Magnetic suspension blower temperature control system

Abstract

The invention provides a temperature control system for a magnetic suspension blower, which belongs to the technical field of magnetic suspension blowers and comprises a magnetic suspension blower body, a spiral heat conduction pipe tightly sleeved on the outer surface of the magnetic suspension blower body, a communication unit arranged between a pair of storage chambers, a water pump fixedly connected to a shell, and an assisting unit arranged on the back of the shell. The air outlet end is reserved on the front face of the shell, the motor is fixedly connected to the bearing seat, the rotating rod B is screwed between the pair of round blocks, the rotating table is fixedly connected to the center of the rotating rod B, the bending strip is screwed on the rotating rod B, and the heat conduction strips are arranged at the bottom of the assembly strip. The problems that in the working period of an existing magnetic suspension air blower, the temperature of the interior of the air blower can rise in the running process of components, no corresponding heat removal structure is used for accelerating heat removal of the magnetic suspension air blower, and heat removal cannot be conducted on the magnetic suspension air blower in time to enable the air blower to run normally are solved.

Description

Technical Field

[0001] The present invention belongs to the technical field of magnetic levitation blowers, and particularly relates to a temperature control system for a magnetic levitation blower. Background Art

[0002] A magnetic levitation blower is an efficient, energy-saving, and environmentally friendly blowing device that uses magnetic levitation bearing and high-speed permanent magnet synchronous motor technologies. It realizes non-contact and frictionless rotor levitation through magnetic levitation bearings, reduces mechanical losses, and improves energy efficiency and reliability. The characteristics of magnetic levitation blowers include high efficiency, low vibration, low noise, no lubricating oil pollution, easy installation and maintenance, and a long service life.

[0003] The prior art CN222502103U discloses a magnetic levitation centrifugal blower, including a magnetic levitation blower. One side of the magnetic levitation blower is fixedly connected with an air inlet pipe, and an anti-blocking mechanism is arranged on the outer side of the air inlet pipe; the anti-blocking mechanism includes a filter plate arranged inside the air inlet pipe, a first hollow block fixedly connected to the outer side of the air inlet pipe, a rotating rod rotatably connected inside the first hollow block, a gear fixedly connected to one side of the rotating rod, a rack slidably connected to the outer side of the air inlet pipe, and the rack meshes with the gear. A sliding groove is formed on one side of the air inlet pipe, and a slider is slidably connected inside the air inlet pipe at the sliding groove, and the slider is fixedly connected to the filter plate. During the operation of this magnetic levitation blower, its internal temperature will rise during the operation of components, and there is no corresponding heat removal structure to accelerate the heat removal of the magnetic levitation blower, and it is impossible to timely perform heat removal on the magnetic levitation blower to enable its normal operation. Summary of the Invention

[0004] The present invention provides a temperature control system for a magnetic levitation blower, aiming to solve the problem that during the operation of the existing magnetic levitation blower, its internal temperature will rise during the operation of components, and there is no corresponding heat removal structure to accelerate the heat removal of the magnetic levitation blower, and it is impossible to timely perform heat removal on the magnetic levitation blower to enable its normal operation.

