Vertical cooling type magnetic driving pump

Abstract

The invention belongs to the technical field of magnetic drive pumps, and particularly relates to a vertical cooling type magnetic drive pump which comprises a magnetic drive pump body, a water pumping drive end, a liquid inlet pipeline, a liquid discharging pipeline, a vibration reduction type supporting mechanism and a power integrated cooling mechanism. The liquid inlet pipeline is arranged on one side of the water pumping driving end, the liquid discharging pipeline is arranged on the side, away from the liquid inlet pipeline, of the water pumping driving end, the vibration reduction type supporting mechanism is arranged on the upper wall of the magnetic drive pump body, and the power integrated cooling mechanism is arranged on the vibration reduction type supporting mechanism. According to the vertical cooling type magnetic drive pump, the cooling structure can be adjusted according to the vibration frequency of the pump body in the operation process, and the temperature of the pump body in the operation process can be adaptively cooled.

Description

Technical Field

[0001] The invention belongs to the technical field of magnetic drive pumps, and in particular relates to a vertical cooling type magnetic drive pump. Background Art

[0002] The components of the magnetic drive pump are prone to heat during operation, such as the sealing cover and bearings, so the heat generated by the sealing cover and bearings needs to be cooled in the magnetic drive pump.

[0003] The existing cooling magnetic drive pumps have the following problems: The vibration frequency of the magnetic drive pump is positively correlated with its operating power. When the vibration frequency increases, the speed of the pump increases, thereby increasing the number of working times and energy output per unit time, resulting in an increase in operating power. However, the existing cooling type magnetic drive pump cannot combine the vibration frequency generated by the pump during operation with the cooling power, which will lead to two problems. One is that the output power of the pump is large, while the output power of the cooling structure is small, resulting in the temperature of the pump body not being fully cooled during operation. The other is that the output power of the pump is small, while the output power of the cooling structure is large, resulting in waste of output energy of the cooling structure. Summary of the invention

[0004] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a vertical cooling magnetic drive pump which can adjust the cooling structure to adaptively cool the temperature of the pump body during operation according to the speed of the vibration frequency of the pump body during operation.

[0005] The technical scheme adopted in this scheme is as follows: A vertical cooling magnetic drive pump proposed in this scheme includes a magnetic pump body, a water pumping drive end, a liquid inlet pipe, a liquid discharge pipe, a vibration-damping support mechanism and a power-integrated cooling mechanism. The water pumping drive end is arranged on the bottom wall of the magnetic pump body, the liquid inlet pipe is arranged on one side of the water pumping drive end, and the liquid discharge pipe is arranged on the side of the water pumping drive end away from the liquid inlet pipe. The vibration-damping support mechanism is arranged on the upper wall of the magnetic pump body, and the power-integrated cooling mechanism is arranged on the vibration-damping support mechanism. The vibration-damping support mechanism includes a top material suction mechanism and a bottom elastic suction mechanism. The top material suction mechanism is arranged on the upper wall of the magnetic pump body, and the bottom elastic suction mechanism is arranged on the side of the top material suction mechanism close to the water pumping drive end. The power-integrated cooling mechanism includes a shrinkage conduction mechanism and an energy transfer mechanism. The shrinkage conduction mechanism is arranged on the side wall of the bottom elastic suction mechanism, and the energy transfer mechanism is arranged on the side of the shrinkage conduction mechanism away from the bottom elastic suction mechanism.

