Automatic disinfection and sterilization system for bottled water processing

Abstract

The invention discloses an automatic disinfection and sterilization system for bottled water processing. A second net cylinder is connected to a blocking plate, a linkage rod is connected to a first net cylinder, the input end of the linkage rod is in lap joint with a swing rod, the swing rod is arranged on a rotating rod, and the rotating rod is arranged at the output end of a servo motor. A water body needs to be injected into the disinfection box, is primarily disinfected by chlorine and then enters the ultraviolet tube, the water body passes through the first net barrel and the second net barrel along with flowing of the water body and finally falls into the disinfection tank to be stored, the flow speed of the water body is reduced when the water body passes through the first net barrel and the second net barrel, and the water body is fully irradiated by the ultraviolet lamp; and efficient disinfection and sterilization can be realized through the combination of ultraviolet optical disinfection and chlorine disinfection, so that the formation of toxic substances is avoided, the energy consumption of equipment is reduced, and the disinfection cost is reduced.

Description

Technical Field

[0001] This application relates to the field of disinfection and sterilization devices, and in particular to an automatic disinfection and sterilization system for bottled water processing. Background Technology

[0002] The purpose of bottled water disinfection is to kill pathogenic microorganisms in the water that are harmful to human health, including bacteria, viruses, and protozoa, in order to prevent the spread of diseases through drinking water. Disinfection treatment can minimize the risk of waterborne infectious diseases from drinking water and ensure that the water quality meets relevant standards.

[0003] Automatic disinfection and sterilization systems for bottled water typically employ ultraviolet (UV) optical disinfection, which effectively kills pathogenic microorganisms in the water. However, since the contact time between the water and UV light is difficult to control, a large number of optical devices are required, increasing energy consumption during the disinfection process and thus raising disinfection costs. Summary of the Invention

[0004] One of the objectives of this application is to provide an automatic disinfection and sterilization system for bottled water processing.

[0005] To achieve the above objectives, the technical solution adopted in this application is as follows: an automatic disinfection and sterilization system for bottled water processing, comprising a disinfection tank, a level gauge, a controller, a reagent inlet, a water inlet, and a water outlet pipe. The water outlet pipe is connected to an ultraviolet tube, which is vertically arranged on the disinfection tank. The ultraviolet lamp inside the ultraviolet tube extends into the disinfection tank. A first mesh cylinder is provided inside the disinfection tank outside the ultraviolet lamp. A blocking plate is slidably connected to the first mesh cylinder, and a second mesh cylinder is connected to the blocking plate. A linkage rod is connected to the first mesh cylinder, and a swing rod is attached to the input end of the linkage rod. The swing rod is mounted on a rotating rod, and the rotating rod is mounted on the output end of a servo motor.

[0006] Preferably, the disinfection tank is provided with a support, the support is vertically arranged on the disinfection tank, the upper end of the support is connected to the disinfection box, the disinfection tank is provided with a base, the base is U-shaped in general, and a servo motor is detachably connected to the base, the servo motor is horizontally arranged on the base.

[0007] Preferably, the rotating rod and the swing rod on the servo motor are arranged in an L-shape. A stop is provided in the rotation direction of the swing rod. The stop is arranged in a disc shape. The stop and the rotating rod are arranged on different axes. A top seat is provided on the stop. The top seat is arranged in an arc shape. The two ends of the top seat are sloped.

[0008] Preferably, a connecting seat is provided below the baffle, the connecting seat is generally disc-shaped, a linkage rod is provided on the connecting seat, the linkage rod and the connecting seat are coaxial, the linkage rod is vertically arranged on the outside of the disinfection tank, and the linkage rod is connected through the disinfection tank.

[0009] Preferably, one end of the linkage rod is located inside the disinfection tank, and the other end of the linkage rod is located outside the disinfection tank. A return spring is sleeved on the linkage rod outside the disinfection tank. One end of the return spring is hooked onto the connecting seat, and the other end of the return spring is hooked onto the corresponding disinfection tank.

