Anti-crystallization ceramic pump

Abstract

An anti-crystallization ceramic pump belongs to the technical field of ceramic pumps. Comprising a shell, a first driving motor is arranged in the shell, the output end of the first driving motor is fixedly connected with an impeller, a partition plate used for dividing the first driving motor and the impeller is arranged in the shell, and when slurry enters the device, the concentration of the flowing slurry in the device is detected by a detection device; when the concentration is too high, the baffle plate closes the horizontal pipe, opens the folded pipe and opens the first heating strip at the same time, the second heating strip is opened, so that the viscosity of the extracting solution is reduced, the fluidity of the extracting solution is improved, the impeller can suck and discharge the extracting solution more easily, the blocking risk is reduced, and the resistance and the energy consumption of the device are reduced; and when the concentration is too high, the baffle plate closes the horizontal pipe, opens the folded pipe and opens the first heating strip at the same time. And meanwhile, the push rod drives the push block to push forwards, so that the internal diameter of an input end pipeline in the device is reduced, the flow speed is increased under the condition that the output is not changed, and the flow speed with overhigh consistency can be increased.

Description

Technical Field

[0001] The invention relates to the technical field of ceramic pumps, in particular to an anti-crystallization ceramic pump. Background Art

[0002] Ceramic pumps are widely used in many industrial fields due to their good corrosion resistance and wear resistance. They are mainly driven by an electric motor to rotate the impeller, so that the liquid in the pump body is sucked into the impeller and rotates with the impeller, and then the liquid is sent out, generating negative pressure inside the device. Then, due to the rotation of the impeller, the pressure of the liquid is increased, thereby achieving liquid transportation;

[0003] At present, when the ceramic pump is in operation and transmission, some slurries containing impurities such as seeds also contain plant fibers inside, and are in a colloid state, with high viscosity and colloid characteristics. Not only is the fluidity poor, but it may even contain incompletely dissolved fibers due to process problems, extracts containing high concentrations of pectin, and extracts with a large amount of starch, which will increase the flow resistance. When the extract is relatively viscous, the inside of the ceramic pump will be affected, resulting in increased internal flow resistance, a smaller output of the pump body, and a greater workload of the pump, which will affect the pressure stability of the pump. Solid particles or polymers in the viscous extract will aggregate, affecting the service life of the pump.

[0004] When viscous liquids are processed through the pump body, the density of the liquids in the same batch will be uneven due to the processing problems in the above process, and colloids, liquids, fibers, particles, etc. will be dispersed inside the fluid, making it difficult for the pump body to transport. Summary of the invention

[0005] The object of the present invention is to provide an anti-crystallization ceramic pump, which solves the problems in the background technology.

[0006] To achieve the above object, the present invention provides the following technical solution: an anti-crystallization ceramic pump, comprising a housing, a first drive motor is arranged inside the housing, an impeller is fixedly connected to the output end of the first drive motor, a partition for separating the first drive motor and the impeller is arranged inside the housing, and a matching mechanism is arranged on the surface of the housing away from the partition;

[0007] The cam is an axially oriented actuating member of a gear train, and the cam is provided with a plurality of gears, each of which is adapted to engage with the gears of the gear train and to engage with the gears of the gear train.

[0008] The generating mechanism comprises a tube connected to the folded tube arranged on the surface of the shell, a plurality of groups of limiting blocks are arranged in a circular array at the edge of the top of the tube, a propulsion groove is arranged at the top of the tube corresponding to the limiting blocks, an auxiliary component is slidably connected inside the propulsion groove, and a propulsion block is fixedly connected at the end of the auxiliary component.

[0009] Furthermore, the mating mechanism includes an arc panel body arranged on the surface of the shell, a second driving motor is arranged on one side of the arc panel body, an output end of the second driving motor is fixedly connected to a movable long rod, the surface of the movable long rod is transmission connected to a belt tooth, and the other side of the arc panel body is rotatably connected to a mating rod body, the end of the mating rod body is fixedly connected to a first mating large tooth, and the inside of the belt tooth is transmission connected to the mating rod body.

[0010] Furthermore, the first heating strip and the second heating strip are electrically connected to the detection device, the center of the matching gear is fixedly connected to the movable long rod, and the second driving motor is electrically connected to the detection device.

