A deep-sea farming platform cleaning device

Abstract

The application provides a deep-sea culture platform cleaning device, and belongs to the technical field of cleaning devices. The device comprises a culture platform body, a flushing module arranged above the culture platform body, and a cleaning module arranged on the flushing module. The flushing module comprises a fixed block, a liquid pumping device fixedly connected to the fixed block, a recessed pipe connected to the other side of the liquid discharging pipe, and a plurality of nozzles connected to the lower end of the shunt pipe at equal intervals. The cleaning module comprises a support seat detachably arranged on the side of the culture platform body, a reserved groove on the support seat, and a stain removal unit. The stain removal unit comprises a motor fixedly connected to one side of the support seat, a stud fixedly connected to the rotating part of the motor, a cleaning roller fixedly connected to the outer circumferential wall of the stud, and a pair of silica gel plates fixedly connected to the two sides of the stud. The application solves the problem of the existing deep-sea culture platform cleaning device, which is mostly manually cleaned, time-consuming and laborious, has a slow cleaning speed, and is very inconvenient to clean.

Description

Technical Field

[0001] This invention belongs to the field of cleaning device technology, specifically relating to a cleaning device for deep-sea aquaculture platforms. Background Technology

[0002] Deep-sea aquaculture has experienced rapid growth in recent years due to its high efficiency and vast development potential. However, the high salinity, high pressure, low temperature, and pollutants in the deep-sea environment pose significant challenges to aquaculture platforms. In particular, biological contamination, such as the attachment of algae, shellfish, and other marine organisms, can severely impact the operational efficiency and lifespan of aquaculture platforms.

[0003] Existing deep-sea aquaculture platform cleaning equipment mostly relies on manual cleaning, which is time-consuming, labor-intensive, slow, and inconvenient. Summary of the Invention

[0004] This invention provides a deep-sea aquaculture platform cleaning device, which aims to solve the problems of existing deep-sea aquaculture platform cleaning devices, which mostly rely on manual cleaning, which is time-consuming, labor-intensive, slow, and inconvenient.

[0005] This invention provides a deep-sea aquaculture platform cleaning device, which includes an aquaculture platform body, a rinsing module installed on top of the aquaculture platform body, and a cleaning module installed on the rinsing module.

[0006] The rinsing module includes a fixed block, on which a liquid pump is fixedly connected. The lower end of the liquid pump is connected to a suction pipe that extends into the seawater. The upper end of the liquid pump is connected to a discharge pipe, and the other end of the discharge pipe is connected to a concave pipe. The lower end of the concave pipe is connected to a diversion pipe, and the lower end of the diversion pipe is connected to multiple nozzles at equal intervals. The nozzles are angled towards the aquaculture platform body. The other end of the diversion pipe is connected to another concave pipe.

[0007] The cleaning module includes a detachable support base mounted on the side of the aquaculture platform body, with a pre-drilled groove on the support base, and a decontamination unit. The decontamination unit includes a motor, which is fixed to one side of the support base. A stud is fixed to the rotating part of the motor, and a docking cylinder is threaded onto the outer peripheral wall of the stud. A movable block is fixed to the side of the docking cylinder near the groove. The movable block is fixed to one side of the fixed block. The movable block is movably connected to the outer wall of the support base. A lifting block is movably mounted on the movable block. The lifting block passes through the movable block. A spiral beryllium copper wire A is installed between the lifting block and the movable block. A rotating column is screwed onto the side of the lifting block near the aquaculture platform body. A cleaning roller is fixed to the outer peripheral wall of the rotating column. A pair of silicone discs are fixed to both sides of the rotating column. A traction rod is fixed to the side of the lifting block farther from the rotating column. The outer peripheral wall of the docking cylinder is in contact with the inner surface of the groove, and the outer peripheral wall of the cleaning roller is in contact with the upper wall of the aquaculture platform body.

[0008] The moving block is equipped with a disassembly and assembly unit for fastening and disassembling the cleaning roller, and a protection unit to prevent the cleaning roller and silicone disc from impacting the aquaculture platform body when they move downwards.