[0005] An embodiment of the present invention provides a temperature control system for a magnetic levitation blower, which includes a magnetic levitation blower body. A spiral heat conduction tube is tightly sleeved on the outer surface of the magnetic levitation blower body. One side of the spiral heat conduction tube is connected to a connecting pipe A, and the other side of the spiral heat conduction tube is connected to a connecting pipe B. The upper end of the magnetic levitation blower body is fixedly connected to a housing. An assembly chamber and a pair of mirror-image storage chambers are reserved in the housing. A connecting unit is arranged between the pair of storage chambers. A water pump is fixedly connected to the housing. One side of the water pump is connected to the connecting pipe A, and the other side of the water pump is connected to an access channel. The side of the access channel farther from the water pump is connected to a heat conduction channel A. The side of the heat conduction channel A farther from the access channel is connected to an outflow channel. The side of the outflow channel outside the housing is connected to the side of the connecting pipe B. An assisting unit is arranged on the back of the housing to quickly remove heat from the heat conduction channel A through the assisting unit. An air outlet end is reserved on the front of the housing, and an air inlet end is reserved inside the assisting unit on the back of the housing. An outer cylinder is fixedly connected to the outer wall surface of the air inlet end, and dust-proof nets are arranged on the inner wall of the outer cylinder and the air outlet end. The assisting unit includes a bearing seat fixedly connected to the housing. A motor is fixedly connected to the bearing seat. The rotating part of the motor is fixedly connected to a rotating column A. A plurality of rotating blades are fixedly connected to the outer peripheral surface of the rotating column A. A main channel is fixedly connected to the outflow channel. The side of the main channel farther from the outflow channel extends into the assembly chamber and is located in front of the rotating blades. A plurality of discharge nozzles are arranged on the main channel. A rotating column B is rotatably connected to the inner wall of the bearing seat. A rotating rod A and a rotating disk A are fixedly connected to the rotating column B. A spiral tooth is reserved on the outer surface of the rotating rod A. The rotating rod A is located outside the rotating disk A. A rotating disk B is fixedly connected to the rotating column A. The rotating disk A and the rotating disk B are linked by a toothed chain. Tooth openings engaged with the toothed chain are reserved on the outer peripheral surfaces of the rotating disk A and the rotating disk B. A pair of mirror-image circular blocks are fixedly connected to both sides of the top of the housing. A rotating rod B is rotatably connected between the pair of circular blocks. Threaded ports with opposite directions are reserved on the outer surfaces of both sides of the rotating rod B, and a rotating table is fixedly connected to the center of the rotating rod B. A plurality of teeth are reserved on the outer peripheral surface of the rotating table. A bent strip is threaded on the rotating rod B. One side of the bent strip is movably connected to an elastic pin, and the other side of the bent strip is fixedly connected to an assembly strip. A plurality of heat conduction strips are arranged at the bottom of the assembly strip.

[0006] Further, the middle position of the heat conduction channel A is inside the assembly chamber, the bent position of the heat conduction channel A is inside the storage chamber, and a plurality of discharge nozzles are arranged vertically and mirror-image.

[0007] Further, the connecting unit includes a bearing platform fixedly connected to the housing. An outer cover is fixedly connected to the bearing platform. A plurality of rotating pieces are fixedly connected to the outer peripheral surface of the rotating column B. The rotating pieces are located in the outer cover. A connecting channel is fixedly connected to the side of the outer cover. The side of the connecting channel farther from the outer cover is connected to a concave channel. The side of the concave channel farther from the connecting channel extends into the storage chamber. A heat conduction channel B is connected in the assembly chamber.

[0008] Furthermore, a groove is reserved at the top of the outer shell and outside the bearing platform. The bending strip is movably arranged in the groove. The heat conduction strips are respectively movably connected to the heat conduction channel A and the heat conduction channel B. The side of the rotating column B farther from the bearing seat extends into the outer cover. Both sides of the heat conduction channel B are respectively connected to a pair of storage chambers.

[0009] Furthermore, a rotating column C is rotatably connected to the inner wall of the bearing seat and below the rotating column B. A rotating disk C and a linkage disk are fixed on the rotating column C. The linkage disk is on one side of the rotating disk C. A number of teeth are reserved on the outer peripheral surface of the linkage disk. An outer ring is rotatably connected to the outer peripheral surface of the outer cylinder. A number of teeth are reserved on the outer peripheral surface of the outer ring. A decontamination strip is fixed on the side wall of the outer ring. The decontamination strip is in contact with the wall surface of the dust-proof net. The linkage disk and the outer ring are engaged with each other through the teeth, so that the decontamination strip rotates around the outer cylinder.

[0010] Furthermore, one side of the rotating column C extends outside the bearing seat and is fixed with a rotating circular block. A connecting column is fixed on the edge of the outer wall surface of the rotating circular block. A traction strip is rotatably connected to the connecting column. A variable strip is rotatably connected to the side of the traction strip farther from the connecting column. A pressing strip is fixed at the bottom of the variable strip. An assisting platform is fixed on the outer wall of the bearing seat. The variable strip is movably connected to the assisting platform.

[0011] Furthermore, a rectangular opening is reserved on the side wall of the bearing seat. Moving openings are reserved on both sides of the rectangular opening. A rotating column D is rotatably connected in the moving openings. A hammering block is fixed on the rotating column D. An elastic member is fixed on the hammering block. The side of the elastic member farther from the hammering block is fixed in the moving openings.

