High-flow fluoroplastic magnetic drive pump

Abstract

The invention discloses a large-flow fluoroplastic magnetic drive pump, belongs to the technical field of fluoroplastic magnetic drive pumps, and solves the problem that an existing fluoroplastic magnetic drive pump cannot flexibly control the cut-off flow speed. The magnetic drive pump comprises a mounting base, a magnetic drive pump body, a conveying cavity and a stirring impeller, and the magnetic drive pump body is mounted on the surface of the mounting base; a conveying cavity is installed on the side face of the magnetic drive pump body, a stirring impeller for driving a medium to flow is installed in the conveying cavity, control mechanisms for assisting the medium to flow are installed at an opening in the side face and an opening in the top end of the conveying cavity correspondingly, and each control mechanism comprises a circulation pipe body, a ball valve body and a control connecting rod. By arranging the control mechanism, the flow velocity of media at the input port and the output port of the magnetic drive pump can be independently controlled, the original flow velocity of the magnetic drive pump is changed, and power can be provided for position movement of the shielding ring in the rotating process of the control connecting rod.

Description

Technical Field

[0001] The invention belongs to the technical field of fluoroplastic magnetic pumps, and particularly relates to a large-flow fluoroplastic magnetic pump. Background Technique

[0002] A fluoroplastic magnetic pump is a new type of pump that applies the principle of modern magnetics and uses the magnetic drive of permanent magnets to achieve contactless transmission of torque. That is, when the motor drives the outer rotor assembly to rotate, the magnetic force lines pass through the isolation sleeve under the action of the magnetic field to drive the inner rotor assembly and the impeller to rotate synchronously. The flow-through components in the pump body are made of fluoroplastic, which can stably transport corrosive media such as acids, alkalis, and oxidants while preventing the transported media from corroding the internal parts of the pump body.

[0003] Chinese invention patent CN114909297A discloses a large-flow fluoroplastic magnetic pump, which relates to the technical field of magnetic pumps and includes a base. One side of the outer wall of the top of the base is provided with a mounting block, and a motor is arranged on the top of the mounting block. The other side of the outer wall of the top of the base is bolted with a pump shell. One end of the pump shell is provided with a liquid inlet end, the top of the pump shell is provided with a liquid outlet end, and a rear cover is arranged at one end of the pump shell close to the motor. The output shaft of the motor is connected with a rotating rod, a paddle is arranged at the end of the rotating rod far away from the motor, and a rotor is sleeved on the outer wall of the rotating rod.

[0004] When the above-mentioned fluoroplastic magnetic pump is in use, it can transport various corrosive media, effectively reducing the heat generated by the fluoroplastic magnetic pump during use. However, there are certain problems in actual transportation, specifically reflected in the use of this device, which cannot flexibly and stably control the overall transportation flow rate of the pump body, affecting the overall working quality of the device. Summary of the Invention

[0005] The purpose of this part is to outline some aspects of the embodiments of the invention and briefly introduce some preferred embodiments. Some simplifications or omissions may be made in this part, as well as in the abstract and title of the specification of this application, to avoid obscuring the purpose of this part, the abstract of the specification, and the title of the invention. However, such simplifications or omissions cannot be used to limit the scope of the invention.

[0006] To solve the problems raised in the above background technique, the invention adopts the following technical solutions.

[0007] A large-flow fluoroplastic magnetic pump, comprising a mounting base, a magnetic pump main body, a conveying chamber and a stirring impeller. The magnetic pump main body is mounted on the surface of the mounting base, the conveying chamber is mounted on the side of the magnetic pump main body, and the stirring impeller for driving the medium to flow is mounted in the conveying chamber. Control mechanisms for assisting the medium to flow are mounted at both the side opening and the top opening of the conveying chamber. The control mechanism comprises a flow-through pipe body, a ball valve main body and a control connecting rod. Flow-through pipe bodies are mounted at both the side opening and the top opening of the conveying chamber. The flow-through pipe body is a tubular structure with openings at both the top and bottom. A ball valve main body for controlling the flow rate of the medium inside the flow-through pipe body is mounted inside the flow-through pipe body. A control connecting rod is mounted at the end of the ball valve main body. The control connecting rod is rotatably connected to the flow-through pipe body and penetrates through the side of the flow-through pipe body.