[0010] Preferably, a horizontal seat is connected to the linkage rod inside the disinfection tank. The horizontal seat and the linkage rod are arranged in an L-shape. A limiting rod is connected to the horizontal seat. The limiting rod is connected through the horizontal seat and is arranged vertically inside the disinfection tank. The diameter of the limiting rod is smaller than the diameter of the linkage rod.

[0011] Preferably, a limiting plate is provided on the first mesh cylinder, and an ultraviolet lamp is connected through the central axis of the limiting plate. The limiting plate is used to seal the lower port of the first mesh cylinder.

[0012] Preferably, the blocking plate outside the first mesh cylinder is cylindrical in shape, the outer diameter of the first mesh cylinder is the same as the inner diameter of the blocking plate, and the upper and lower ports of the blocking plate are open.

[0013] Preferably, an inner plate is connected to the outer wall of the blocking plate, the inner plate is located below the outer side of the blocking plate, a second mesh cylinder is connected to the inner plate, the upper port of the second mesh cylinder is higher than the height of the inner plate, and the second mesh cylinder, the inner plate and the blocking plate are arranged in a U-shape.

[0014] Preferably, a side plate is provided inside the outer disinfection tank of the first mesh cylinder, and a conical cover is connected to the side plate. A discharge port is opened at the small end of the conical cover, and the discharge port is located above the second mesh cylinder.

[0015] Compared with the prior art, the beneficial effects of this application are as follows:

[0016] This automatic disinfection and sterilization system for bottled water processing involves a disinfection tank where slow-release chlorine tablets can be placed at the reagent inlet. Water first undergoes initial disinfection by contacting the chlorine tablets. To prevent water from remaining in the tank, an outlet pipe connects to an ultraviolet (UV) lamp in the disinfection tank. Water passing through the UV lamp is then irradiated, achieving secondary disinfection. The UV lamp is connected to the disinfection tank, allowing water to enter. Inside the tank is a first mesh cylinder located outside the UV lamp. When the first mesh cylinder is blocked by a limiting plate, water is forced to flow through its mesh, initially reducing the water's flow rate. A blocking plate is slidably connected to the outside of the cylinder, and a second mesh cylinder is connected to the blocking plate. When the second mesh cylinder is connected to the blocking plate through an inner plate, the connection position is set in a U-shape. The U-shaped notch can hold water, and the overflowing water can flow towards the second mesh cylinder. The U-shaped notch can slow down the flow rate of the water, so that the water can flow along the outer wall of the second mesh cylinder. The second mesh cylinder is also located outside the ultraviolet lamp. The water passing through the second mesh cylinder will form a water curtain, and the ultraviolet lamp can fully irradiate the water, thereby effectively disinfecting the water. The combination of ultraviolet optical disinfection and chlorine disinfection methods not only does not leave toxic substances, but also does not increase equipment energy consumption, thereby reducing production costs.

[0017] This automatic disinfection and sterilization system for bottled water processing includes a horizontal seat on a blockage plate, with a linkage rod connected to the horizontal seat. The linkage rod passes through the disinfection tank, with one end located on the outside of the tank. A servo motor drives the linkage rod, which is connected to a stop seat via a connecting seat. The servo motor is connected to a swing arm via a rotating rod, which is connected to the stop seat. The swing arm can rotate at the stop seat position. A top seat is provided on the stop seat. The swing arm and the stop seat are not aligned on the same axis. When the swing arm rotates, it pushes the top seat downwards, causing the linkage rod to move downwards. The linkage rod then moves the blockage plate downwards. A return spring is sleeved on the linkage rod. When the linkage rod moves downwards, it compresses the return spring. When the swing arm stops pushing the top seat, the return spring pushes the stop seat upwards, thus resetting the linkage rod. The linkage rod then moves the blockage plate upwards, blocking the first mesh cylinder. Once the first mesh cylinder is blocked, water will no longer flow out, thus isolating the water and effectively reducing the downstream flow rate. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the overall structure of the present invention. Figure 1 .