[0012] The beneficial effects of the present invention are as follows:

[0013] When the present invention is working, the water in the spiral heat conduction tube is transported to the heat conduction channel A through the communication pipe A and the access channel by the water pump. The water after heat removal flows back into the spiral heat conduction tube through the outflow channel and the communication pipe B, so as to achieve the purpose of circulating the water flow, and then achieve the heat removal of the magnetic levitation blower body to ensure the normal operation of the magnetic levitation blower body;

[0014] The rotating blades on the rotating column A are rotated by the traction of the motor. The external air is discharged to the middle of the heat conduction strip through the air inlet end. The heat absorbed by the heat conduction strip flows away through the air outlet end under the action of the changing air. And because the hot water in the water pump changes in the heat conduction channel A, the bent position of the heat conduction channel A is cooled by the cold water in the storage chamber. Some of the water flowing through the outflow channel flows into the main channel. The water in the main channel is discharged to the front side of the flowing air formed by the rotating blades through the discharge nozzle, and the water is pushed onto the heat conduction strip by the change of the flowing air, thereby enhancing the heat removal function of the heat conduction channel A;

[0015] When the rotating column A rotates, it drives the rotating disk A to rotate together. The rotating disk A drives the rotating disk B to rotate via a toothed chain. Then, it drives the rotating rod A on the rotating column B to rotate via the rotating disk B. It is linked via the rotating rod A and the rotating table, and drives the rotating rod B to rotate via the rotating table. The bending strip on the rotating rod B is under the constraint of the elastic pin and the groove, and is in a situation of reciprocating change. It drives the heat conducting strip to adjust its position on the heat conducting channel A via the bending strip, so that the heat conducting strip touches the heat conducting channel A in all positions;

[0016] When the rotating column B rotates, it drives the rotating piece to rotate. When the rotating piece rotates, the cold water in the pair of storage chambers is in a moving state, so that the cold water touches the heat conducting channel A evenly, achieving the function of absorbing the heat in the heat conducting channel A. When the cold water passes through the heat conducting channel B, because the cold water absorbs the heat in the heat conducting channel A, the cold water in the heat conducting channel B conducts the heat to the heat conducting strip, and then controls the water temperature via the heat removal function of the heat conducting strip;

[0017] When the rotating disk A drives the rotating disk B to rotate via a toothed chain, it drives the rotating disk C to rotate together. When the rotating disk C rotates, it drives the linkage disk on the rotating column C to rotate. Then, via the cooperation of the linkage disk and the outer ring, the decontamination strip on the outer ring rotates around the outer cylinder. And when the rotating column C rotates, it drives the rotating round block to rotate together. Via the constraint of the connecting column on the rotating round block to the assisting strip and the assisting table, the pressing strip on the variable strip makes a vertical change. The pressing strip presses the hammer block, and under the deformation action of the elastic member, the hammer block can repeatedly hammer the dust-proof net. Via the shaking action formed by the hammer block and the decontamination strip, the sundries on the surface of the dust-proof net on the outer cylinder can be cleaned.

[0018] Other features and advantages of the present invention will be described in the subsequent description, and partly will become obvious from the description, or will be understood by implementing the present invention. The objectives and other advantages of the present invention can be achieved and obtained through the structures specifically pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The drawings are used to provide a further understanding of the present invention, and constitute a part of the description. They are used together with the embodiments of the present invention to explain the present invention, and do not constitute a limitation to the present invention. In the drawings:

[0020] Figure 1 is the front view structural schematic diagram of the embodiment of the present invention;

[0021] Figure 2 is the three-dimensional structural schematic diagram of the outer shell and its upper components of the embodiment of the present invention Figure 1 ;

[0022] Figure 3 is the three-dimensional structural schematic diagram of the outer shell and its upper components of the embodiment of the present invention Figure 2;

[0023] Figure 4 Schematic diagram of the internal structure of the housing of the embodiment of the present invention;

[0024] Figure 5 Schematic sectional structure diagram of the housing of the embodiment of the present invention;

[0025] Figure 6 For the embodiment of the present invention Figure 5 Enlarged structure diagram at M;

[0026] Figure 7 Schematic diagram of the structure of the rotating column B of the embodiment of the present invention;

[0027] Figure 8 Schematic diagram of the structure of the linkage disk of the embodiment of the present invention;

[0028] Figure 9 Schematic diagram of the structure of the rotating column C of the embodiment of the present invention;

[0029] Figure 10 Schematic diagram of the structure of the rotating round block of the embodiment of the present invention;

[0030] Figure 11 Schematic diagram of the structure of the bearing seat of the embodiment of the present invention;