[0008] As a preferred technical solution of the present invention, two groups of the flow-through pipe bodies are provided. One group is mounted at the side opening of the conveying chamber and serves as an input pipe, and the other group is mounted at the top opening of the conveying chamber and serves as an output pipe.

[0009] As a preferred technical solution of the present invention, the control mechanism further comprises a control handle and a flange. A control handle is mounted at the end of the control connecting rod. Rotating the control handle provides power for the rotation of the control connecting rod, driving the ball valve main body to rotate. A flange is mounted at the top of the flow-through pipe body.

[0010] As a preferred technical solution of the present invention, the fluoroplastic magnetic pump further comprises a shielding mechanism. The shielding mechanism comprises a shielding ring, a connecting bracket and a side housing. Side housings are symmetrically mounted on the side of the flow-through pipe body mounted at the top opening of the conveying chamber. A connecting bracket is slidably mounted inside the side housing. A shielding ring is mounted at the bottom end of the connecting bracket. A conveying groove with a radius consistent with the inner diameter of the flow-through pipe body is formed inside the shielding ring.

[0011] As a preferred technical solution of the present invention, the shielding mechanism further comprises a lead screw, a moving end, a first bevel gear and a second bevel gear. Two groups of the side housings are provided. A lead screw is rotatably mounted inside one group of the side housings. A moving end is threadedly mounted on the outside of the lead screw. The moving end is connected to the end of one group of the connecting brackets. A first bevel gear is mounted at the end of the lead screw. A second bevel gear is mounted on the outside of the control connecting rod. The second bevel gear is meshed with the first bevel gear.

[0012] As a preferred technical solution of the present invention, the shielding mechanism further comprises a guide rod and a moving block. A guide rod is mounted inside the other group of the side housings. A moving block is slidably mounted on the outside of the guide rod. The moving block is connected to the end of the other group of the connecting brackets.

[0013] As a preferred technical solution of the present invention, the stirring impeller includes a transmission rod, an impeller main body, a pressing cap and a threaded end. The transmission rod is installed on the magnetic pump main body, the impeller main body is slidably installed outside the transmission rod, the threaded end is installed at the top of the transmission rod, and the pressing cap is installed on the outside of the threaded end by thread.

[0014] As a preferred technical solution of the present invention, the stirring impeller further includes a guide plate and a fixing plate. The guide plates are symmetrically installed on the transmission rod, sliding grooves for sliding in cooperation with the guide plates are provided on the impeller main body, a fixing plate is installed on the side of the impeller main body, and a threaded rod is installed on the fixing plate and the guide plate in common by thread.

[0015] As a preferred technical solution of the present invention, the impeller main body includes a rear impeller disc, a front impeller disc and impeller blades. The rear impeller disc is installed outside the transmission rod, the front impeller disc is arranged on the side of the rear impeller disc, and a plurality of groups of impeller blades are equidistantly installed between the rear impeller disc and the front impeller disc.

[0016] As a preferred technical solution of the present invention, the conveying chamber is composed of a rotating cylinder and a conical guide cylinder. The rotating cylinder is installed at the end of the magnetic pump main body through a connecting flange, and the conical guide cylinder is installed at the opening of the rotating cylinder.

[0017] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0018] In the present invention, by setting the control mechanism, the flow rates of the media at the input port and the output port of the magnetic pump can be controlled separately, changing the original flow rate of the magnetic pump. During the rotation of the control link, power can be provided for the position movement of the shielding ring. Cooperating with the shielding mechanism, the position height of the shielding ring can be adjusted, and the distance between the shielding ring and the stirring impeller can be adjusted, reducing the centrifugal force of the ejected medium and achieving the purpose of stably controlling the flow rate of the medium.

[0019] In the present invention, through the design of the stirring impeller structure, the stirring impeller can be quickly replaced and adjusted. When the pump body needs to transport the medium at a predetermined flow rate for a long time, the overall size of the impeller and the shape and structure of the impeller blades in the impeller can be adjusted to control the overall flow rate of the magnetic pump. Brief Description of the Drawings

[0020] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0021] Figure 2 It is a schematic diagram of the internal structure of the conveying chamber of the present invention.

[0022] Figure 3 It is a schematic diagram of the control mechanism structure of the present invention.

[0023] Figure 4This is a schematic structural diagram of the shielding mechanism of the present invention.