[0006] As a further preferred embodiment of the present invention, the top material suction mechanism includes a guide rod, a vibration-damping material layer, a sliding plate, a fixed permanent magnet, a sliding permanent magnet, a driving electromagnet, a disassembly nut and a guide and suction iron block. The guide rod is arranged on the upper wall of the magnetic pump body, the guide rod is threadedly connected to the magnetic pump body, multiple groups of vibration-damping material layers are arranged on the outside of the guide rod, the sliding plate is slidingly arranged on the outside of the guide rod, the fixed permanent magnet is arranged at one end of the guide rod close to the magnetic pump body, the sliding permanent magnet is arranged on the bottom wall of the sliding plate outside the guide rod, the fixed permanent magnet and the sliding permanent magnet are arranged opposite to each other, and the driving electromagnet is arranged On the upper wall of the sliding plate outside the guide rod, the disassembly nut is arranged at the end of the guide rod away from the magnetic pump body, the disassembly nut is threadedly connected to the guide rod, the guide and suction iron block is arranged at the end of the guide rod close to the disassembly nut, and the guide and suction iron block is slidably arranged on the outside of the guide rod; the bottom elastic suction mechanism includes a double-sided frame, a locking frame, a locking bolt and an energy absorption spring, the double-sided frame is symmetrically arranged on both sides of the sliding plate, the locking frames are respectively arranged on the outside of the liquid inlet pipe and the liquid discharge pipe, the locking bolts are symmetrically arranged on both sides of the locking frame, the locking bolts are threadedly connected to the locking frame, and the energy absorption spring is arranged between the double-sided frame and the locking frame.

[0007] When in use, in the initial state, the vibration reduction support mechanism and the power integrated cooling mechanism are arranged away from the magnetic pump body. The magnetic pump body needs to be cooled during operation. The guide rod is screwed into the upper wall of the magnetic pump body, and the fixed permanent magnet is fitted with the upper wall of the magnetic pump body. Then the sliding plate is inserted into the outer side of the guide rod, and the sliding plate slides downward along the guide rod to drive the sliding permanent magnet close to the fixed permanent magnet. The sliding permanent magnet and the fixed permanent magnet are arranged with the same pole. The sliding permanent magnet drives the sliding plate to suspend above the fixed permanent magnet, and the locking frame is pulled. The locking frame is respectively fitted with the outer sides of the liquid inlet pipe and the liquid discharge pipe through the deformation of the energy absorption spring, and the locking bolt is rotated. The locking bolt rotates along the locking frame and contacts the side walls of the liquid inlet pipe and the liquid discharge pipe, and then the locking frame is fixed to the outer sides of the liquid inlet pipe and the liquid discharge pipe, and the guide magnet block is placed on the end of the guide rod away from the fixed permanent magnet. The disassembly nut is screwed into the outer side of the guide rod above the guide magnet block, and the guide magnet block is fixed at one end of the guide rod.

[0008] Preferably, the shrinking surface conduction mechanism includes an arc-shaped polyconductive copper block and a branch-conductive short copper column, the arc-shaped polyconductive copper block is arranged on the side of the double-sided frame close to the magnetic pump body, and multiple groups of the branch-conductive short copper columns are arranged on the side of the arc-shaped polyconductive copper block away from the double-sided frame; the energy transfer mechanism includes a thermoelectric cooling plate, a thermal conductive copper column and a vibration sensor, the thermoelectric cooling plate is arranged on the side of the double-sided frame away from the arc-shaped polyconductive copper block, the thermal conductive copper column penetrates the double-sided frame and is arranged between the cooling end of the thermoelectric cooling plate and the arc-shaped polyconductive copper block, the vibration sensor is arranged on the side wall of the magnetic pump body, and the detection end of the vibration sensor is in contact with the shell of the magnetic pump body.