[0031] Reference numerals: 1, magnetic levitation blower body; 2, spiral heat conduction tube; 3, connecting pipe A; 4, connecting pipe B; 5, housing; 6, assembly room; 7, storage room; 8, water pump; 9, access channel; 10, heat conduction channel A; 11, outflow channel; 12, air outlet end; 13, air inlet end; 14, outer cylinder; 15, dust-proof net; 16, bearing seat; 17, motor; 18, rotating column A; 19, rotating blade; 20, main channel; 21, discharge nozzle; 22, rotating column B; 23, rotating rod A; 24, rotating disk A; 25, rotating disk B; 26, round block; 27, rotating rod B; 28, rotating table; 29, bending strip; 30, elastic pin; 31, assembly strip; 32, heat conduction strip; 33, bearing platform; 34, outer cover; 35, rotating piece; 36, connection channel; 37, concave channel; 38, heat conduction channel B; 39, groove; 40, rotating column C; 41, rotating disk C; 42, linkage disk; 43, outer ring; 44, decontamination strip; 45, rotating round block; 46, connection column; 47, traction strip; 48, variable strip; 49, pressing strip; 50, assisting platform; 51, rectangular opening; 52, movable opening; 53, rotating column D; 54, hammering block; 55, elastic member. Detailed implementation manners

[0032] In order to make the objectives, technical solutions, and advantages of the technical solutions of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of specific embodiments of the present invention. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the described embodiments of the present invention without creative efforts belong to the scope of protection of the present invention.

[0033] Referring to Figures 1 - 11 , an embodiment of the present invention provides a temperature control system for a magnetic levitation blower, which includes a magnetic levitation blower body 1. A spiral heat conduction tube 2 is closely sleeved on the outer surface of the magnetic levitation blower body 1. One side of the spiral heat conduction tube 2 is connected to a connecting pipe A 3, and the other side of the spiral heat conduction tube 2 is connected to a connecting pipe B 4. The upper end of the magnetic levitation blower body 1 is fixedly connected to a housing 5. An assembly chamber 6 and a pair of mirror-image storage chambers 7 are reserved in the housing 5. A connecting unit is arranged between the pair of storage chambers 7. A water pump 8 is fixedly connected to the housing 5. One side of the water pump 8 is connected to the connecting pipe A 3, and the other side of the water pump 8 is connected to an access channel 9. The side of the access channel 9 farther from the water pump 8 is connected to a heat conduction channel A 10. The side of the heat conduction channel A 10 farther from the access channel 9 is connected to an outflow channel 11. The side of the outflow channel 11 outside the housing 5 is connected to the side of the connecting pipe B 4. An assisting unit is arranged on the back of the housing 5 to quickly dissipate heat from the heat conduction channel A 10 through the assisting unit. An air outlet end 12 is reserved on the front of the housing 5, and an air inlet end 13 is reserved on the back of the housing 5 and inside the assisting unit. An outer cylinder 14 is fixedly connected to the outer wall surface of the air inlet end 13, and dust-proof nets 15 are arranged on the inner wall of the outer cylinder 14 and the air outlet end 12. A water filling valve is arranged on one side of one storage chamber 7 and the upper end of the connecting pipe B 4.

[0034] The assisting unit includes a bearing seat 16 fixedly connected to the housing 5. A motor 17 is fixedly connected to the bearing seat 16. A rotating column A 18 is fixedly connected to the rotating part of the motor 17. A plurality of rotating blades 19 are fixedly connected to the outer peripheral surface of the rotating column A 18. A main channel 20 is fixedly connected to the outflow channel 11. The side of the main channel 20 farther from the outflow channel 11 extends into the assembly chamber 6 and is located in front of the rotating blades 19. A plurality of discharge nozzles 21 are arranged on the main channel 20. The middle position of the heat conduction channel A 10 is inside the assembly chamber 6, and the bent position of the heat conduction channel A 10 is inside the storage chamber 7. The plurality of discharge nozzles 21 are arranged vertically and mirror-image. Through the plurality of discharge nozzles 21, it is convenient to discharge water into the housing 5 to dissipate heat from the heat conduction strip 32.