[0024] Figure 5 This is an enlarged schematic structural diagram of the shielding mechanism of the present invention.

[0025] Figure 6 This is a schematic structural diagram of the stirring impeller in the present invention.

[0026] Figure 7 This is a schematic structural diagram of the impeller main body of the present invention.

[0027] The corresponding relationship between the reference numerals and the component names in the figure is as follows:

[0028] 1. Installation base; 2. Magnetic pump main body; 3. Delivery chamber; 4. Stirring impeller; 41. Transmission rod; 42. Impeller main body; 421. Rear impeller disc; 422. Front impeller disc; 423. Impeller blade; 43. Extrusion cap; 44. Threaded end; 45. Guide plate; 46. Fixed plate; 5. Control mechanism; 51. Flow pipe body; 52. Ball valve main body; 53. Control connecting rod; 54. Control handle; 55. Flange; 6. Shielding mechanism; 61. Shielding ring; 62. Connection bracket; 63. Side housing; 64. Lead screw; 65. Mobile end; 66. First bevel gear; 67. Second bevel gear; 68. Guide rod; 69. Moving block; 7. Delivery pump. Detailed implementation manners

[0029] To make the above objects, features, and advantages of the present invention more obvious and understandable, the following detailed description of the specific implementation manners of the present invention will be given with reference to the accompanying drawings of the specification.

[0030] In the following description, many specific details are set forth to facilitate a thorough understanding of the present invention. However, the present invention can also be implemented in other ways different from those described herein. Those skilled in the art can make similar extensions without departing from the connotation of the present invention. Therefore, the present invention is not limited by the specific embodiments disclosed below.

[0031] Secondly, the so-called "one embodiment" or "embodiment" herein refers to a specific feature, structure, or characteristic that can be included in at least one implementation manner of the present invention. The phrase "in one embodiment" appearing in different places in this specification does not necessarily refer to the same embodiment, nor is it an individual or alternative embodiment that is mutually exclusive with other embodiments. The present invention provides the following embodiments.

[0032] By Figure 1 and Figure 2As shown in the figure, it is a schematic structural diagram of the fluoroplastic magnetic pump in this embodiment. The magnetic pump includes a mounting base 1, a magnetic pump main body 2, a delivery chamber 3, and an agitation impeller 4. The magnetic pump main body 2 is mounted on the surface of the mounting base 1, and the delivery chamber 3 is mounted on the side of the magnetic pump main body 2. The delivery chamber 3 is composed of a rotating cylinder and a conical guide cylinder. The rotating cylinder is mounted at the end of the magnetic pump main body 2 through a connecting flange, and the conical guide cylinder is mounted at the opening of the rotating cylinder. The side opening of the conical guide cylinder serves as the input port for the medium, and the top opening of the rotating cylinder serves as the output port for the medium. An agitation impeller 4 for driving the medium to flow is mounted in the delivery chamber 3.

[0033] During use, a motor is mounted at the end of the magnetic pump main body 2 to provide power for the outer rotor inside the magnetic pump main body 2. Then, under the action of the magnetic field, the outer rotor drives the inner rotor to rotate, providing power for the operation of the agitation impeller 4. When the agitation impeller 4 rotates, the internal pressure of the delivery chamber 3 changes, absorbing the medium at the side opening of the delivery chamber 3. Then, under the action of centrifugal force, the medium flows out through the component at the top of the rotating cylinder, realizing the delivery and extraction of the medium. Moreover, the key components of the agitation impeller 4 and the delivery chamber 3 are made of fluoroplastic material, which can effectively prevent the corrosion of the medium itself, improve the stability during the operation of the equipment, and a delivery pump 7 is mounted outside the magnetic pump main body 2, which can circulate and extract the cooling lubricating oil inside the magnetic pump main body 2 for use, reducing the overall temperature of the magnetic pump main body 2.

[0034] A control assembly for controlling the flow rate of the medium is mounted on the delivery chamber 3. The control assembly is composed of a control mechanism 5 and a shielding mechanism 6.