[0019] Figure 2 This is a schematic diagram of the overall structure of the present invention. Figure 2 .

[0020] Figure 3This is a schematic diagram of the conical cover in this invention.

[0021] Figure 4 This is a schematic diagram of the blockage plate in this invention.

[0022] Figure 5 This is a schematic diagram of the linkage mechanism in this invention.

[0023] Figure 6 This is a schematic diagram of the structure of the second mesh tube in this invention.

[0024] Figure 7 For the present invention Figure 2 A magnified structural diagram of region A in the middle.

[0025] In the diagram: 1. Disinfection tank; 2. Controller; 3. Water inlet; 4. Disinfection chamber; 5. Chemical outlet; 6. Liquid level gauge; 7. Water outlet pipe; 8. Ultraviolet lamp; 9. Ultraviolet tube; 10. Support; 11. Servo motor; 12. Rotating rod; 13. Swing rod; 14. Stop; 15. Top seat; 16. Connecting seat; 17. Return spring; 18. Linkage rod; 19. Bracket; 20. Drain; 21. Conical cover; 22. Side plate; 23. Blocking plate; 24. First mesh cylinder; 25. Limiting rod; 26. Horizontal seat; 27. Limiting plate; 28. Second mesh cylinder; 29. ​​Inner plate. Detailed Implementation

[0026] 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.

[0027] like Figures 1 to 7As shown, the present invention provides an automatic disinfection and sterilization system for bottled water processing, comprising a disinfection tank 4, a level gauge 6, a controller 2, a reagent inlet 5, a water inlet 3, and a water outlet pipe 7. The water outlet pipe 7 is connected to an ultraviolet tube 9, which is vertically arranged on the disinfection tank 1. An ultraviolet lamp 8 inside the ultraviolet tube 9 extends into the disinfection tank 1. A first mesh cylinder 24 is provided inside the disinfection tank 1 outside the ultraviolet lamp 8. A blocking plate 23 is slidably connected to the first mesh cylinder 24, and a second mesh cylinder 28 is connected to the blocking plate 23. A linkage rod 18 is connected to the first mesh cylinder 24, and a swing rod 13 is connected to the input end of the linkage rod 18. The swing rod 13 is mounted on a rotating rod 12. 2. When disinfecting water, the water needs to be injected into the disinfection tank 4 first. After preliminary disinfection by chlorine, it enters the ultraviolet tube 9. As the water flows, it passes through the first net cylinder 24 and the second net cylinder 28, and finally falls into the disinfection tank 1. When passing through the first net cylinder 24 and the second net cylinder 28, the flow rate of the water will decrease, and the ultraviolet lamp 8 will fully irradiate the water, thereby achieving thorough disinfection. The combination of ultraviolet optical disinfection and chlorine disinfection can achieve efficient disinfection and sterilization, which not only avoids the formation of toxic substances, but also reduces equipment energy consumption, thereby reducing disinfection costs.

[0028] A bracket 19 is provided on the disinfection tank 1. The bracket 19 is arranged vertically on the disinfection tank 1. The upper end of the bracket 19 is connected to the disinfection box 4. A support 10 is provided on the disinfection tank 1. The support 10 is U-shaped. A servo motor 11 is detachably connected to the support 10. The servo motor 11 is arranged horizontally on the support 10. The bracket 19 can realize the integrated installation of the disinfection box 4 and the disinfection tank 1, so that the water flows from the disinfection box 4 to the disinfection tank 1, thereby ensuring that the water is fully disinfected and sterilized.

[0029] The rotating rod 12 and the swing rod 13 on the servo motor 11 are arranged in an L-shape. A stop 14 is provided in the rotation direction of the swing rod 13. The stop 14 is arranged in a disc shape. The stop 14 and the rotating rod 12 are arranged on different axes. A top seat 15 is provided on the stop 14. The top seat 15 is arranged in an arc shape. Both ends of the top seat 15 are sloped. The servo motor 11 can drive the rotating rod 12 to rotate. When the swing rod 13 is installed on the rotating rod 12, the swing rod 13 can rotate at the position of the rotating rod 12. By setting the swing rod 13 and the stop 14 to be arranged on different axes, when the swing rod 13 rotates, it can push the top seat 15 on the stop 14, thereby realizing the downward movement of the stop 14 as a whole. The position of the stop 14 can be adjusted. When the linkage rod 18 is installed on the stop 14, the position of the linkage rod 18 can be adjusted.