[0035] The inner wall of the bearing seat 16 is rotatably connected with a rotating column B22. One side of the rotating column B22 farther from the bearing seat 16 extends into the outer cover 34. A rotating rod A23 and a rotating disc A24 are fixedly connected to the rotating column B22. Helical teeth are reserved on the outer surface of the rotating rod A23. The rotating rod A23 is located outside the rotating disc A24. A rotating disc B25 is fixedly connected to the rotating column A18. The rotating disc A24 and the rotating disc B25 are linked by a toothed chain. Tooth sockets for engaging with the toothed chain are reserved on the outer circumferential surfaces of the rotating disc A24 and the rotating disc B25. On both sides of the top of the outer shell 5, a pair of mirror-image circular blocks 26 are fixedly connected. A rotating rod B27 is rotatably connected between the pair of circular blocks 26. Threaded ports are reserved on the outer surfaces of both sides of the rotating rod B27 and the thread directions on both sides are opposite. A rotating table 28 is fixedly connected to the middle of the rotating rod B27. A number of teeth are reserved on the outer circumferential surface of the rotating table 28. A bent strip 29 is screwed onto the rotating rod B27. One side of the bent strip 29 is movably connected with an elastic pin 30. The other side of the bent strip 29 is fixedly connected with an assembly strip 31. A number of heat conduction strips 32 are arranged at the bottom of the assembly strip 31. A groove 39 is reserved at the top of the outer shell 5 and outside the bearing platform 33. The bent strip 29 can be movably arranged in the groove 39. Through the movement of the bent strip 29 in the groove 39, it is ensured that the heat conduction strips 32 on the assembly strip 31 can move back and forth with the bent strip 29. And when the rotating rod A23 rotates a certain number of turns, the rotating table 28 can only rotate half a turn or one turn, ensuring that the heat conduction strips 32 can slowly perform a lateral movement, ensuring the heat conduction between the heat conduction strips 32 and the heat conduction channel A10. And when the bent strip 29 moves to the required position, it is made to perform a back-and-forth movement through the elastic pin 30. The elastic pin 30 is a prior art and will not be elaborated here.

[0036] The rotating blade 19 on the rotating column A18 is rotated by the motor 17. The outside air flows towards the middle of the heat conduction strip 32 through the air inlet end 13. The heat conducted out by the heat conduction strip 32 is taken out by the changing air through the air outlet end 12. And because the water pumped in by the water pump 8 changes in the heat conduction channel A10, the bent end of the heat conduction channel A10 conducts heat through the cold water in the storage chamber 7. Some of the water flowing out through the outflow channel 11 changes into the main channel 20. The water in the main channel 20 is discharged through the discharge nozzle 21 to the front side of the rotating blade 19 where the flowing air is formed. The water is blown onto the heat conduction strip 32 by the flowing air, thereby accelerating the heat conduction of the heat conduction channel A10.

[0037] When the rotating column A18 rotates, it drives the rotating disk A24 to rotate. The rotating disk A24 drives the rotating disk B25 to rotate via a toothed chain. Then, it drives the rotating rod A23 on the rotating column B22 to rotate via the rotating disk B25. The rotating rod A23 and the rotating table 28 are linked by the engagement of spiral teeth and teeth. The rotating rod B27 is driven to rotate via the rotating table 28. The bending strip 29 on the rotating rod B27 is under the constraint of the elastic pin 30 and the groove 39 and is in a reciprocating state. The position of the heat conduction strip 32 on the heat conduction channel A10 is adjusted via the bending strip 29, enabling the heat conduction strip 32 to contact the heat conduction channel A10 everywhere, enhancing the heat conduction function.

[0038] The connection unit includes a bearing platform 33 fixed to the housing 5. An outer cover 34 is fixed to the bearing platform 33. A number of rotating blades 35 are fixed to the outer peripheral surface of the rotating column B22. The rotating blades 35 are located in the outer cover 34. A connecting channel 36 is fixed to the side of the outer cover 34. The concave channel 37 is connected to the side of the connecting channel 36 farther from the outer cover 34. The side of the concave channel 37 farther from the connecting channel 36 extends into the storage chamber 7. The heat conduction channel B38 is connected in the assembly chamber 6. Both sides of the heat conduction channel B38 are respectively connected to a pair of storage chambers 7. The heat conduction strips 32 are respectively movably connected to the heat conduction channel A10 and the heat conduction channel B38, ensuring that the heat conduction strips 32 can conduct away the heat absorbed in the heat conduction channel A10 and the heat conduction channel B38.

[0039] When the rotating column B22 rotates, it drives the rotating blades 35 to rotate. When the rotating blades 35 rotate, the water in the pair of storage chambers 7 is in a flowing state, so that the water can evenly contact the heat conduction channel A10 to absorb the heat on the heat conduction channel A10. When the water passes through the heat conduction channel B38, since the water absorbs the heat in the heat conduction channel A10, the water in the heat conduction channel B38 will transfer the heat to the heat conduction strip 32. Then, the temperature of the water is controlled via the heat conduction function of the heat conduction strip 32, enhancing the heat conduction function of the heat conduction channel A10.