[0035] By attachment Figure 3 As shown in the figure, it is a schematic structural diagram of the control mechanism 5 in this embodiment. The control mechanism 5 includes a flow-through pipe body 51, a ball valve main body 52, a control connecting rod 53, a control handle 54, and a flange 55. Flow-through pipe bodies 51 are mounted at both the side opening and the top opening of the delivery chamber 3. The flow-through pipe body 51 is a tubular structure with openings at both the top and bottom. A total of two groups of flow-through pipe bodies 51 are provided. One group is mounted at the side opening of the delivery chamber 3 as the input pipe, and the other group is mounted at the top opening of the delivery chamber 3 as the output pipe. A ball valve main body 52 for controlling the flow rate of the medium inside the flow-through pipe body 51 is mounted inside the flow-through pipe body 51. A control connecting rod 53 is mounted at the end of the ball valve main body 52. The control connecting rod 53 is rotatably connected to the flow-through pipe body 51, and the control connecting rod 53 penetrates through the side of the flow-through pipe body 51. A control handle 54 is mounted at the end of the control connecting rod 53. Rotating the control handle 54 provides power for the rotation of the control connecting rod 53, driving the ball valve main body 52 to rotate. A flange 55 is mounted at the top of the flow-through pipe body 51.

[0036] During use, it is toggled manually by the operator's control handle 54. At this time, the control link 53 rotates driven by the control handle 54, providing power for the operation of the ball valve body 52. At this time, the sphere in the ball valve body 52 changes its angle, and the ball groove in the sphere that was originally at the same angle as the hole groove of the flow pipe body 51 rotates, causing the size of the flow aperture of the medium inside the flow pipe body 51 to change, thereby controlling the flow rate of the medium in the flow pipe body 51.

[0037] In this embodiment, two groups of flow pipe bodies 51 are provided, which can independently control the speed of the medium flowing into the conveying chamber 3 and the speed of the medium flowing out. Moreover, a shielding mechanism 6 is also installed inside the flow pipe body 51 installed on the rotating cylinder, which is used to further control the flow rate of the medium in the conveying chamber 3.

[0038] As shown in the appended Figure 4 and Figure 5 figure, it is a schematic structural diagram of the shielding mechanism 6 in this embodiment. The fluoroplastic magnetic pump further includes a shielding mechanism 6. The shielding mechanism 6 includes a shielding ring 61, a connecting bracket 62, a side housing 63, a lead screw 64, a mobile end 65, a first bevel gear 66, a second bevel gear 67, a guide rod 68, and a moving block 69. The side surfaces of the flow pipe body 51 installed at the top opening of the conveying chamber 3 are symmetrically provided with side housings 63. A connecting bracket 62 is slidably installed inside the side housing 63. A shielding ring 61 is installed at the bottom end of the connecting bracket 62. A conveying groove with a radius consistent with the inner diameter of the flow pipe body 51 is opened inside the shielding ring 61. Two groups of side housings 63 are provided. A lead screw 64 is rotatably installed inside one group of side housings 63. A mobile end 65 is threadedly installed outside the lead screw 64. The mobile end 65 is connected to the end of one group of connecting brackets 62. A first bevel gear 66 is installed at the end of the lead screw 64. A second bevel gear 67 is installed outside the control link 53. The second bevel gear 67 is meshed and connected with the first bevel gear 66. A guide rod 68 is installed inside the other group of side housings 63. A moving block 69 is slidably installed outside the guide rod 68. The moving block 69 is connected to the end of the other group of connecting brackets 62.

[0039] During use, by controlling the rotation of the connecting rod 53 as a whole, power is provided for the operation of the second bevel gear 67. The second bevel gear 67 meshes with the first bevel gear 66. At this time, the lead screw 64 rotates as a whole, driving the moving end 65 outside the lead screw 64 to move along the external thread direction of the lead screw 64, adjusting the height of the moving end 65 in the side housing 63. Cooperating with the connecting bracket 62 connected to the end of the moving end 65, the shielding ring 61 moves towards the side close to the stirring impeller 4. In the embodiment, the shielding ring 61 is semi-circular as a whole. When the stirring impeller 4 stirs the medium flowing into the conveying chamber 3, the shielding ring 61 approaches the stirring impeller 4, which will reduce the centrifugal force generated by the stirring impeller 4 stirring the medium, so as to achieve the purpose of controlling the medium flow rate.

[0040] During the movement of the shielding ring 61, the moving block 69 installed at the end of the other set of connecting brackets 62 will stably slide along the length direction of the guide rod 68, realizing the vertical and stable lifting of the shielding ring 61 and ensuring that the shielding ring 61 stably approaches the outside of the stirring impeller 4.

