 5, characterized in that: The dustproof mechanism includes a dustproof cover (2), in which a cleaning chamber (6) and at least one dust discharge hole (27) are provided. The cleaning chamber (6) and the dust discharge hole (27) are connected by a rectangular groove. The rotating cylinder (25) is rotatably installed in the cleaning chamber (6). The bottom groove (26) is the same size as the rectangular groove. The mesh cylinder (21) is rotatably installed in the dust discharge hole (27).

7. A shortwave ultraviolet therapy device suitable for in vivo and in vitro treatment according to claim 6, characterized in that: The dust cover (2) is provided with two opposing cover plates (28) at the opening of the cleaning chamber (6). The two cover plates (28) are rotatably connected to the dust cover (2), and a semi-circular groove is provided in the middle of each of the two cover plates (28).

8. A shortwave ultraviolet therapy device suitable for in vivo and in vitro treatment according to claim 1, characterized in that: The main unit includes an ultraviolet therapy device (1), an external treatment module (3), and an internal treatment module (4), which are connected to the ultraviolet therapy device (1) via circuits.

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