[0009] When in use, the thermoelectric cooling plate cools the temperature of the temperature-conducting copper column through the cooling end, and the temperature-conducting copper column cools the short branch-conducting copper column through the arc-shaped polyconducting copper block. The temperature of the short branch-conducting copper column is reduced to cool the side wall of the magnetic pump body. The side wall of the magnetic pump body shell is provided with multiple sets of through openings, so that the cooled short branch-conducting copper column can cool the driving components inside the magnetic pump body to ensure the smooth operation of the magnetic pump body. Since the short branch-conducting copper column is relatively short, it cannot fully cover the position of the through opening on the side wall of the magnetic pump body. Then, the driving electromagnet is energized to generate magnetism, and the driving electromagnet is fixed on the wall of the sliding plate to absorb the guide iron block through magnetic force. The guide iron block is fixed on one end of the guide rod to provide guiding force for the sliding of the sliding plate. The driving electromagnet drives the sliding plate to slide and rise along the side wall of the guide rod. The sliding plate drives the short branch-conducting copper column to slide up and down along the through opening set on the side wall of the magnetic pump body through the double-sided frame, so that a large range of heat can be achieved without losing energy. The driving components inside the magnetic pump body are cooled, and the magnetic pump body vibrates during operation. The vibration sensor senses the vibration generated by the magnetic pump body. When the vibration sensor senses that the frequency of the vibration of the magnetic pump body is faster, the output power of the cooling end of the thermoelectric cooling plate increases, thereby reducing the cooling temperature of the magnetic pump body. In order to avoid the influence of the cooling structure on the vibration of the magnetic pump body and interfere with the vibration frequency monitoring of the magnetic pump body by the vibration sensor, the vibration force transmitted from the magnetic pump body to the sliding plate through the guide rod is absorbed by the vibration-damping material layer, and the vibration force transmitted from the liquid inlet pipe and the liquid discharge pipe through the locking frame is absorbed by the elasticity of the energy-absorbing spring, thereby greatly reducing the probability of the vibration force generated by the cooling structure during operation affecting the magnetic pump body, so that the vibration sensor can accurately detect the vibration frequency value of the magnetic pump body during operation, thereby ensuring that the power output by the thermoelectric cooling plate can meet the cooling temperature requirement of the magnetic pump body.

[0010] Specifically, a controller is provided on a side of the magnetic pump body away from the vibration sensor.

[0011] Wherein, the controller is electrically connected to the magnetic pump body, the driving electromagnet, the thermoelectric cooling sheet and the vibration sensor respectively.

[0012] Preferably, the model of the controller is HAD-SC200.

[0013] Furthermore, the model of the vibration sensor is CN10 / OD9200.

[0014] The beneficial effects achieved by adopting the above structure are as follows: Compared with the prior art, the present invention adopts a method of separating the magnetic pump body from the cooling structure. On the one hand, it can ensure that the vibration sensor can accurately detect the vibration frequency generated by the magnetic pump body during operation. On the other hand, it can avoid that part of the vibration generated by the cooling structure during operation interferes with the output power of the thermoelectric cooling plate, thereby increasing or reducing the output of the thermoelectric cooling plate energy. When the vibration sensor senses that the frequency of vibration of the magnetic pump body is faster, the output power of the cooling end of the thermoelectric cooling plate increases, reducing the cooling temperature of the magnetic pump body. In order to avoid the influence of the cooling structure on the vibration of the magnetic pump body and interfere with the vibration sensor's monitoring of the vibration frequency of the magnetic pump body, the vibration force transmitted from the magnetic pump body to the sliding plate through the guide rod is absorbed by the vibration damping material layer, and the vibration force transmitted from the liquid inlet pipe and the liquid discharge pipe through the locking frame is absorbed by the elasticity of the energy-absorbing spring, thereby greatly reducing the probability of the vibration force generated by the cooling structure during operation affecting the magnetic pump body, so that the vibration sensor can accurately detect the vibration frequency value of the magnetic pump body during operation, thereby ensuring that the power output of the thermoelectric cooling plate can meet the cooling temperature requirements of the magnetic pump body. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is a schematic diagram of the overall structure of this scheme; Figure 2 This is a bottom-up stereogram of the scheme; Figure 3 This is the explosion structure diagram of this scheme; Figure 4 This is the main view of this scheme; Figure 5 This is a side view of the scheme; Figure 6 This is a top view of the scheme; Figure 7 This is a schematic diagram of the combined structure of the vibration reduction support mechanism and the power integrated cooling mechanism of this solution; Figure 8 for Figure 5 AA section view of the part; Fig. 9 for Figure 1 Part I shows a magnified structural view.

[0016] Among them, 1. magnetic pump body, 2. pumping drive end, 3. liquid inlet pipe, 4. liquid discharge pipe, 5. vibration-damping support mechanism, 6. top material suction mechanism, 7. guide rod, 8. vibration-damping material layer, 9. sliding plate, 10. fixed permanent magnet, 11. sliding permanent magnet, 12. driving electromagnet, 13. disassembly nut, 14. guide and suction iron block, 15. bottom elastic suction mechanism, 16. double-sided frame, 17. locking frame, 18. locking bolt, 19. energy-absorbing spring, 20. power-integrated cooling mechanism, 21. shrinkage conduction mechanism, 22. arc-shaped polyconductive copper block, 23. branch-conductive short copper column, 24. energy transfer mechanism, 25. thermoelectric cooling sheet, 26. thermal conductive copper column, 27. vibration sensor, 28. controller.