[0041] During actual use, the lengths of the lead screw 64 and the guide rod 68 limit the maximum moving distance of the shielding ring 61, preventing the inner wall of the shielding ring 61 from contacting the stirring impeller 4 and improving the overall safety of the equipment.

[0042] As shown in the appendix Figure 6 This is a schematic structural diagram of the stirring impeller 4 in this embodiment. The stirring impeller 4 includes a transmission rod 41, an impeller main body 42, a pressing cap 43, a threaded end 44, a guide plate 45 and a fixing plate 46. The transmission rod 41 is installed on the magnetic pump main body 2, and the impeller main body 42 is slidably installed outside the transmission rod 41. The threaded end 44 is installed at the top of the transmission rod 41, and the pressing cap 43 is threadedly installed outside the threaded end 44. The guide plates 45 are symmetrically installed on the transmission rod 41, and the impeller main body 42 is provided with sliding grooves for sliding in cooperation with the guide plates 45. The fixing plate 46 is installed on the side of the impeller main body 42, and the fixing plate 46 and the guide plate 45 are jointly threadedly installed with a threaded rod.

[0043] When it is necessary to control the medium flow rate during use, the conveying chamber 3 can be removed from the side of the magnetic pump main body 2, and then the threaded rod installed on the fixing plate 46 is rotated to release the connection between the fixing plate 46 and the guide plate 45. Then, the pressing cap 43 is rotated to turn the pressing cap 43 out of the threaded end 44. At this time, the impeller main body 42 can be slid out of the transmission rod 41, which is convenient for the operator to replace the impeller main body 42 as a whole. Due to the different sizes and structures of the impeller main body 42 itself, the conveying flow rates of the medium are different, which is convenient for the operator to convey the medium at a predetermined flow rate for a long time.

[0044] The guide plate 45 installed on the transmission rod 41 can assist the impeller main body 42 to be replaced subsequently to be quickly sleeved outside the transmission rod 41, realizing the quick positioning of the installation of the impeller main body 42, facilitating the rotation of the threaded rod after the fixing plate 46 and the guide plate 45 are aligned, and realizing the locking of the overall position of the impeller main body 42.

[0045] As shown Figure 7 in the figure, it is a schematic structural diagram of the impeller main body 42 in this embodiment. The impeller main body 42 includes a rear impeller disc 421, a front impeller disc 422 and impeller blades 423. The rear impeller disc 421 is installed outside the transmission rod 41. The front impeller disc 422 is arranged on the side of the rear impeller disc 421. A plurality of groups of impeller blades 423 are equidistantly installed between the rear impeller disc 421 and the front impeller disc 422.

[0046] In use, according to the different sizes of the rear impeller disc 421 and the front impeller disc 422, there are differences in the centrifugal force generated when the impeller main body 42 rotates as a whole. The arrangement of the impeller blades 423 can guide the medium to pass through the holes and grooves on the front impeller disc 422 and flow out along the outer surface of the impeller blades 423. During subsequent use, the shape and quantity of the impeller blades 423 can be adjusted and replaced to realize the adjustment of the flow rate of the medium.

[0047] The above content further elaborates on the present invention in combination with specific embodiments. It cannot be determined that the specific implementation of the present invention is only limited to these descriptions. For those of ordinary skill in the technical field to which the present invention belongs, without departing from the concept of the present invention, several simple deductions or substitutions can still be made, which should all be regarded as falling within the protection scope determined by the claims submitted for the present invention.

Claims

1. A large flow fluoroplastic magnetic pump, comprising a mounting base (1), a magnetic pump body (2), a conveying chamber (3) and an agitating impeller (4), wherein the mounting base (1) is mounted with the magnetic pump body (2), the side of the magnetic pump body (2) is mounted with the conveying chamber (3), and the conveying chamber (3) is mounted with an agitating impeller (4) for driving the medium to flow, characterized in that: A control mechanism (5) for assisting the flow of a medium is installed at both the side opening and the top opening of the conveying chamber (3). The control mechanism (5) comprises a circulation tube (51), a ball valve body (52) and a control connecting rod (53). The circulation tube (51) is installed at both the side opening and the top opening of the conveying chamber (3). The circulation tube (51) is a tubular structure with upper and lower openings. A ball valve body (52) for controlling the flow speed of the medium inside the circulation tube (51) is installed inside the circulation tube (51). A control connecting rod (53) is installed at the end of the ball valve body (52). The control connecting rod (53) is rotatably connected to the circulation tube (51), and the control connecting rod (53) passes through the side of the circulation tube (51).