[0009] The disassembly and assembly unit includes a support fixed to the side of the variable block near the traction rod. A concave block is movably mounted on the support. A beryllium copper sheet A is installed between the concave block and the support. An insert block is movably mounted in the concave block. A beryllium copper sheet B is installed between the insert block and the concave block. An assembly column is movably mounted on the support. The lower end of the assembly column is fixed to a contact cylinder. The side of the concave block farther from the insert block is screwed to a rotating seat. A bent strip is fixed to the side of the support near the rotating seat. A square opening is reserved in the support. The inner surfaces of the insert block and the square opening are in contact. A round hole is reserved on the side of the contact cylinder near the traction rod. The round hole is in contact with the outer peripheral wall of the traction rod. An insert interface is reserved on the outer peripheral wall of the contact cylinder.

[0010] Furthermore, a pair of silicone discs are mirror images of each other, with textured surfaces on the outer periphery of the silicone discs. The textured surfaces are in contact with the upper surface of the aquaculture platform. An adjustment opening is provided on the outer wall of the adjustment block, and a constraint opening is also provided on the outer wall of the adjustment block.

[0011] Furthermore, an arched wall A is reserved at the upper end of the touch cylinder, an oblique wall A is reserved at the lower end of the interlocking block, and arched walls B are reserved on both sides of the touch cylinder.

[0012] Furthermore, a spring A is installed between the rotating seat and the concave block, and an arched wall C is reserved on the side of the rotating seat near the bending bar, with the arched wall C and the inner surface of the bending bar in contact.

[0013] Furthermore, the protection unit includes a movable rod movably installed in the variable port. A support block is fixed to the outer peripheral wall of the movable rod. Multiple rotating rods are screwed onto the inner surface of the support block. A beryllium copper sheet C is fixed to the outer peripheral wall of the rotating rod. Multiple blocking sheets are fixed to the inner surface of the support block. A pair of traction columns are movably installed on the movable rod. The pair of traction columns pass through the movable rod. A spiral beryllium copper wire B is installed between the traction columns and the movable rod. A constraint rod is fixed to the outer peripheral wall of the traction column.

[0014] Furthermore, a spring B is installed between the rotating rod and the support block, and a beryllium copper sheet C is arched, with the upper end of the barrier plate in contact with the beryllium copper sheet C.

[0015] Furthermore, the outer peripheral wall of the constraint rod and the inner surface of the constraint opening are in contact, and traction columns are installed on both sides of the transverse direction of the moving rod.

[0016] The beneficial effects of this invention are as follows:

[0017] 1. Through the installation of the flushing module and the cleaning module, the present invention can automatically and thoroughly clean the aquaculture platform body, saving time and effort, greatly speeding up the cleaning process, making cleaning very convenient, and ensuring the cleanliness of the aquaculture platform body.

[0018] 2. The textured surface of this invention increases the resistance, allowing the silicone disc to smoothly pull the rotating column to rotate. The resistance between the silicone disc and the aquaculture platform body improves the stability of the rotating column, ensuring and accelerating the cleaning speed of the cleaning roller, and reducing the cleaning process. This allows users to quickly perform cleaning or replacement of the cleaning roller. Furthermore, the downward pressing of the lifting block keeps the cleaning roller in contact with the upper wall of the aquaculture platform body. When cleaning the aquaculture platform body, the cleaning roller can automatically adjust according to the pits and bumps on the upper wall of the aquaculture platform body, ensuring thorough cleaning and preventing damage caused by uneven cleaning.

[0019] The inner surfaces of the interlocking block and the contact cylinder are in contact, allowing the interlocking block to constrain the contact cylinder. The interlocking block automatically constrains the contact cylinder when it moves to the selected position, ensuring ease of use and keeping the cleaning roller in the selected position for easy cleaning or replacement. When the interlocking block releases its constraint on the contact cylinder, the rotating seat returns to its original position after repositioning. The constraint on the contact cylinder can be released in just two simple actions, which not only enhances the standardization of use but also prevents the lifting block from returning to its original position due to accidental contact when cleaning the cleaning roller.