[0030] In practice, by setting up a disinfection tank 4, slow-release chlorine tablets can be placed at the agent inlet 5 of the disinfection tank 4. The water first comes into contact with the chlorine tablets in the disinfection tank 4 for preliminary disinfection. To prevent the water from continuously staying in the disinfection tank 4, the water outlet pipe 7 on the disinfection tank 4 is connected to the ultraviolet tube 9 of the disinfection tank 1. The water passing through the ultraviolet tube 9 will be irradiated by the ultraviolet lamp 8, thereby achieving a secondary disinfection effect. The ultraviolet tube 9 is connected to the disinfection tank 1, and the water will enter the disinfection tank 1. The disinfection tank 1 is equipped with a first mesh cylinder 24, which is located outside the ultraviolet lamp 8. After the first mesh cylinder 24 is blocked by the limiting plate 27, the water will be discharged through the mesh of the first mesh cylinder 24, thereby initially reducing the flow rate of the water. A sliding connection is provided with a blocking plate 23, and a second mesh cylinder 28 is connected to the blocking plate 23. When the second mesh cylinder 28 is connected to the blocking plate 23 through the inner plate 29, the connection position is set in a U-shape. The U-shaped notch can store water, and the overflowing water can flow to the position of the second mesh cylinder 28. The U-shaped notch can slow down the flow rate of the water, so that the water can flow along the outer wall of the second mesh cylinder 28. The second mesh cylinder 28 is also located outside the ultraviolet lamp 8. The water passing through the second mesh cylinder 28 will form a water curtain, and the ultraviolet lamp 8 can fully irradiate the water, thereby fully disinfecting the water. The combination of ultraviolet optical disinfection and chlorine disinfection methods to treat water not only leaves no toxic substances, but also does not increase equipment energy consumption, thereby reducing production costs.

[0031] A connecting seat 16 is provided below the stop 14. The connecting seat 16 is generally disc-shaped and has a linkage rod 18. The linkage rod 18 and the connecting seat 16 are set on the same axis. The linkage rod 18 is arranged vertically on the outside of the disinfection tank 1 and is connected through the disinfection tank 1. The connection between the stop 14 and the linkage rod 18 can be achieved through the setting of the connecting seat 16. When the stop 14 moves up and down, the linkage rod 18 can also move up and down, thereby ensuring that the linkage rod 18 can also move when the swing rod 13 pushes against the stop 14.

[0032] One end of the linkage rod 18 is located inside the disinfection tank 1, and the other end of the linkage rod 18 is located outside the disinfection tank 1. A return spring 17 is sleeved on the linkage rod 18 outside the disinfection tank 1. One end of the return spring 17 is hooked on the connecting seat 16, and the other end of the return spring 17 is hooked on the corresponding disinfection tank 1. The return spring 17 ensures the return of the linkage rod 18. When the swing rod 13 pushes down the stop seat 14, the return spring 17 will be compressed. When the swing rod 13 does not push the stop seat 14, the return spring 17 can drive the stop seat 14 to return to its original position during the restoration process, thus realizing the return of the linkage rod 18.

[0033] A horizontal seat 26 is connected to the linkage rod 18 inside the disinfection tank 1. The horizontal seat 26 and the linkage rod 18 are arranged in an L-shape. A limiting rod 25 is connected to the horizontal seat 26 and passes through the horizontal seat 26. The limiting rod 25 is arranged vertically inside the disinfection tank 1. The diameter of the limiting rod 25 is smaller than the diameter of the linkage rod 18. By setting the horizontal seat 26, the linkage rod 18 and the blocking plate 23 can be integrated. When the linkage rod 18 moves, it can drive the blocking plate 23 to move. The blocking plate 23 can move up and down on the first mesh cylinder 24, thereby blocking or releasing the first mesh cylinder 24, thereby cutting off the water body and ensuring that the flow speed of the water body can be reduced.