[0017] The accompanying drawings are used to provide further understanding of the present scheme and constitute a part of the specification. Together with the embodiments of the present scheme, they are used to explain the present scheme and do not constitute a limitation on the present scheme. DETAILED DESCRIPTION

[0018] The technical scheme in the embodiments of the present scheme will be clearly and completely described below in conjunction with the drawings in the embodiments of the present scheme. Obviously, the described embodiments are only part of the embodiments of the present scheme, not all of the embodiments; based on the embodiments in the present scheme, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present scheme.

[0019] In the description of this scheme, it should be understood that terms such as "upper", "lower", "front", "back", "left", "right", "top", "bottom", "inside" and "outside" indicating directions or positional relationships are based on the directions or positional relationships shown in the accompanying drawings. They are only for the convenience of describing this scheme and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, they should not be understood as limitations on this scheme.

[0020] like Figure 1-Figure 9As shown, a vertical cooling magnetic drive pump proposed in this scheme includes a magnetic pump body 1, a water pumping drive end 2, a liquid inlet pipe 3, a liquid discharge pipe 4, a vibration-damping support mechanism 5 and a power-integrated cooling mechanism 20, wherein the water pumping drive end 2 is arranged on the bottom wall of the magnetic pump body 1, the liquid inlet pipe 3 is arranged on one side of the water pumping drive end 2, the liquid discharge pipe 4 is arranged on the side of the water pumping drive end 2 away from the liquid inlet pipe 3, the vibration-damping support mechanism 5 is arranged on the upper wall of the magnetic pump body 1, and the power-integrated cooling mechanism 20 is arranged on the vibration-damping support mechanism 5. On the support mechanism 5, the vibration-damping support mechanism 5 includes a top material suction mechanism 6 and a bottom elastic suction mechanism 15, the top material suction mechanism 6 is arranged on the upper wall of the magnetic pump body 1, and the bottom elastic suction mechanism 15 is arranged on the side of the top material suction mechanism 6 close to the water pumping drive end 2, the power-integrated cooling mechanism 20 includes a shrinkage surface conduction mechanism 21 and an energy transfer mechanism 24, the shrinkage surface conduction mechanism 21 is arranged on the side wall of the bottom elastic suction mechanism 15, and the energy transfer mechanism 24 is arranged on the side of the shrinkage surface conduction mechanism 21 away from the bottom elastic suction mechanism 15.

[0021] The top material suction mechanism 6 includes a guide rod 7, a vibration-damping material layer 8, a sliding plate 9, a fixed permanent magnet 10, a sliding permanent magnet 11, a driving electromagnet 12, a disassembly nut 13 and a guide and suction iron block 14. The guide rod 7 is arranged on the upper wall of the magnetic pump body 1, and the guide rod 7 is threadedly connected to the magnetic pump body 1. Multiple groups of vibration-damping material layers 8 are arranged on the outside of the guide rod 7. The sliding plate 9 is slidably arranged on the outside of the guide rod 7. The fixed permanent magnet 10 is arranged at one end of the guide rod 7 close to the magnetic pump body 1. The sliding permanent magnet 11 is arranged on the bottom wall of the sliding plate 9 outside the guide rod 7. The fixed permanent magnet 10 and the sliding permanent magnet 11 are arranged opposite to each other. The driving electromagnet 12 is arranged on the sliding plate 9 outside the guide rod 7. The upper wall, the disassembly nut 13 is arranged at the end of the guide rod 7 away from the magnetic pump body 1, the disassembly nut 13 is threadedly connected to the guide rod 7, the guide and suction iron block 14 is arranged at the end of the guide rod 7 close to the disassembly nut 13, and the guide and suction iron block 14 is slidably arranged on the outside of the guide rod 7; the bottom elastic suction mechanism 15 includes a double-sided frame 16, a locking frame 17, a locking bolt 18 and an energy absorption spring 19, the double-sided frame 16 is symmetrically arranged on both sides of the sliding plate 9, the locking frame 17 is respectively arranged on the outside of the liquid inlet pipe 3 and the liquid discharge pipe 4, the locking bolt 18 is symmetrically arranged on both sides of the locking frame 17, the locking bolt 18 is threadedly connected to the locking frame 17, and the energy absorption spring 19 is arranged between the double-sided frame 16 and the locking frame 17.