[0020] During the shape change, the beryllium copper sheet C provides additional resistance to the contact cylinder during the movement. By installing multiple beryllium copper sheets C to provide intermittent resistance to the contact cylinder, the downward movement rate of the contact cylinder can be reduced to prevent the cleaning roller and silicone disc from colliding with the aquaculture platform body when they move downward. It also moves against the traction column, which pulls the moving rod to move. Through the correct action, the position of the moving rod can be quickly changed, allowing the user to decide whether to use the beryllium copper sheet C as needed.

[0021] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0022] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0023] Figure 1 This is a schematic diagram of the flushing module structure according to an embodiment of the present invention;

[0024] Figure 2 This is a schematic diagram of the cleaning module structure according to an embodiment of the present invention;

[0025] Figure 3 This is a schematic diagram of the support structure according to an embodiment of the present invention;

[0026] Figure 4 This is a schematic diagram of the motor and stud assembly structure according to an embodiment of the present invention;

[0027] Figure 5 This is an embodiment of the present invention. Figure 4 A magnified structural diagram at point M;

[0028] Figure 6 This is a schematic diagram of the internal structure of the decontamination unit according to an embodiment of the present invention;

[0029] Figure 7 This is a schematic diagram of the disassembly and assembly unit and the protection unit according to an embodiment of the present invention;

[0030] Figure 8 This is a schematic diagram of the assembly structure of the interlocking block and beryllium copper sheet B according to an embodiment of the present invention;

[0031] Figure 9 This is a schematic diagram of the internal structure of the protection unit according to an embodiment of the present invention;

[0032] Figure 10 This is an embodiment of the present invention. Figure 9 A magnified structural diagram at point N;

[0033] Attached reference numerals: 1. Aquaculture platform body; 2. Flushing module; 3. Cleaning module; 21. Fixing block; 22. Liquid pump; 23. Suction pipe; 24. Drain pipe; 25. Concave pipe; 26. Diverter pipe; 27. Nozzle; 32. Support base; 331. Motor; 332. Stud; 34. Connecting cylinder; 35. Variable block; 36. Lifting block; 37. Spiral beryllium copper wire A; 38. Rotating column; 39. Cleaning roller; 310. Silicone disc; 311. Traction rod; 3121, Support; 3122, Concave Block; 3123, Beryllium Copper Sheet A; 3124, Interlocking Block; 3125, Beryllium Copper Sheet B; 3126, Assembly Column; 3127, Contact Cylinder; 3128, Rotating Seat; 3129, Bending Strip; 3131, Variable Rod; 3132, Support Block; 3133, Rotating Rod; 3134, Beryllium Copper Sheet C; 3135, Barrier Plate; 3136, Traction Column; 3137, Spiral Beryllium Copper Wire B; 3138, Constraint Rod. Detailed Implementation

[0034] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0035] Reference Figures 1-10 This invention provides a deep-sea aquaculture platform cleaning device, which includes an aquaculture platform body 1, a rinsing module 2 installed above the aquaculture platform body 1, and a cleaning module 3 installed on the rinsing module 2.

[0036] With the installation of the flushing module 2 and the cleaning module 3, the aquaculture platform body 1 can be thoroughly cleaned by itself, saving time and effort, greatly speeding up the cleaning process, making cleaning very convenient, and ensuring the cleanliness of the aquaculture platform body 1.

[0037] Reference Figure 1 The rinsing module 2 includes a fixing block 21, on which a liquid pump 22 is fixedly connected. The lower end of the liquid pump 22 is connected to a suction pipe 23, which extends into the seawater. The upper end of the liquid pump 22 is connected to a drain pipe 24, and the other end of the drain pipe 24 is connected to a concave pipe 25. The lower end of the concave pipe 25 is connected to a diversion pipe 26, and the lower end of the diversion pipe 26 is connected to multiple nozzles 27 at equal intervals. The nozzles 27 are angled toward the aquaculture platform body 1, and the other end of the diversion pipe 26 is connected to another concave pipe 25.

[0038] The water is pumped from the suction pipe 23 to the discharge pipe 24 by the pump 22. The discharge pipe 24 then delivers the water to the concave pipe 25. The concave pipe 25 then delivers the water to the nozzle 27. The nozzle 27 sprays the water onto the aquaculture platform body 1, thereby rinsing the aquaculture platform body 1.