[0034] A limiting plate 27 is provided on the first net cylinder 24. An ultraviolet lamp 8 is connected through the central axis of the limiting plate 27. The limiting plate 27 is used to seal the lower port of the first net cylinder 24. The first net cylinder 24 can be closed by setting the limiting plate 27, and water can pass through the mesh of the first net cylinder 24, thereby reducing the water flow rate.

[0035] The blocking plate 23 on the outside of the first net cylinder 24 is cylindrical in shape. The outer diameter of the first net cylinder 24 is the same as the inner diameter of the blocking plate 23. The upper and lower ports of the blocking plate 23 are open. The blocking plate 23 can block the first net cylinder 24, thereby ensuring that the blocking plate 23 can cut off the water discharged from the first net cylinder 24.

[0036] An inner plate 29 is connected to the outer wall of the blocking plate 23. The inner plate 29 is located below the outer side of the blocking plate 23. A second mesh cylinder 28 is connected to the inner plate 29. The upper end of the second mesh cylinder 28 is higher than the height of the inner plate 29. The second mesh cylinder 28, the inner plate 29 and the blocking plate 23 are arranged in a U-shape. The connection of the second mesh cylinder 28, the inner plate 29 and the blocking plate 23 can form a U-shaped notch, thereby realizing the collection of water. The overflowing water can flow along the second mesh cylinder 28, thereby forming a water curtain on the second mesh cylinder 28, thus ensuring that the water is fully irradiated.

[0037] A side plate 22 is provided inside the outer disinfection tank 1 of the first net cylinder 24. A conical hood 21 is connected to the side plate 22. A discharge port 20 is opened at the small end of the conical hood 21. The discharge port 20 is located above the second net cylinder 28. The conical hood 21 can guide the water body. When the water body passes through the first net cylinder 24, it will be sprayed outward due to water pressure. After spraying, it will be blocked by the conical hood 21, so that the water body moves along the conical hood 21 and finally falls back onto the second net cylinder 28, thereby ensuring that the water body flowing in is completely disinfected and sterilized.

[0038] In implementation, a horizontal seat 26 is provided on the blocking plate 23, and a linkage rod 18 is connected to the horizontal seat 26. The linkage rod 18 is installed through the disinfection tank 1, with one end of the linkage rod 18 located on the outside of the disinfection tank 1. The servo motor 11 can drive the linkage rod 18. The linkage rod 18 is connected to the stop seat 14 through the connecting seat 16. The servo motor 11 is connected to the swing rod 13 through the rotating rod 12. The swing rod 13 is connected to the stop seat 14, so the swing rod 13 can rotate at the position of the stop seat 14. A top seat 15 is provided on the stop seat 14. The swing rod 13 and the stop seat 14 are not aligned with the same axis. When the swing rod 13 rotates, it will... When the top seat 15 is pushed down, it can drive the linkage rod 18 to move down, which in turn drives the blocking plate 23 to move down. A return spring 17 is sleeved on the linkage rod 18. When the linkage rod 18 moves down, it will compress the return spring 17. When the swing rod 13 does not push the top seat 15, the return spring 17 will push the stop seat 14 up, thereby resetting the linkage rod 18. The linkage rod 18 can then drive the blocking plate 23 to move up, thus blocking the outside of the first net cylinder 24. After the first net cylinder 24 is blocked, it will no longer flow out water, thereby achieving water isolation and effectively reducing the downstream speed of the water.