[0022] The shrinking surface conduction mechanism 21 includes an arc-shaped polyconductive copper block 22 and a branch-conductive short copper column 23. The arc-shaped polyconductive copper block 22 is arranged on the side of the double-sided frame 16 close to the magnetic pump body 1, and multiple groups of the branch-conductive short copper columns 23 are arranged on the side of the arc-shaped polyconductive copper block 22 away from the double-sided frame 16; the energy transfer mechanism 24 includes a thermoelectric cooling sheet 25, a thermal conductive copper column 26 and a vibration sensor 27. The thermoelectric cooling sheet 25 is arranged on the side of the double-sided frame 16 away from the arc-shaped polyconductive copper block 22, the thermal conductive copper column 26 penetrates the double-sided frame 16 and is arranged between the cooling end of the thermoelectric cooling sheet 25 and the arc-shaped polyconductive copper block 22, and the vibration sensor 27 is arranged on the side wall of the magnetic pump body 1, and the detection end of the vibration sensor 27 is in contact with the shell of the magnetic pump body 1.

[0023] A controller 28 is provided on a side of the magnetic pump body 1 away from the vibration sensor 27 .

[0024] The controller 28 is electrically connected to the magnetic pump body 1 , the driving electromagnet 12 , the thermoelectric cooling sheet 25 and the vibration sensor 27 , respectively.

[0025] The model of the controller 28 is HAD-SC200.

[0026] The model of the vibration sensor 27 is CN10 / OD9200.

[0027] When used specifically, in Example 1, in the initial state, the vibration-damping support mechanism 5 and the power-integrated cooling mechanism 20 are arranged away from the magnetic pump body 1. The magnetic pump body 1 needs to be cooled during operation. The guide rod 7 is screwed into the upper wall of the magnetic pump body 1, and the fixed permanent magnet 10 is fitted with the upper wall of the magnetic pump body 1. Then the sliding plate 9 is inserted into the outer side of the guide rod 7. The sliding plate 9 slides downward along the guide rod 7 to drive the sliding permanent magnet 11 to approach the fixed permanent magnet 10. The sliding permanent magnet 11 is arranged with the same pole as the fixed permanent magnet 10, and the sliding permanent magnet 11 drives the sliding plate 9 to suspend. Float above the fixed permanent magnet 10, pull the locking frame 17, the locking frame 17 is deformed by the energy absorption spring 19 to fit the outside of the liquid inlet pipe 3 and the liquid discharge pipe 4 respectively, rotate the locking bolt 18, the locking bolt 18 rotates along the locking frame 17 and contacts the side walls of the liquid inlet pipe 3 and the liquid discharge pipe 4, and then fix the locking frame 17 to the outside of the liquid inlet pipe 3 and the liquid discharge pipe 4, place the guide magnet 14 to the end of the guide rod 7 away from the fixed permanent magnet 10, remove the nut 13 and screw it into the outside of the guide rod 7 above the guide magnet 14, and the guide magnet 14 is fixed at one end of the guide rod 7.