[0039] Reference Figures 2-6The cleaning module 3 includes a detachable support base 32 mounted on the side of the aquaculture platform body 1. The support base 32 has pre-drilled channels and a cleaning unit. The cleaning unit includes a motor 331, which is fixedly connected to one side of the support base 32. A stud 332 is fixedly connected to the rotating part of the motor 331. A connecting cylinder 34 is threaded onto the outer peripheral wall of the stud 332. A movable block 35 is fixedly connected to the side of the connecting cylinder 34 near the channels. The movable block 35 is fixedly connected to one side of the fixed block 21. The movable block 35 is movably connected to the outer wall of the support base 32. A lifting block 36 is movably mounted on the movable block 35, passing through the movable block 35 to lift and lower. A spiral beryllium copper wire A37 is installed between block 36 and variable block 35. The side of lifting block 36 closest to the aquaculture platform body 1 is connected to a rotating column 38. A cleaning roller 39 is fixed to the outer peripheral wall of the rotating column 38. A pair of silicone discs 310 are fixed to both sides of the rotating column 38. A traction rod 311 is fixed to the side of lifting block 36 farther from the rotating column 38. The outer peripheral wall of the docking cylinder 34 is in contact with the inner surface of the trench. The outer peripheral wall of the cleaning roller 39 is in contact with the upper wall of the aquaculture platform body 1. When cleaning the aquaculture platform body 1 with the cleaning roller 39, it can automatically adjust according to the pits and depressions on the upper wall of the aquaculture platform body 1 to achieve the purpose of thorough cleaning.

[0040] A pair of silicone discs 310 are mirror images of each other. The outer peripheral wall of the silicone discs 310 has a textured surface that is in contact with the upper wall of the aquaculture platform body 1. The outer wall of the variable block 35 has a variable opening and a constraint opening. The resistance between the silicone discs 310 and the aquaculture platform body 1 improves the stability of the rotating column 38, thereby ensuring the cleaning speed of the cleaning roller 39.

[0041] When cleaning is required, motor 331 operates, driving stud 332 to rotate forward. Stud 332 pulls docking cylinder 34 to move towards the side furthest from motor 331. Docking cylinder 34 pulls moving block 35 towards the side furthest from motor 331. Moving block 35 pulls rotating column 38 towards the side furthest from motor 331. Rotating column 38 pulls cleaning roller 39 towards the side furthest from motor 331. During this movement, there is resistance between cleaning roller 39 and the aquaculture platform body 1. Under this resistance, cleaning roller 39 rotates, pulling rotating column 38 to rotate. During this rotation, cleaning roller 39 cleans the upper wall of aquaculture platform body 1. During this rotation, cleaning roller 39 also cleans the pits and depressions of aquaculture platform body 1. When in contact, the cleaning roller 39 moves upward under external resistance, pulling the rotating column 38 upward, which in turn pulls the lifting block 36 upward. During this movement, the lifting block 36 presses against the spiral beryllium copper wire A37, causing it to shorten. The shortened wire then presses against the lifting block 36, which in turn presses down on the rotating column 38. This keeps the cleaning roller 39 in close contact with the upper wall of the aquaculture platform 1 during rotation. The cleaning roller 39 can automatically adjust to the unevenness of the upper wall of the platform 1 during cleaning, ensuring thorough cleaning and preventing damage caused by uneven cleaning, thus extending the service life of the platform 1. The rotating column 39... 8. During the movement, the silicone disc 310 moves towards the side farther from the motor 331. The outer peripheral wall of the silicone disc 310 creates resistance against the upper wall of the aquaculture platform body 1 during this movement. The silicone disc 310 rotates under this resistance, and the texture on the peripheral wall of the silicone disc 310 adheres to the aquaculture platform body 1 during rotation, increasing the resistance between the silicone disc 310 and the aquaculture platform body 1. This allows the silicone disc 310 to more smoothly pull the rotating column 38. After the docking cylinder 34 moves to the tail of the aquaculture platform body 1, the motor 331 pulls the stud 332 to rotate in the opposite direction, causing the stud 332 to pull the docking cylinder 34 towards the side closer to the motor 331. When the user cleans or replaces the cleaning roller 39, the motor 3... 31. Stop operation, grasp the traction rod 311 and move it upwards. The traction rod 311 pulls the lifting block 36 upwards. During the movement, the lifting block 36 presses the spiral beryllium copper wire A37, and the lifting block 36 pulls the rotating column 38 upwards. The rotating column 38 pulls the cleaning roller 39 upwards. During the movement, the outer peripheral wall of the cleaning roller 39 separates from the aquaculture platform body 1. The rotating column 38 pulls the silicone disc 310 upwards. During the movement, the outer peripheral wall of the silicone disc 310 separates from the aquaculture platform body 1. After the cleaning roller 39 moves to the required position, cleaning or replacement is performed. The resistance between the silicone disc 310 and the aquaculture platform body 1 improves the stability of the rotating column 38, speeds up the cleaning speed of the cleaning roller 39, and reduces the cleaning process.Enable the user to quickly perform the action of cleaning or replacing the cleaning roller 39.