[0011] Furthermore, a motion rod is fixedly connected to the top of the auxiliary component, a push rod is fixedly connected to the bottom of the motion rod surface, two groups of limiting plates are rotatably connected to the motion rod surface above the push rod position, and a matching ring is provided on the motion rod surface in the middle of the two groups of limiting plates.

[0012] Furthermore, the gear teeth on the surface of the matching ring body are higher than the limiting block, and the gear teeth of the matching ring body are meshed with the first matching large teeth.

[0013] Furthermore, a water-passing cylinder is provided inside the tube, and the interior of the water-passing cylinder is a double-layer chamber. The inner wall of the water-passing cylinder is provided with movement holes larger than the radius of the propulsion block in a circular array, and the outer surface of the water-passing cylinder is provided with a water-blocking cylinder for each push rod to move. The end of the water-passing cylinder is fixedly connected to the folded tube, and the other end of the water-blocking cylinder is fixedly connected to a threaded tube body.

[0014] Furthermore, a stabilizing block is provided on the side of the shell surface away from the generating mechanism, and a mounting plate is fixedly connected to the bottom end of the stabilizing block.

[0015] Furthermore, threaded holes are provided at four corners of the mounting plate.

[0016] Furthermore, the shell surface is located inside the impeller chamber and is fixedly connected with an output pipe.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] The present invention provides an anti-crystallization ceramic pump. When slurry enters the device, the detection device detects the viscosity of the slurry flowing in the device. When the viscosity is low, the baffle seals the folded tube and opens the second heating strip at the same time, so that the viscosity of the extract becomes lower and its fluidity is increased. The impeller is easier to inhale and discharge, while reducing the risk of blockage, resistance and device energy consumption.

[0019] Furthermore, when the viscosity is too high, the baffle closes the horizontal tube, opens the folded tube, and opens the first heating strip at the same time. At the same time, the push rod drives the propulsion block to push forward, so that the inner diameter of the input end pipe inside the device becomes smaller. When the output remains unchanged, the flow rate will become faster, so that it can speed up the flow rate of the excessively high viscosity. At the same time, because the flow rate becomes faster, the time for the water to pass will become shorter. Through the coordinated use of the folded tube, the flow time of the thick liquid can be increased, so that it can still maintain a fully heated state and transmit the liquid;

[0020] Furthermore, when the liquid channel becomes narrower, the arc surface of the propulsion block first contacts the fluid. When the device causes crystallization due to problems with the transported fluid, the kinetic energy of the water flow will be disrupted, making the water flow more complex while increasing its flow rate, causing turbulence around it, flushing the crystals generated in the middle device due to transportation or low temperature, and then sending them out of the device.

[0021] When the water flows into the folded pipe by flushing the crystal blocks through the turbulence, small crystals may be produced at the bend of the pipe due to the lengthening of the channel path. At this time, the turbulent blades are driven by the water flow to change the flow state of the surrounding water flow and clean up the impurities around the bend. Larger crystals will be intercepted by the baffles and finally processed in a unified and centralized manner to prevent large crystals from entering the impeller and colliding with the impeller and causing damage. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the overall structure of the device of the present invention;

[0023] Figure 2 It is a schematic diagram of the overall structure of the device of the present invention from a second viewing angle;

[0024] Figure 3 It is a side cut schematic diagram of the overall structure of the device of the present invention;

[0025] Figure 4 It is a schematic cross-sectional view of the overall structure of the device of the present invention;

[0026] Figure 5 It is a schematic diagram of the overall cross-sectional flip structure of the device of the present invention;

[0027] Figure 6 It is a half-cut schematic diagram of the overall structure of the device of the present invention;

[0028] Figure 7 It is a schematic diagram of a half-cut flip of the overall structure of the device of the present invention;

[0029] Figure 8 It is a schematic diagram of the structure of the processing mechanism and the generating mechanism of the present invention;

[0030] Fig. 9 It is a schematic diagram of the flip structure of the processing mechanism and the generating mechanism of the present invention;

[0031] Fig.10 It is a schematic structural diagram of the processing mechanism and the generating mechanism of the present invention from a second viewing angle;