[0028] The controller 28 controls the thermoelectric cooling sheet 25 to start, and the thermoelectric cooling sheet 25 cools the temperature of the heat-conducting copper column 26 through the cooling end, and the heat-conducting copper column 26 cools the branch-conducting short copper column 23 through the arc-shaped polyconducting copper block 22. The temperature of the branch-conducting short copper column 23 is reduced to cool the side wall of the magnetic pump body 1. The side wall of the shell of the magnetic pump body 1 is provided with multiple groups of through openings, so that the cooled branch-conducting short copper column 23 can cool the driving components inside the magnetic pump body 1 to ensure the smooth operation of the magnetic pump body 1. Since the branch-conducting short copper column 23 is short, it cannot fully cover the position of the through opening on the side wall of the magnetic pump body 1. Then, the driving electromagnet 12 is energized to generate magnetism, and the driving electromagnet 12 is fixed on the upper wall of the sliding plate 9 to absorb the guide and absorb iron block 14 through magnetic force. The guide and absorb iron block 14 is fixed on one end of the guide rod 7 to provide a guiding force for the sliding of the sliding plate 9. The controller 28 controls the driving electromagnet 12 to start, and the driving electromagnet 12 drives the sliding plate 9 to slide along the side wall of the guide rod 7 to increase the height. The sliding plate 9 drives the short copper column 23 of the guide to slide up and down along the opening set on the side wall of the magnetic pump body 1 through the double-sided frame 16, thereby, without losing energy, the driving components inside the magnetic pump body 1 can be cooled over a large range; The magnetic pump body 1 generates vibrations during operation, and the controller 28 controls the vibration sensor 27 to start. The vibration sensor 27 senses the vibrations generated by the magnetic pump body 1. When the vibration sensor 27 senses that the frequency of the vibration of the magnetic pump body 1 is relatively fast, the controller 28 controls the output power of the refrigeration end of the thermoelectric cooling plate 25 to increase, thereby reducing the cooling temperature of the magnetic pump body 1. At the same time, in order to avoid the influence of the cooling structure on the vibration of the magnetic pump body 1 and interfere with the vibration frequency monitoring of the magnetic pump body 1 by the vibration sensor 27, the vibration force transmitted from the magnetic pump body 1 to the sliding plate 9 through the guide rod 7 is absorbed by the vibration-damping material layer 8, and the liquid inlet pipe 3 and the discharge pipe 3 are connected to the liquid inlet pipe 3. The liquid pipeline 4 transmits the generated vibration force to the inside of the locking frame 17, and the locking frame 17 transmits the vibration force to the inside of the energy absorption spring 19. The energy absorption spring 19 buffers and reduces the vibration force inside it under the action of its elastic deformation through its own dynamic setting, thereby greatly reducing the probability of the vibration force generated by the cooling structure during operation affecting the magnetic pump body 1, so that the vibration sensor 27 can accurately detect the vibration frequency value of the magnetic pump body 1 during operation, thereby ensuring that the power output by the thermoelectric cooling plate 25 can meet the cooling temperature requirement of the magnetic pump body 1; repeat the above operation when using it next time.

[0029] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0030] Although embodiments of the present scheme have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to these embodiments without departing from the principles and spirit of the present scheme, and the scope of the present scheme is defined by the appended claims and their equivalents.

[0031] The above is a description of the present solution and its implementation methods, which is not restrictive. The drawings show only one implementation method of the present solution, and the actual structure is not limited thereto. In short, if ordinary technicians in this field are inspired by it and design structural methods and embodiments similar to the technical solution without creative design without departing from the creative purpose of the present solution, they should all fall within the protection scope of the present solution.

Claims

1. A vertical cooling magnetic drive pump, comprising a magnetic pump body (1), a water pumping drive end (2), a liquid inlet pipe (3) and a liquid discharge pipe (4), characterized in that: The invention also comprises a vibration-damping support mechanism (5) and a power-integrated cooling mechanism (20); the water pumping drive end (2) is arranged on the bottom wall of the magnetic pump body (1); the liquid inlet pipe (3) is arranged on one side of the water pumping drive end (2); the liquid discharge pipe (4) is arranged on the side of the water pumping drive end (2) away from the liquid inlet pipe (3); the vibration-damping support mechanism (5) is arranged on the upper wall of the magnetic pump body (1); the power-integrated cooling mechanism (20) is arranged on the vibration-damping support mechanism (5); the vibration-damping support mechanism (5) comprises a top material suction mechanism (6) and a bottom elastic suction mechanism (15); the top material suction mechanism (6) is arranged on the upper wall of the magnetic pump body (1); and the bottom elastic suction mechanism (15) is arranged on the side of the top material suction mechanism (6) close to the water pumping drive end (2).