[0042] Refer to Figures 2-10 As shown in Figures 2-10 , on the moving block 35, there are installed a disassembly and assembly unit for fastening and disassembling the cleaning roller 39 and a protection unit for preventing the cleaning roller 39 and the silicone disc 310 from hitting the aquaculture platform body 1 when moving downward. The disassembly and assembly unit includes a support 3121 fixedly connected to one side of the moving block 35 close to the traction rod 311. A concave block 3122 is movably installed on the support 3121. A beryllium copper sheet A3123 is installed between the concave block 3122 and the support 3121. An insertion block 3124 is movably installed in the concave block 3122. A beryllium copper sheet B3125 is installed between the insertion block 3124 and the concave block 3122. An assembly column 3126 is movably installed on the support 3121. The lower end of the assembly column 3126 is fixedly connected to a touch cylinder 3127. On the side of the concave block 3122 far from the insertion block 3124, a rotating seat 3128 is screwed. The rotating seat 3128 is in a "丄" - shaped structure. On the side of the support 3121 close to the rotating seat 3128, a bent strip 3129 is fixedly connected. The bent strip 3129 is in a right - angled folding shape. A square hole is reserved in the support 3121. The insertion block 3124 is in contact with the inner surface of the square hole. On the side of the touch cylinder 3127 close to the traction rod 311, a round hole is reserved. The round hole is in contact with the outer peripheral wall of the traction rod 311. An insertion port is reserved on the outer peripheral wall of the touch cylinder 3127. The insertion block 3124 automatically restricts the touch cylinder 3127 moved to the selected position, ensuring the convenience of use and keeping the cleaning roller 39 at the selected position for easy cleaning or replacement actions.

[0043] At the upper end of the touch cylinder 3127, an arched wall A is reserved. At the lower end of the insertion block 3124, an inclined wall A is reserved. On the two transverse sides of the touch cylinder 3127, arched walls B are reserved. Through the reserved arched wall A and inclined wall A, when the touch cylinder 3127 is in contact with the insertion block 3124, it can successfully pull the insertion block 3124 to move, ensuring the smoothness of the movement.

[0044] A spring A is installed between the rotating seat 3128 and the concave block 3122. On the side of the rotating seat 3128 close to the bent strip 3129, an arched wall C is reserved. The arched wall C is in contact with the inner surface of the bent strip 3129. It only takes two simple actions to cancel the restraint of the touch cylinder 3127, which can not only strengthen the standardization of use but also prevent the situation that the lifting block 36 returns to its original position due to accidental touch when the user is cleaning the cleaning roller 39.