[0040] Under the inner wall of the bearing seat 16 and below the rotating column B22, the rotating column C40 is rotated. The rotating disk C41 and the linkage disk 42 are fixed to the rotating column C40. The linkage disk 42 is located on one side of the rotating disk C41. A number of teeth are reserved on the outer peripheral surface of the linkage disk 42. The outer ring 43 is rotated on the outer peripheral surface of the outer cylinder 14. A number of teeth are reserved on the outer peripheral surface of the outer ring 43. A decontamination strip 44 is fixed to the side wall of the outer ring 43. The decontamination strip 44 is in contact with the wall surface of the dust-proof net 15. The linkage disk 42 and the outer ring 43 are engaged with each other via the teeth, enabling the decontamination strip 44 to rotate around the outer cylinder 14. Among them, the linkage disk 42 is separated from the rotating table 28, and when the linkage disk 42 rotates multiple times, the decontamination strip 44 on the outer ring 43 can decontaminate the dust-proof net 15, preventing the external gas from flowing in through the dust-proof net 15 normally due to the rotation of the decontamination strip 44 following the rotation of the rotating column A18.

[0041] When the rotating disk A24 drives the rotating disk B25 to rotate through the toothed chain, it also drives the rotating disk C41 to rotate. When the rotating disk C41 rotates, it drives the linkage disk 42 on the rotating column C40 to rotate. Then, through the cooperation of the linkage disk 42 and the outer ring 43, the decontamination strip 44 on the outer ring 43 rotates around the outer cylinder 14, and the waste on the dust filter 15 is removed through the decontamination strip 44 to prevent the waste from blocking the mesh holes of the dust filter 15 and ensure the heat conduction function of the heat conduction channel A10.

[0042] The rotating column C40 extends outside the bearing seat 16 and is fixedly connected to the rotating circular block 45. The edge of the outer wall surface of the rotating circular block 45 is fixedly connected to the connecting column 46. The traction strip 47 is rotatably connected to the connecting column 46. The variable strip 48 is rotatably connected to the side of the traction strip 47 farther from the connecting column 46. The bottom of the variable strip 48 is fixedly connected to the pressing strip 49. The assisting platform 50 is fixedly connected to the outer wall of the bearing seat 16. The variable strip 48 and the assisting platform 50 are movably connected. A rectangular opening 51 is reserved on the side wall of the bearing seat 16. Activity openings 52 are reserved on both sides of the rectangular opening 51. The rotating column D53 is rotatably connected in the activity openings 52. The hammering block 54 is fixedly connected to the rotating column D53. The elastic member 55 is fixedly connected to the hammering block 54. The side of the elastic member 55 farther from the hammering block 54 is fixedly connected in the activity opening 52. The elastic member 55 is clamped on the outer surface of the rotating column D53. Among them, the rotating column C40 and the bearing seat 16 are connected through a slewing bearing. When the hammering block 54 is not pressed by the pressing strip 49, the hammering block 54 is arranged obliquely, and one side of the hammering block 54 contacts the dust filter 15. When the decontamination strip 44 rotates a quarter of a circle, the end of the hammering block 54 is separated from the dust filter 15 to prevent the hammering block 54 from colliding with the decontamination strip 44.

[0043] When the rotating column C40 rotates, it drives the rotating circular block 45 to rotate together. Through the cooperation of the connecting column 46 on the rotating circular block 45 to assist in the restraint of the traction strip 47 and the assisting platform 50, the pressing strip 49 on the variable strip 48 performs vertical movement. Through the pressing of the pressing strip 49 on the hammering block 54, and the deformation effect of the elastic member 55 on the hammering block 54, the hammering block 54 can cyclically strike the dust filter 15. Through the shaking effect formed by the hammering block 54, the cleaning of the sundries on the dust filter 15 is strengthened.

[0044] When the water in the storage chamber 7 is full, it is ensured that the concave channel 37, the connecting channel 36, and the outer cover 34 are all filled with water, and it is ensured that the water in the pair of storage chambers 7 can be in a changing state through the rotation of the rotating piece 35.