[0032] Fig.11 It is a partial planar structural diagram of the processing mechanism of the present invention;

[0033] Fig.12 It is a schematic diagram of the front section structure of the processing mechanism of the present invention;

[0034] Fig.13 It is a schematic diagram of the generating mechanism of the present invention;

[0035] Fig.14 It is a schematic diagram of the structure of the partial splitting of the generating mechanism of the present invention;

[0036] Fig.15This is a schematic diagram of the splitting and flipping structure of the generating mechanism of the present invention;

[0037] Fig.16 It is a schematic diagram of the auxiliary component structure of the present invention.

[0038] In the figure: 1, shell; 11, first drive motor; 12, impeller; 13, partition; 2, processing mechanism; 21, diverter block; 22, folded pipe; 23, cross pipe; 24, detection device; 25, matching gear; 26, tooth plate; 27, baffle; 28, spoiler blade; 3, generating mechanism; 31, trustee; 32, limiting block; 33, propulsion notch; 34, auxiliary component; 341, moving rod; 342, push rod; 343, limiting sheet; 345, matching ring; 35, propulsion block; 36, water-passing cylinder; 37, water-blocking cylinder; 38, threaded tube; 4, matching mechanism; 41, arc panel; 42, second drive motor; 43, movable long rod; 44, belt tooth; 45, first matching large tooth. DETAILED DESCRIPTION

[0039] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0040] In order to further understand the content of the present invention, the present invention is described in detail in conjunction with the accompanying drawings.

[0041] Combination Figure 1-Figure 10 To achieve the above object, the present invention provides the following technical solution: an anti-crystallization ceramic pump, comprising a housing 1, a first drive motor 11 is arranged inside the housing 1, an impeller 12 is fixedly connected to the output end of the first drive motor 11, a partition 13 for separating the first drive motor 11 and the impeller 12 is arranged inside the housing 1, and a matching mechanism 4 is arranged on the surface of the housing 1 away from the partition 13;

[0042] It also includes a processing mechanism 2, including a shunt block 21 arranged on the first drive motor 11 on one side of the partition 13, a folded tube 22 is arranged inside the shunt block 21, the folded tube 22 is in the shape of a "J", a transverse tube 23 is arranged at the turning point of the "J" shape of the folded tube 22, one end of the folded tube 22 passes through the partition 13 to the inside of the impeller 12 dividing chamber, a detection device 24 is arranged on one side of the shunt block 21, a movable notch is opened inside the shunt block 21, and a matching gear 2 is arranged on one side of the shunt block 21 near the movable notch. 5. The surface of the mating gear 25 is meshed with a tooth plate 26, and the end of the tooth plate 26 is threadedly connected with a baffle 27. A diversion hole is opened on the top of the surface of the baffle 27. The baffle 27 slides inside the movable slot through the tooth plate 26. The radius of the diversion hole is smaller than the inner radius of the folded tube 22 and the cross tube 23. The inside of the folded tube 22 and the cross tube 23 are respectively provided with a first heating strip and a second heating strip. The inside of the folded tube 22 is rotatably connected with a spoiler blade 28 away from the baffle 27, and a blocking net is provided inside the diversion hole;

[0043] The generating mechanism 3 comprises a tube 31 arranged on the surface of the shell 1 and connected to the folded tube 22, a plurality of groups of limiting blocks 32 are arranged in a circular array at the edge of the top of the tube 31, a push groove 33 is arranged at the top of the tube 31 corresponding to the limiting blocks 32, an auxiliary component 34 is slidably connected inside the push groove 33, and a push block 35 is fixedly connected to the end of the auxiliary component 34.

[0044] The design of the spoiler blades 28 is, on the one hand, to flush the crystals inside the pipe and generate turbulence inside the folded tube 22. On the other hand, the viscous liquid may contain straight fibers. If the end directly passes through the barrier without being intercepted by the barrier, insufficient heating may cause its hardness to be too high, causing damage to the impeller 12. When passing through the spoiler blades 28, its heating time will be prolonged. At the same time, if the particles or fibers inside the viscous extract are agglomerated, the spoiler blades 28 will change their own rotation rate according to the change of the flow velocity in front of them, destroying the agglomerated structure so that they can be dispersed in the liquid, reducing the risk of clogging of the impeller 12, and at the same time, allowing it to better pass through the channel inside the ceramic pump body, thereby reducing wear on the pump body and unnecessary resistance.