[0045] The protection unit includes a movable rod 3131 movably mounted in the variable port. A support block 3132 is fixedly connected to the outer peripheral wall of the movable rod 3131. Multiple rotating rods 3133 are screwed onto the inner surface of the support block 3132. A beryllium copper sheet C3134 is fixedly connected to the outer peripheral wall of the rotating rod 3133. Multiple blocking plates 3135 are fixedly connected to the inner surface of the support block 3132. A pair of traction columns 3136 are movably mounted on the movable rod 3131. 3136 passes through the variable rod 3131. A spiral beryllium copper wire B3137 is installed between the traction column 3136 and the variable rod 3131. A constraint rod 3138 is fixed to the outer peripheral wall of the traction column 3136. Multiple beryllium copper plates C3134 provide intermittent resistance to the contact cylinder 3127, which can change the speed of the downward movement of the contact cylinder 3127 to prevent the cleaning roller 39 and the silicone disc 310 from colliding with the aquaculture platform body 1 when they move downward.

[0046] A spring B is installed between the rotating rod 3133 and the support block 3132. The beryllium copper sheet C3134 is arched. The upper end of the barrier plate 3135 is in contact with the beryllium copper sheet C3134. The installation of the spring B ensures that the rotating rod 3133 can quickly return to its original position after rotating, thereby ensuring the stability of the device.

[0047] The outer peripheral wall of the constraint rod 3138 is in contact with the inner surface of the constraint opening. Traction posts 3136 are installed on both sides of the transverse side of the variable rod 3131. The position of the variable rod 3131 can be quickly changed through normal operation, allowing the user to decide whether to use the beryllium copper sheet C3134 as needed.

[0048] The specific implementation method is as follows: During cleaning, the traction rod 311 moves upward, pulling the contact cylinder 3127 upward. The contact cylinder 3127 pulls the assembly column 3126 upward. The support 3121 supports the movement of the traction rod 311 through the assembly column 3126 and the contact cylinder 3127, allowing the traction rod 311 to move stably. During the movement, the arched wall A on the contact cylinder 3127 contacts the skewed wall A on the interlocking block 3124. The arched wall A moves and presses against the skewed wall A, and the interlocking block 3124 is pressed towards one side of the concave block 3122. During the movement, the interlocking block 3124 presses against the beryllium copper sheet B312. 5. When the beryllium copper sheet B3125 is compressed and changes shape, and the contact cylinder 3127 moves to the desired position, the interlocking block 3124 separates from the outer peripheral wall of the contact cylinder 3127, allowing the shape-changed beryllium copper sheet B3125 to return to its original position and pull the interlocking block 3124 to move towards the side farther from the concave block 3122. During the movement, the interlocking block 3124 is in contact with the inner surface of the interlocking interface on the contact cylinder 3127, allowing the interlocking block 3124 to constrain the contact cylinder 3127. The contact cylinder 3127 is constrained and cannot move, causing the traction rod 311 to be unable to move. The interlocking block 3124 automatically constrains the contact cylinder 3127, which has moved to the selected position. To ensure ease of use, the cleaning roller 39 is kept in the selected position for easy cleaning or replacement. After cleaning or replacement, the rotating seat 3128 is rotated clockwise. The rotating seat 3128 pulls the mainspring A, causing it to change shape. During rotation, the arched wall C on the rotating seat 3128 separates from the wall surface that was in contact with the bending strip 3129, allowing the bending strip 3129 to release its constraint on the concave block 3122. Then, the rotating seat 3128 is pulled to move towards the side farther from the support 3121, and the rotating seat 3128 pulls the concave block 3122 to move towards the side farther from the support 3121. During the movement, the concave block 3122 pulls the beryllium copper sheet A3123, which changes shape under the pull. The concave block 3122 also pulls the insert block 3124 to the side farther away from the contact cylinder 3127. During the movement, the insert block 3124 separates from the insert interface, allowing the insert block 3124 to release the constraint on the contact cylinder 3127. After the rotating seat 3128 moves again, it performs the return movement. The constraint on the contact cylinder 3127 can be released through two simple actions, which not only enhances the standardization of use, but also avoids the situation where the lifting block 36 returns to its original position due to accidental contact when the user cleans the cleaning roller 39.