[0045] The implementation method is specifically as follows: During operation, the water in the spiral heat-conducting tube 2 is transported to the heat-conducting channel A10 via the connecting pipe A3 and the access channel 9 by the water pump 8. After being de-heated, the water flows back into the spiral heat-conducting tube 2 via the outflow channel 11 and the connecting pipe B4, so as to achieve the purpose of circulating the water flow, and then to de-heat the magnetic levitation blower body 1 to ensure the normal operation of the magnetic levitation blower body 1.

[0046] The motor 17 drives the rotation of the rotating blade 19 on the rotating column A18. The external air is discharged to the center of the heat-conducting strip 32 through the air inlet end 13. The heat absorbed by the heat-conducting strip 32 flows away through the air outlet end 12 under the action of the changing air. And because the hot water in the water pump 8 changes in the heat-conducting channel A10, the bent position of the heat-conducting channel A10 is de-heated by the cold water in the storage chamber 7. Some of the water flowing through the outflow channel 11 flows into the main channel 20. The water in the main channel 20 is discharged to the front side of the flowing air formed by the rotating blade 19 through the discharge nozzle 21, and the water is pushed onto the heat-conducting strip 32 by the change of the flowing air, thereby enhancing the de-heating function of the heat-conducting channel A10.

[0047] When the rotating column A18 rotates, it drives the rotation of the rotating disk A24 together. The rotating disk A24 drives the rotation of the rotating disk B25 through the toothed chain. Then, the rotating disk B25 drives the rotation of the rotating rod A23 on the rotating column B22. Through the linkage of the rotating rod A23 and the rotating table 28, the rotating table 28 drives the rotation of the rotating rod B27. The bent strip 29 on the rotating rod B27 is restricted by the elastic pin 30 and the groove 39 and is in a reciprocating changing state. Through the bent strip 29, the position of the heat-conducting strip 32 on the heat-conducting channel A10 is adjusted, so that the heat-conducting strip 32 touches the heat-conducting channel A10 in all positions.

[0048] When the rotating column B22 rotates, it drives the rotation of the rotating piece 35. When the rotating piece 35 rotates, it makes the pair of cold water in the storage chamber 7 in a moving state, so that the cold water touches the heat-conducting channel A10 evenly, achieving the function of absorbing the heat in the heat-conducting channel A10. When the cold water passes through the heat-conducting channel B38, because the cold water absorbs the heat in the heat-conducting channel A10, the cold water in the heat-conducting channel B38 guides the heat to the heat-conducting strip 32, and then controls the water temperature through the de-heating function of the heat-conducting strip 32.

[0049] When the rotating disk A24 drives the rotating disk B25 to rotate via a toothed chain, it drives the rotating disk C41 to rotate together. When the rotating disk C41 rotates, it drives the linkage disk 42 on the rotating column C40 to rotate. Then, through the cooperation of the linkage disk 42 and the outer ring 43, the cleaning strip 44 on the outer ring 43 rotates around the outer cylinder 14. And when the rotating column C40 rotates, it drives the rotating circular block 45 to rotate together. Through the connection column 46 on the rotating circular block 45, it assists in the restraint of the traction strip 47 and the assisting platform 50, enabling the pressing strip 49 on the variable strip 48 to perform vertical movement. Through the pressing of the pressing strip 49 on the hammering block 54, and under the deformation action of the elastic member 55, the hammering block 54 can cyclically hammer the dust-proof net 15. Through the shaking action formed by the hammering block 54 and the cleaning strip 44, the debris on the surface of the dust-proof net 15 on the outer cylinder 14 can be cleaned up.