[0039] The working principle of this invention is as follows: By setting up a disinfection tank 4, slow-release chlorine tablets can be placed at the reagent inlet 5 of the disinfection tank 4. Water first comes into contact with the chlorine tablets in the disinfection tank 4 for initial disinfection. To prevent the water from continuously remaining in the disinfection tank 4, the outlet pipe 7 on the disinfection tank 4 is connected to the ultraviolet tube 9 of the disinfection tank 1. Water passing through the ultraviolet tube 9 is then irradiated by the ultraviolet lamp 8, achieving secondary disinfection. The ultraviolet tube 9 is connected to the disinfection tank 1, allowing water to enter. A first mesh cylinder 24 is installed inside the disinfection tank 1, located outside the ultraviolet lamp 8. After the first mesh cylinder 24 is blocked by the limiting plate 27, the water will pass through the first mesh cylinder 24. The mesh openings of the first mesh cylinder 24 discharge water, thus initially reducing the flow velocity of the water. A blocking plate 23 is slidably connected to the outside of the first mesh cylinder 24, and a second mesh cylinder 28 is connected to the blocking plate 23. When the second mesh cylinder 28 is connected to the blocking plate 23 through the inner plate 29, the connection position is U-shaped. The U-shaped notch can hold the water, and the overflowing water can flow towards the second mesh cylinder 28. The U-shaped notch can slow down the flow velocity of the water, allowing the water to flow along the outer wall of the second mesh cylinder 28. The second mesh cylinder 28 is also located outside the ultraviolet lamp 8. The water passing through the second mesh cylinder 28 forms a water curtain, allowing the ultraviolet lamp 8 to fully irradiate the water, thereby fully... Water disinfection is achieved through a combination of ultraviolet optical disinfection and chlorine disinfection. This method not only leaves no toxic residues but also reduces equipment energy consumption, thereby lowering production costs. A horizontal seat 26 is installed on the block plate 23, and a linkage rod 18 is connected to the horizontal seat 26. The linkage rod 18 passes through the disinfection tank 1, with one end located on the outside of the disinfection tank 1. The servo motor 11 drives the linkage rod 18. The linkage rod 18 is connected to the stop seat 14 via a connecting seat 16. The servo motor 11 is connected to the swing rod 13 via a rotating rod 12. The swing rod 13 is connected to the stop seat 14, allowing the swing rod 13 to rotate at the stop seat 14. A top seat is installed on the stop seat 14. 15. The swing rod 13 and the stop seat 14 are set on different axes. When the swing rod 13 rotates, it will push the top seat 15 downward. The top seat 15 can drive the linkage rod 18 to move downward. The linkage rod 18 can drive the blocking plate 23 to move downward. A return spring 17 is sleeved on the linkage rod 18. When the linkage rod 18 moves downward, it will compress the return spring 17. When the swing rod 13 does not push the top seat 15, the return spring 17 will push the stop seat 14 upward, thereby resetting the linkage rod 18. The linkage rod 18 can drive the blocking plate 23 to move upward, thereby blocking the outside of the first net cylinder 24. After the first net cylinder 24 is blocked, it will not continue to flow out of the water, thereby achieving water isolation and effectively reducing the downward discharge speed of the water.

[0040] The basic principles, main features, and advantages of this application have been described above. Those skilled in the art should understand that this application is not limited to the above embodiments. The embodiments and descriptions in the specification are merely the principles of this application. Various changes and modifications can be made to this application without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claims. The scope of protection claimed by this application is defined by the appended claims and their equivalents.

Claims

1. An automatic disinfection and sterilization system for bottled water processing, comprising a disinfection tank (4), a level gauge (6), a controller (2), a reagent inlet (5), a water inlet (3), and a water outlet (7), characterized in that: The water outlet pipe (7) is connected to the ultraviolet tube (9), which is vertically arranged on the disinfection tank (1). The ultraviolet lamp (8) inside the ultraviolet tube (9) extends into the disinfection tank (1). A first mesh cylinder (24) is provided in the disinfection tank (1) outside the ultraviolet lamp (8). A blocking plate (23) is slidably connected to the first mesh cylinder (24). A second mesh cylinder (28) is connected to the blocking plate (23). A linkage rod (18) is connected to the first mesh cylinder (24). A swing rod (13) is attached to the input end of the linkage rod (18). The swing rod (13) is set on the rotating rod (12). The rotating rod (12) is set on the output end of the servo motor (11).