2. The high flow fluoroplastic magnetic pump according to claim 1 is characterized in that: The circulation tube bodies (51) are provided in two groups, one of which is installed at the side opening of the conveying chamber (3) as an input tube, and the other is installed at the top opening of the conveying chamber (3) as an output tube.

3. The large flow fluoroplastic magnetic pump according to claim 2 is characterized in that: The control mechanism (5) further comprises a control handle (54) and a flange (55). The control handle (54) is mounted on the end of the control connecting rod (53). Rotating the control handle (54) provides power for rotating the control connecting rod (53), thereby driving the ball valve body (52) to rotate. The flange (55) is mounted on the top of the flow pipe body (51).

4. The high flow fluoroplastic magnetic pump according to claim 3 is characterized in that: The fluoroplastic magnetic pump further comprises a shielding mechanism (6), the shielding mechanism (6) comprising a shielding ring (61), a connecting bracket (62) and a side shell (63), the side of the circulation tube body (51) installed at the top opening of the conveying chamber (3) is symmetrically mounted with the side shell (63), the connecting bracket (62) is slidably mounted in the side shell (63), the shielding ring (61) is mounted at the bottom end of the connecting bracket (62), and a conveying groove having a radius consistent with the inner diameter of the circulation tube body (51) is provided in the shielding ring (61).

5. The high flow fluoroplastic magnetic pump according to claim 4 is characterized in that: The shielding mechanism (6) further comprises a screw rod (64), a movable end (65), a first bevel gear (66) and a second bevel gear (67); the side housing (63) is provided with two groups in total, wherein a screw rod (64) is rotatably mounted in one group of the side housings (63); a movable end (65) is threadedly mounted on the outside of the screw rod (64); the movable end (65) is connected to the end of one group of the connecting brackets (62); a first bevel gear (66) is mounted on the end of the screw rod (64); a second bevel gear (67) is mounted on the outside of the control connecting rod (53); and the second bevel gear (67) is meshedly connected with the first bevel gear (66).

6. The high flow fluoroplastic magnetic pump according to claim 5, characterized in that: The shielding mechanism (6) further comprises a guide rod (68) and a moving block (69); the guide rod (68) is installed inside the other set of side shells (63); the moving block (69) is slidably installed outside the guide rod (68); and the moving block (69) is connected to the end of the other set of connecting brackets (62).

7. The high flow fluoroplastic magnetic pump according to claim 1 is characterized in that: The stirring impeller (4) comprises a transmission rod (41), an impeller body (42), a squeeze cap (43) and a threaded end (44); the transmission rod (41) is mounted on the magnetic pump body (2); the impeller body (42) is slidably mounted on the outside of the transmission rod (41); the threaded end (44) is mounted on the top of the transmission rod (41); and the squeeze cap (43) is threadedly mounted on the outside of the threaded end (44).

8. The high flow fluoroplastic magnetic pump according to claim 6, characterized in that: The stirring impeller (4) further comprises a guide plate (45) and a fixed plate (46); the guide plate (45) is symmetrically mounted on the transmission rod (41); a slide groove for sliding with the guide plate (45) is provided on the impeller body (42); a fixed plate (46) is mounted on the side of the impeller body (42); and a threaded rod is threadedly mounted on the fixed plate (46) and the guide plate (45).

9. The high flow fluoroplastic magnetic pump according to claim 8, characterized in that: The impeller body (42) comprises a rear impeller disc (421), a front impeller disc (422) and impeller blades (423); the rear impeller disc (421) is installed outside the transmission rod (41); the front impeller disc (422) is arranged on the side of the rear impeller disc (421); impeller blades (423) are installed equidistantly between the rear impeller disc (421) and the front impeller disc (422); and a plurality of groups of impeller blades (423) are arranged in total.

10. The high flow fluoroplastic magnetic pump according to claim 1, characterized in that: The conveying chamber (3) is composed of a rotating cylinder and a conical guide cylinder. The rotating cylinder is installed at the end of the magnetic pump body (2) through a connecting flange, and the conical guide cylinder is installed at the opening of the rotating cylinder.

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