[0045] Combination Figure 2-Figure 16The matching mechanism 4 includes an arc panel body 41 arranged on the surface of the shell 1, a second driving motor 42 is arranged on one side of the arc panel body 41, a movable long rod 43 is fixedly connected to the output end of the second driving motor 42, and a belt tooth 44 is transmission-connected to the surface of the movable long rod 43, and a matching rod body is rotatably connected to the other side of the arc panel body 41, and a first matching large tooth 45 is fixedly connected to the end of the matching rod body, and the inside of the belt tooth 44 is transmission-connected to the matching rod body.

[0046] The first heating strip and the second heating strip are electrically connected to the detection device 24 , the center of the matching gear 25 is fixedly connected to the movable long rod 43 , and the second driving motor 42 is electrically connected to the detection device 24 .

[0047] When the detection device 24 detects that the density of the fluid transmitted by the ceramic pump within the current range has changed, it will transmit signals to the first heating strip and the second heating strip respectively, and determine based on the detection results whether it is necessary to operate the second drive motor 42 to process the device through different transport paths. When the viscosity is low, a short path is used for processing; and when the viscosity of the fluid is too high, the baffle 27 closes the horizontal tube 23 and opens the folded tube 22 to extend the path distance it passes through.

[0048] The top of the auxiliary component 34 is fixedly connected to a moving rod 341, the bottom of the surface of the moving rod 341 is fixedly connected to a push rod 342, the surface of the moving rod 341 is rotatably connected to two groups of limiting plates 343 at a position higher than the push rod 342, and a matching ring 345 is provided on the surface of the moving rod 341 in the middle of the two groups of limiting plates 343.

[0049] The gear teeth on the surface of the matching ring body 345 are higher than the limiting block body 32 , and the gear teeth of the matching ring body 345 are meshed with the first matching large teeth 45 .

[0050] The mating ring body 345 works through the first mating large tooth 45. When the folding tube 22 and the horizontal tube 23 change the path through the baffle plate 27, the second driving motor 42 that drives the baffle plate 27 will synchronously drive the first mating large tooth 45 to rotate, so that the mating ring body 345 can drive the moving rod 341 to advance and retract in a straight line. The gear teeth on the surface of the mating ring body 345 are opened to the upper half of the surface of the mating ring body 345, and the lower part is a smooth cylindrical shape.

[0051] A water-passing cylinder 36 is arranged inside the tube 31. The interior of the water-passing cylinder 36 is a double-layer chamber. The inner wall of the water-passing cylinder 36 is provided with movement holes in a circular array that are larger than the radius of the propulsion block 35. The outer surface of the water-passing cylinder 36 is provided with a water-blocking cylinder 37 for each push rod 342 to move. The end of the water-passing cylinder 36 is fixedly connected to the folded tube 22, and the other end of the water-blocking cylinder 37 is fixedly connected to a threaded tube 38.

[0052] The inner wall of the water-passing cylinder 36 is provided with movement holes in a circular array at the water flow point of the double-layer chamber, which are used to cooperate with the propulsion block 35 to move. When the propulsion block 35 is pushed toward the center of the circle, it will be pushed out from the inside of the double-layer chamber through the movement hole. At this time, the maximum radius of the propulsion block 35 is at the movement hole of the double-layer chamber, and the propulsion block 35 does not continue to move forward. When a decrease in viscosity is detected, the propulsion block 35 will expand toward the periphery of the circle until it is restored to the inside of the double-layer chamber.