[0049] When the contact cylinder 3127 moves upward, it comes into contact with multiple beryllium copper sheets C3134. During the movement, the arched wall B on the contact cylinder 3127 comes into contact with the arched surface of the beryllium copper sheet C3134. The movement of the arched wall B applies pressure to the arched surface of the beryllium copper sheet C3134, causing the contact cylinder 3127 to pull the beryllium copper sheet C3134 to rotate upward. The rotating rod 3133 rotates upwards, pulling the mainspring B during this rotation. Meanwhile, the beryllium copper sheet C3134 separates from the wall surface where the barrier plate 3135 was attached. When the arched wall B and the beryllium copper sheet C3134 separate, the mainspring B returns to its original position, pulling the rotating rod 3133 downwards. The rotating rod 3133 then pulls the beryllium copper sheet C3134 downwards. During rotation, C3134 comes into contact with the barrier plate 3135 again. When the contact cylinder 3127 moves downward, the contact cylinder 3127 and the multiple beryllium copper sheets C3134 come into contact, and the arched wall B and the collapsed surface of the beryllium copper sheet C3134 come into contact. Because the beryllium copper sheet C3134 cannot rotate downward due to the obstruction of the barrier plate 3135, the arched wall B then moves and presses the beryllium copper sheet C3134. The beryllium copper sheet C3134 changes shape downward under the pressure. During the shape change, the beryllium copper sheet C3134 provides additional obstruction to the contact cylinder 3127 during the movement. When the arched wall B and the beryllium copper sheet C3134 separate, the shape-changed beryllium copper sheet C3134 returns to its original position under its own deformation force. Through the multiple beryllium copper sheets C3134 installed, the contact cylinder 3127... 127 provides intermittent resistance, reducing the rate at which the contact cylinder 3127 moves downwards, preventing the cleaning roller 39 and silicone disc 310 from colliding with the aquaculture platform body 1 when moving downwards. When the beryllium copper sheet C3134 is not in use, the user pulls the traction column 3136 to move it to the side farther from the moving rod 3131. The traction column 3136 pulls the spiral beryllium copper wire B3137, changing its shape. The traction column 3136 also pulls the constraint rod 3138 to move it to the side farther from the moving block 35. During movement, the constraint rod 3138 separates from the constraint opening, allowing the moving block 35 to release its constraint on the moving rod 3131, pushing against the traction column 3136 and moving towards the traction rod 311. The traction column 3136 pulls the moving rod... Rod 3131 moves toward the traction rod 311. The moving rod 3131 pulls the support block 3132 to move toward the traction rod 311. The support block 3132 then pulls the rotating rod 3133 and the blocking plate 3135 to move toward the traction rod 311. The rotating rod 3133 pulls the beryllium copper sheet C3134 to move toward the traction rod 311. When the moving rod 3131 reaches the desired position, the traction column 3136 is released. The spiral beryllium copper wire B3137, whose shape has changed, returns to its original position and pulls the traction column 3136 to move toward the moving rod 3131. The traction column 3136 pulls the constraint rod 3138 to move toward the moving block 35. During the movement, the constraint rod 3138 is in contact with the inner surface of the constraint opening, preventing the moving rod 3131 from moving further.Furthermore, the arched wall B does not adhere to the beryllium copper sheet C3134 during the movement, and the orientation of the adjusting rod 3131 is quickly changed through correct operation, allowing the user to decide whether to use the beryllium copper sheet C3134 as needed;

[0050] During the mobile cleaning process, the suction pipe 23 is drawn to the discharge pipe 24 by the pump 22, and the discharge pipe 24 then delivers water to the concave pipe 25. The concave pipe 25 then delivers water to the nozzle 27, and the nozzle 27 sprays water onto the aquaculture platform body 1, thereby rinsing the aquaculture platform body 1.