2. The automatic disinfection and sterilization system for bottled water processing as described in claim 1, characterized in that: The disinfection tank (1) is provided with a bracket (19), which is vertically arranged on the disinfection tank (1). The upper end of the bracket (19) is connected to the disinfection box (4). The disinfection tank (1) is provided with a support (10), which is U-shaped. A servo motor (11) is detachably connected to the support (10), which is horizontally arranged on the support (10).

3. The automatic disinfection and sterilization system for bottled water processing as described in claim 2, characterized in that: The rotating rod (12) and the swing rod (13) on the servo motor (11) are arranged in an L-shape. A stop (14) is provided in the rotation direction of the swing rod (13). The stop (14) is arranged in a disc shape. The stop (14) and the rotating rod (12) are arranged on different axes. A top seat (15) is provided on the stop (14). The top seat (15) is arranged in an arc shape. The two ends of the top seat (15) are sloped.

4. The automatic disinfection and sterilization system for bottled water processing as described in claim 3, characterized in that: A connecting seat (16) is provided below the stop (14). The connecting seat (16) is generally disc-shaped. A linkage rod (18) is provided on the connecting seat (16). The linkage rod (18) and the connecting seat (16) are arranged on the same axis. The linkage rod (18) is arranged vertically on the outside of the disinfection tank (1). The linkage rod (18) is connected through the disinfection tank (1).

5. The automatic disinfection and sterilization system for bottled water processing as described in claim 4, characterized in that: One end of the linkage rod (18) is located inside the disinfection tank (1), and the other end of the linkage rod (18) is located outside the disinfection tank (1). A return spring (17) is sleeved on the linkage rod (18) outside the disinfection tank (1). One end of the return spring (17) is hooked on the connecting seat (16), and the other end of the return spring (17) is hooked on the corresponding disinfection tank (1).

6. The automatic disinfection and sterilization system for bottled water processing as described in claim 5, characterized in that: A horizontal seat (26) is connected to the linkage rod (18) inside the disinfection tank (1). The horizontal seat (26) and the linkage rod (18) are arranged in an L-shape. A limiting rod (25) is connected to the horizontal seat (26). The limiting rod (25) is connected through the horizontal seat (26). The limiting rod (25) is arranged vertically inside the disinfection tank (1). The diameter of the limiting rod (25) is smaller than the diameter of the linkage rod (18).

7. The automatic disinfection and sterilization system for bottled water processing as described in claim 1, characterized in that: A limiting plate (27) is provided on the first mesh cylinder (24), and an ultraviolet lamp (8) is connected through the central axis of the limiting plate (27). The limiting plate (27) is used to seal the lower port of the first mesh cylinder (24).

8. The automatic disinfection and sterilization system for bottled water processing as described in claim 7, characterized in that: The blocking plate (23) outside the first mesh cylinder (24) is cylindrical in shape. The outer diameter of the first mesh cylinder (24) is the same as the inner diameter of the blocking plate (23). The upper and lower ports of the blocking plate (23) are open.

9. The automatic disinfection and sterilization system for bottled water processing as described in claim 8, characterized in that: An inner plate (29) is connected to the outer wall of the blocking plate (23). The inner plate (29) is located below the outer side of the blocking plate (23). A second mesh cylinder (28) is connected to the inner plate (29). The upper port of the second mesh cylinder (28) is higher than the height of the inner plate (29). The second mesh cylinder (28), the inner plate (29) and the blocking plate (23) are arranged in a U-shape.

10. The automatic disinfection and sterilization system for bottled water processing as described in claim 9, characterized in that: The first mesh cylinder (24) has a side plate (22) inside the outer disinfection tank (1), and a conical cover (21) is connected to the side plate (22). The small end of the conical cover (21) has an outlet (20), which is located above the second mesh cylinder (28).

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