[0053] The matching ring body 345 is specially designed. The gear teeth on the upper surface do not contact the groove part of the limiting block 32. When the lower part rotates, it fits the limiting block 32 to give it a supporting force. The space generated by the two limiting sheets 343 is larger than the thickness of the matching ring body 345 to ensure that it can operate normally. The auxiliary component 34 slides inside each advancement slot 33 and performs a limiting process at the same time. The advancement block 35, such as Fig.15 As shown, the chamber in which it is located is double-layered, and the movement hole opened in the chamber is used for the maximum radius of the propulsion block 35 to move. When the propulsion block 35 retreats to the set point, it fits with the inner wall of the water-passing cylinder 36, and the push rod 342 moves inside the water-blocking cylinder 37. If necessary, a water-blocking rubber structure can be installed at the movable end of the water-blocking cylinder 37 close to the limiting sheet 343.

[0054] A stabilizing block is disposed on the surface of the shell 1 at a side away from the generating mechanism 3 , and a mounting plate is fixedly connected to the bottom end of the stabilizing block.

[0055] The four corners of the mounting plate are all provided with threaded holes.

[0056] When necessary, the device needs to be fixed to the wall or a suitable location through the mounting plate by bolts. Specific implementation method;

[0058] When using the device, the personnel install the device at a suitable position, connect the threaded tube body 38 at the input end to the transmission fluid, or directly connect the threaded tube body 38 through the pipe thread, and then the first drive motor 11 inside the housing 1 starts to operate. At this time, the first drive motor 11 drives the impeller 12 inside the chamber separated by the partition 13 inside the housing 1 to start working, and the water passes through the inside of the housing 1, and the viscosity of the fluid is detected by the detection device 24;

[0059] Method 1: When the detected viscosity is low, but the liquid contains a large amount of fiber, the detection device 24 transmits a signal to the second drive motor 42, and the second drive motor 42 drives the movable long rod 43 to work, and the movable long rod 43 drives the matching gear 25 to work. The matching gear 25 drives the baffle 27 on the tooth plate 26 to open, so that the cross tube 23 flows, and the upper part of the folded tube 22 is sealed. At the same time, the second heating strip inside the cross tube 23 starts to work, and the starch, polymer substances, proteins, polysaccharides, etc. in the Chinese medicine extract are heated to reduce the viscosity of pectin, or form a colloidal dispersion system, and the heating improves its fluidity. The fibers are softened by heating and enter the chamber of the impeller 12 along the pipeline, and then sent out from the output end;

[0060] Method 2: When the detected viscosity is high, the second drive motor 42 will start to work again, the tooth plate 26 will work, the straight channel of the cross tube 23 will be closed, the second heating strip will be closed, the folding tube 22 will be opened, and the first heating strip will start to work at the same time. When the second drive motor 42 is working, the second drive motor 42 will drive the belt teeth 44 to work, and the belt teeth 44 will drive the first matching large teeth 45 to rotate synchronously, and the first matching large teeth 45 will mesh with the matching ring body 345, and make the matching ring body 345 The auxiliary components 34 start to push the push rod 342 toward the center of the circle and move it inside the water-blocking cylinder 37. At the same time, the push block 35 is pushed to narrow the pipe aperture inside the water-passing cylinder 36, increase the flow rate, and disrupt the direct flow of the fluid. When the direct flow passes through the inside of the folded tube 22, the fluid will be disrupted again by the rotation of the flow-disturbing blades 28, and the crystals at the corners and the attached fibers will be flushed by the flow disturbance, and then passed to the impeller 12, and then sent out;

[0061] When the working cycle of the baffle 27 on the device is too long, the baffle 27 is removed, because the baffle 27 may intercept large fruit particles or long-length fibers. The internal blocking net of the diversion hole on the baffle 27 is removed and replaced. The baffle 27 will prevent large particles from colliding with the impeller 12 inside the shell 1 and causing damage to the impeller 12.

[0062] 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.