[0050] The above shows and describes 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 by the above embodiments. What is described in the above embodiments and the specification only illustrates the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A temperature control system for a magnetic levitation blower, characterized in that, It includes a magnetic levitation blower body. A spiral heat conduction tube is closely sleeved on the outer surface of the magnetic levitation blower body. One side of the spiral heat conduction tube is connected to a connecting pipe A, and the other side of the spiral heat conduction tube is connected to a connecting pipe B. The upper end of the magnetic levitation blower body is fixedly connected to a housing. An assembly room and a pair of mirror-image storage rooms are reserved in the housing. A connecting unit is installed between the pair of storage rooms. A water pump is fixedly connected to the housing. One side of the water pump is connected to the connecting pipe A, and the other side of the water pump is connected to an access channel. The side of the access channel farther from the water pump is connected to a heat conduction channel A. The side of the heat conduction channel A farther from the access channel is connected to an outflow channel. The side of the outflow channel outside the housing is connected to the side of the connecting pipe B. An assisting unit is installed on the back of the housing to quickly remove heat from the heat conduction channel A through the assisting unit. An air outlet end is reserved on the front of the housing, and an air inlet end is reserved inside the assisting unit on the back of the housing. An outer cylinder is fixedly connected to the outer wall surface of the air inlet end. Dust-proof nets are installed on the inner wall of the outer cylinder and the air outlet end. The assisting unit includes a bearing seat fixedly connected to the housing. A motor is fixedly connected to the bearing seat. The rotating part of the motor is fixedly connected to a rotating column A. A number of rotating blades are fixedly connected to the outer peripheral surface of the rotating column A. A main channel is fixedly connected to the outflow channel. The side of the main channel farther from the outflow channel extends into the assembly room and is located in front of the rotating blades. A number of discharge nozzles are installed on the main channel. A rotating column B is rotatably connected to the inner wall of the bearing seat. A rotating rod A and a rotating disc A are fixedly connected to the rotating column B. The rotating rod A is located outside the rotating disc A. A rotating disc B is fixedly connected to the rotating column A. The rotating disc A and the rotating disc B are linked by a toothed chain. A pair of mirror-image circular blocks are fixedly connected to both sides of the top of the housing. A rotating rod B is rotatably connected between the pair of circular blocks. A rotating table is fixedly connected to the center of the rotating rod B. A bent strip is screwed on the rotating rod B. One side of the bent strip is movably connected to an elastic pin, and the other side of the bent strip is fixedly connected to an assembly strip. A number of heat conduction strips are installed at the bottom of the assembly strip.

2. The temperature control system of a magnetic levitation blower according to claim 1, wherein: The middle position of the heat conduction channel A is inside the assembly room, and the bent position of the heat conduction channel A is inside the storage room. A number of discharge nozzles are arranged vertically in a mirror image.

3. The temperature control system of a magnetic levitation blower according to claim 1, characterized in that: The connecting unit includes a bearing platform fixedly connected to the housing. An outer cover is fixedly connected to the bearing platform. A number of rotating vanes are fixedly connected to the outer peripheral surface of the rotating column B. The rotating vanes are located inside the outer cover. An access channel is fixedly connected to the side of the outer cover. The side of the access channel farther from the outer cover is connected to a concave channel. The side of the concave channel farther from the access channel extends into the storage room. A heat conduction channel B is connected in the assembly room.

4. The temperature control system of a magnetic levitation blower according to claim 3, wherein: A groove is reserved on the top of the housing and outside the bearing platform. The bent strip can be movably installed in the groove. The heat conduction strips are respectively movably connected to the heat conduction channel A and the heat conduction channel B. The side of the rotating column B farther from the bearing seat extends into the outer cover. Both sides of the heat conduction channel B are respectively connected to a pair of storage rooms.

5. The temperature control system of a magnetic levitation blower according to claim 1, wherein: Below the rotating column B and on the inner wall of the bearing seat, the rotating column C is rotatably connected. The rotating disk C and the linkage disk are fixedly connected to the rotating column C. The linkage disk is located on one side of the rotating disk C. A number of teeth are reserved on the outer peripheral surface of the linkage disk. The outer ring is rotatably connected to the outer peripheral surface of the outer cylinder. A number of teeth are reserved on the outer peripheral surface of the outer ring. The decontamination strip is fixedly connected to the side wall of the outer ring. The decontamination strip is in contact with the wall surface of the dust-proof net. The linkage disk and the outer ring are engaged with each other through the teeth, so that the decontamination strip rotates around the outer cylinder.

6. The temperature control system of a magnetic levitation blower according to claim 5, characterized in that: One side of the rotating column C extends outside the bearing seat and is fixedly connected to the rotating round block. The connecting column is fixedly connected to the edge of the outer wall surface of the rotating round block. The traction strip is rotatably connected to the connecting column. The variable strip is rotatably connected to the side of the traction strip that is farther away from the connecting column. The pressing strip is fixedly connected to the bottom of the variable strip. The assisting platform is fixedly connected to the outer wall of the bearing seat. The variable strip and the assisting platform are movably connected.

7. The temperature control system of a magnetic levitation blower according to claim 6, wherein: A rectangular opening is reserved on the side wall of the bearing seat. Moving openings are reserved on both sides of the rectangular opening. The rotating column D is rotatably connected in the moving openings. The hammering block is fixedly connected to the rotating column D. The elastic member is fixedly connected to the hammering block. The side of the elastic member that is farther away from the hammering block is fixedly connected in the moving openings.

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