[0051] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A deep-sea aquaculture platform cleaning device, comprising an aquaculture platform body, characterized in that, A flushing module is installed on top of the aquaculture platform, and a cleaning module is installed on the flushing module; The rinsing module includes a fixed block, on which a liquid pump is fixedly connected. The lower end of the liquid pump is connected to a suction pipe that extends into the seawater. The upper end of the liquid pump is connected to a discharge pipe, and the other end of the discharge pipe is connected to a concave pipe. The lower end of the concave pipe is connected to a diversion pipe, and the lower end of the diversion pipe is connected to multiple nozzles at equal intervals. The nozzles are angled towards the aquaculture platform body. The other end of the diversion pipe is connected to another concave pipe. The cleaning module includes a detachable support base mounted on the side of the aquaculture platform body, with a pre-drilled groove on the support base, and a decontamination unit. The decontamination unit includes a motor, which is fixed to one side of the support base. A stud is fixed to the rotating part of the motor, and a docking cylinder is threaded onto the outer peripheral wall of the stud. A movable block is fixed to the side of the docking cylinder near the groove. The movable block is fixed to one side of the fixed block. The movable block is movably connected to the outer wall of the support base. A lifting block is movably mounted on the movable block. The lifting block passes through the movable block. A spiral beryllium copper wire A is installed between the lifting block and the movable block. A rotating column is screwed onto the side of the lifting block near the aquaculture platform body. A cleaning roller is fixed to the outer peripheral wall of the rotating column. A pair of silicone discs are fixed to both sides of the rotating column. A traction rod is fixed to the side of the lifting block farther from the rotating column. The outer peripheral wall of the docking cylinder is in contact with the inner surface of the groove, and the outer peripheral wall of the cleaning roller is in contact with the upper wall of the aquaculture platform body. The moving block is equipped with a disassembly and assembly unit for fastening and disassembling the cleaning roller, and a protection unit to prevent the cleaning roller and silicone disc from impacting the aquaculture platform body when they move downwards. The disassembly and assembly unit includes a support fixed to the side of the variable block near the traction rod. A concave block is movably mounted on the support. A beryllium copper sheet A is installed between the concave block and the support. An insert block is movably mounted in the concave block. A beryllium copper sheet B is installed between the insert block and the concave block. An assembly column is movably mounted on the support. The lower end of the assembly column is fixed to a contact cylinder. The side of the concave block farther from the insert block is screwed to a rotating seat. A bent strip is fixed to the side of the support near the rotating seat. A square opening is reserved in the support. The inner surfaces of the insert block and the square opening are in contact. A round hole is reserved on the side of the contact cylinder near the traction rod. The round hole is in contact with the outer peripheral wall of the traction rod. An insert interface is reserved on the outer peripheral wall of the contact cylinder.

2. The deep-sea aquaculture platform cleaning device according to claim 1, characterized in that: A pair of silicone discs are mirrored, with textured surfaces on their outer walls that align with the upper surface of the aquaculture platform. An adjustment opening is provided on the outer wall of the variable block, as is a constraint opening.

3. The deep-sea aquaculture platform cleaning device according to claim 1, characterized in that: An arched wall A is reserved at the upper end of the contact cylinder, a skewed wall A is reserved at the lower end of the interlocking block, and arched walls B are reserved on both sides of the horizontal axis of the contact cylinder.

4. The deep-sea aquaculture platform cleaning device according to claim 1, characterized in that: A spring A is installed between the rotating seat and the concave block. An arched wall C is reserved on the side of the rotating seat near the bending bar. The arched wall C is in contact with the inner surface of the bending bar.

5. The deep-sea aquaculture platform cleaning device according to claim 1, characterized in that: The protection unit includes a movable rod installed in the variable port. A support block is fixed to the outer peripheral wall of the movable rod. Multiple rotating rods are screwed onto the inner surface of the support block. A beryllium copper sheet C is fixed to the outer peripheral wall of the rotating rod. Multiple blocking sheets are fixed to the inner surface of the support block. A pair of traction columns are movably installed on the movable rod. The pair of traction columns pass through the movable rod. A spiral beryllium copper wire B is installed between the traction columns and the movable rod. A constraint rod is fixed to the outer peripheral wall of the traction column.

6. The deep-sea aquaculture platform cleaning device according to claim 5, characterized in that: A spring B is installed between the rotating rod and the support block. The beryllium copper sheet C is arched, and the upper end of the barrier plate is in contact with the beryllium copper sheet C.

7. A deep-sea aquaculture platform cleaning device according to claim 6, characterized in that: The outer peripheral wall of the constraint rod is in contact with the inner surface of the constraint opening, and traction columns are installed on both sides of the transverse side of the moving rod.

Images