[0063] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An anti-crystallization ceramic pump, comprising a housing (1), a first drive motor (11) being arranged inside the housing (1), an impeller (12) being fixedly connected to an output end of the first drive motor (11), characterized in that: Inside the housing (1), a partition plate (13) is provided for separating the first drive motor (11) and the impeller (12). A matching mechanism (4) is provided on the surface of the housing (1) away from the partition plate (13). It further includes a processing mechanism (2), which includes a flow splitting block (21) arranged on the first drive motor (11) on one side of the partition plate (13). A folding pipe (22) is arranged inside the flow splitting block (21). The folding pipe (22) is in a "Ji" shape. A transverse pipe (23) is arranged at the "Ji" shape turning point of the folding pipe (22). One end of the folding pipe (22) penetrates through the partition plate (13) into the impeller (12) separation chamber. A detection device (24) is arranged on one side of the flow splitting block (21). An activity notch is opened inside the flow splitting block (21). A matching gear (25) is arranged inside the flow splitting block (21) near the activity notch. A toothed plate (26) is meshed on the surface of the matching gear (25). The end of the toothed plate (26) is threadedly connected with a baffle plate (27). Shunt holes are opened at the top of the baffle plate (27). The baffle plate (27) slides inside the activity notch through the toothed plate (26). The radius of the shunt holes is smaller than the inner radius of the folding pipe (22) and the transverse pipe (23). A first heating strip and a second heating strip are respectively arranged inside the folding pipe (22) and the transverse pipe (23). A turbulence fan blade (28) is rotatably connected inside the folding pipe (22) away from the baffle plate (27). A retaining net is arranged inside the shunt holes. The generating mechanism (3) includes a trusteeship (31) arranged on the surface of the housing (1) and connected to the folding pipe (22). A number of groups of limiting blocks (32) are arranged in a circular array at the edge of the top of the trusteeship (31). A propulsion notch (33) is arranged corresponding to the limiting blocks (32) at the top of the trusteeship (31). An auxiliary component (34) is slidably connected inside the propulsion notch (33). A propulsion block (35) is fixedly connected to the end of the auxiliary component (34).

2. The anti-crystallization ceramic pump according to claim 1, characterized in that: The matching mechanism (4) includes an arc panel body (41) arranged on the surface of the housing (1). A second drive motor (42) is arranged on one side of the arc panel body (41). The output end of the second drive motor (42) is fixedly connected with a movable long rod (43). A belt tooth (44) is传动连接 on the surface of the movable long rod (43). A matching rod body is rotatably connected to the other side of the arc panel body (41). A first matching large tooth (45) is fixedly connected to the end of the matching rod body. The belt tooth (44) is传动连接 with the matching rod body inside.

3. The anti-crystallization ceramic pump according to claim 2, characterized in that: The first heating strip and the second heating strip are electrically connected to the detection device (24). The center of the matching gear (25) is fixedly connected with the movable long rod (43). The second drive motor (42) is electrically connected to the detection device (24).

4. An anti-crystallization ceramic pump according to claim 3, characterized in that: The top of the auxiliary component (34) is fixedly connected to a moving rod (341), the bottom of the surface of the moving rod (341) is fixedly connected to a push rod (342), the surface of the moving rod (341) is rotatably connected to two groups of limiting plates (343) at a position higher than the push rod (342), and a matching ring (345) is provided on the surface of the moving rod (341) in the middle of the two groups of limiting plates (343).

5. The anti-crystallization ceramic pump according to claim 4, characterized in that: The gear teeth on the surface of the matching ring body (345) are higher than the limiting block (32), and the gear teeth of the matching ring body (345) are meshed with the first matching large teeth (45).

6. The anti-crystallization ceramic pump according to claim 5, characterized in that: The interior of the tube (31) is provided with a water-passing cylinder (36), the interior of the water-passing cylinder (36) is a double-layer chamber, the inner wall of the water-passing cylinder (36) is provided with movement holes larger than the radius of the propulsion block (35) in a circumferential array, the outer surface of the water-passing cylinder (36) is provided with a water-blocking cylinder (37) for each push rod (342) to move, the end of the water-passing cylinder (36) is fixedly connected to the folded tube (22), and the other end of the water-blocking cylinder (37) is fixedly connected to a threaded tube (38).

7. The anti-crystallization ceramic pump according to claim 1, characterized in that: A stabilizing block is provided on the side of the shell (1) surface away from the generating mechanism (3), and a mounting plate is fixedly connected to the bottom end of the stabilizing block.

8. The anti-crystallization ceramic pump according to claim 7, characterized in that: The four corners of the mounting plate are all provided with threaded holes.

9. The anti-crystallization ceramic pump according to claim 8, characterized in that: The surface of the housing (1) is located inside the impeller (12) chamber and is fixedly connected to an output pipe.

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