2. A vertical cooling magnetic drive pump according to claim 1, characterized in that: The power-integrated cooling mechanism (20) comprises a reduced-surface conduction mechanism (21) and an energy transfer mechanism (24); the reduced-surface conduction mechanism (21) is arranged on a side wall of the bottom elastic-absorption mechanism (15); and the energy transfer mechanism (24) is arranged on a side of the reduced-surface conduction mechanism (21) away from the bottom elastic-absorption mechanism (15).

3. A vertical cooling magnetic drive pump according to claim 2, characterized in that: The top material suction mechanism (6) comprises a guide rod (7), a vibration-damping material layer (8), a sliding plate (9), a fixed permanent magnet (10), a sliding permanent magnet (11), a driving electromagnet (12), a disassembly nut (13) and a guide and suction iron block (14); the guide rod (7) is arranged on the upper wall of the magnetic pump body (1); the guide rod (7) is threadedly connected to the magnetic pump body (1); a plurality of groups of vibration-damping material layers (8) are arranged on the outside of the guide rod (7); the sliding plate (9) is slidably arranged on the outside of the guide rod (7); and the fixed permanent magnet (10) is arranged at one end of the guide rod (7) close to the magnetic pump body (1).

4. A vertical cooling magnetic drive pump according to claim 3, characterized in that: The sliding permanent magnet (11) is arranged on the bottom wall of the sliding plate (9) outside the guide rod (7), the fixed permanent magnet (10) is arranged opposite to the sliding permanent magnet (11), the driving electromagnet (12) is arranged on the upper wall of the sliding plate (9) outside the guide rod (7), the disassembly nut (13) is arranged on the end of the guide rod (7) away from the magnetic pump body (1), the disassembly nut (13) is threadedly connected to the guide rod (7), and the guide and suction block (14) is arranged on the end of the guide rod (7) close to the disassembly nut (13), and the guide and suction block (14) is slidably arranged on the outside of the guide rod (7).

5. A vertical cooling magnetic drive pump according to claim 4, characterized in that: The bottom elastic absorption mechanism (15) comprises a double-sided frame (16), a locking frame (17), a locking bolt (18) and an energy absorption spring (19); the double-sided frame (16) is symmetrically arranged on both sides of the sliding plate (9); the locking frame (17) is respectively arranged on the outside of the liquid inlet pipe (3) and the liquid discharge pipe (4); the locking bolt (18) is symmetrically arranged on both sides of the locking frame (17); the locking bolt (18) is threadedly connected to the locking frame (17); and the energy absorption spring (19) is arranged between the double-sided frame (16) and the locking frame (17).

6. A vertical cooling magnetic drive pump according to claim 5, characterized in that: The reduced surface conduction mechanism (21) comprises an arc-shaped concentrated conductive copper block (22) and a branch conductive short copper column (23); the arc-shaped concentrated conductive copper block (22) is arranged on a side of the double-sided frame (16) close to the magnetic pump body (1), and a plurality of groups of branch conductive short copper columns (23) are arranged on a side of the arc-shaped concentrated conductive copper block (22) away from the double-sided frame (16).

7. A vertical cooling magnetic drive pump according to claim 6, characterized in that: The energy transfer mechanism (24) comprises a thermoelectric cooling sheet (25), a thermal conductive copper column (26) and a vibration sensor (27); the thermoelectric cooling sheet (25) is arranged on a side of the double-sided frame (16) away from the arc-shaped polyconductive copper block (22); the thermal conductive copper column (26) penetrates the double-sided frame (16) and is arranged between the cooling end of the thermoelectric cooling sheet (25) and the arc-shaped polyconductive copper block (22); the vibration sensor (27) is arranged on a side wall of the magnetic pump body (1); and a detection end of the vibration sensor (27) is in contact with a shell of the magnetic pump body (1).

8. A vertical cooling magnetic drive pump according to claim 7, characterized in that: A controller (28) is provided on a side of the magnetic pump body (1) away from the vibration sensor (27).

9. A vertical cooling magnetic drive pump according to claim 8, characterized in that: The controller (28) is electrically connected to the magnetic pump body (1), the driving electromagnet (12), the thermoelectric cooling sheet (25) and the vibration sensor (27), respectively.

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