Multi-mode monopole variable-diameter water magnetizing device and use method thereof

Abstract

The invention discloses a multi-mode monopole variable-diameter water magnetizing device and a using method thereof, and belongs to the technical field of magnetized water preparing device.The multi-mode monopole variable-diameter water magnetizing device comprises a plurality of independent magnetizing structures, a plurality of telescopic locking structures and a plurality of permanent magnets, the independent magnetizing structures and the telescopic locking structures are annularly arranged and connected at intervals to form a polygonal structure, and the permanent magnets are arranged in the polygonal structure. A water supply structure is arranged in the polygonal structure; the ends, with the same magnetic poles, of the multiple permanent magnets are arranged on the multiple independent magnetization structures respectively, the other ends, with the same magnetic poles, of the multiple permanent magnets face the water supply structure, and the permanent magnets can be driven by the independent magnetization structures to be close to or away from the water supply structure. According to the multi-mode single-pole variable-diameter water magnetizing device and the use method thereof, any polygonal water magnetizing device can be assembled according to the requirements of different application scenes, so that the multi-mode single-pole variable-diameter water magnetizing device is adaptive to water supply structures with different materials and different pipe diameters, magnetized water with different parameters is prepared, and the preparation effect of the magnetized water is stable.

Description

Technical Field

[0001] The present invention relates to the technical field of magnetized water preparation devices, and in particular to a multi-modal single-pole variable-diameter magnetized water device and a use method thereof. Background Art

[0002] In the prior art, chemical admixtures or mineral admixtures are often added to concrete in order to improve the quality and performance of concrete as much as possible within a reasonable range. However, there are currently widespread problems such as insufficient reaction of admixtures, low early activity of mineral powder, and slow reaction rate. Existing excitation methods consume huge energy, have harsh conditions, have little effect, and also have a negative impact on the environment.

[0003] Current research shows that magnetized water has its unique advantages in improving concrete performance. The surface tension and conductivity of magnetized water obtained by magnetizing water in a magnetic field for a certain period of time will change, which can affect the hydration of cement minerals and promote its hydration process. It can be seen that magnetized water itself is an effective stimulation tool, which can accelerate the reaction rate of admixtures, mineral admixtures and cement hydration products, stimulate the early activity of mineral admixtures, and use magnetized water instead of tap water to prepare concrete containing admixtures and admixtures. It can improve the strength of concrete and reduce the rebound and dust concentration of concrete. Compared with the simple use of admixtures and mineral admixtures in concrete, the cost of using magnetized water to improve the performance of concrete is lower, green and environmentally friendly, and saves consumables.

[0004] However, the materials and diameters of the water-adding pipes used in the preparation of concrete in the concrete mixers, mixer trucks or concrete mixing stations involved in the preparation of concrete are different. The existing magnetized water devices are simply unable to adapt to the application, resulting in the difficulty in the application and popularization of magnetized water in the field of concrete preparation. At the same time, the existing magnetized water devices are easily affected by the more complex energy conditions of the external scene, and then "demagnetization" occurs, and the reliability and adaptability of the devices are poor. Moreover, the existing magnetization devices are mostly various combinations based on positive and negative magnets, and their magnetization effect will be offset due to the two poles facing each other, resulting in unsatisfactory magnetization effect. In addition, the existing magnetization research and development efforts are insufficient, resulting in a single product type, which is difficult to be used in combination with other equipment and devices, and has a small application range.

[0005] Therefore, how to design and provide a multi-modal single-pole variable-diameter magnetized water device is one of the problems that urgently need to be solved in the current field of high-quality and efficient preparation of concrete and its testing. Summary of the invention

[0006] In view of the problems existing in the prior art, the present invention provides a multi-modal single-pole variable-diameter magnetized water device and a method for using the same. The device has an assembleable and disassembled module and can be assembled into any polygonal magnetized water device according to the needs of different application scenarios, so as to adapt to water supply structures of different materials and different pipe diameters and prepare magnetized water with different parameters. The magnetized water preparation effect is stable, thereby further ensuring high-quality and efficient preparation of concrete. The device has a simple overall structure, is easy to assemble, is efficient and reliable, and is easy to maintain.

[0007] The technical solution of the present invention is as follows:

[0008] In a first aspect of the present invention, a multi-modal single-pole variable-diameter magnetized water device is provided, comprising a plurality of independent magnetizing structures, a plurality of telescopic locking structures and a plurality of permanent magnets, wherein the plurality of independent magnetizing structures and the plurality of telescopic locking structures are circumferentially spaced and connected to form a polygonal structure, wherein a water supply structure is arranged inside the polygonal structure; one ends of the same magnetic poles of the plurality of permanent magnets are respectively arranged on the plurality of independent magnetizing structures, and the other ends of the same magnetic poles of the plurality of permanent magnets are arranged toward the water supply structure, and the permanent magnets can approach or move away from the water supply structure under the drive of the independent magnetizing structures.

[0009] In some embodiments of the present invention, the multiple independent magnetization structures are respectively arranged at the corners of a polygonal structure composed of a plurality of independent magnetization structures and a plurality of telescopic locking structures arranged in an annular manner and connected; the multiple telescopic locking structures are respectively arranged at the edges of a polygonal structure composed of a plurality of independent magnetization structures and a plurality of telescopic locking structures arranged in an annular manner and connected.

[0010] In some embodiments of the present invention, the independent magnetization structure includes an independent magnetization structure core tube, one end of the independent magnetization structure core tube away from the water supply structure is connected to the independent magnetization structure base, the independent magnetization structure base is located inside the independent magnetization structure core tube and is provided with a spring fixed base, the spring fixed base is provided with a gas spring, the output end of the gas spring is connected to a magnetic attraction plate, and the magnetic attraction plate is connected to a permanent magnet.

[0011] In some embodiments of the present invention, a magnet positioning ring is provided at one end of the independent magnetization structure core tube away from the independent magnetization structure base, and the magnet positioning ring is sleeved on the permanent magnet.

[0012] In some embodiments of the present invention, the independent magnetization structure core tube is provided with an independent magnetization structure base and an adjustable distance fixing screw is provided on the outside of one end thereof, and the independent magnetization structure base is connected to the independent magnetization structure core tube via the adjustable distance fixing screw.

[0013] In some embodiments of the present invention, the telescopic locking structure includes a telescopic module, two locking modules are provided at both ends of the telescopic module, and the two locking modules are respectively connected to the independent magnetization structures at the two ends.

[0014] In some embodiments of the present invention, the telescopic module includes two telescopic arms, a telescopic structure core tube and a double-arm telescopic controller, the double-arm telescopic controller is arranged on the telescopic structure core tube, and the two telescopic arms are respectively arranged at both ends of the telescopic structure core tube; the double-arm telescopic controller can control the two telescopic arms to telescope.

[0015] In some embodiments of the present invention, the locking module includes two specific angle rotation controllers, two specific angle rotation locking structures and two parallel fixed locking plates; the two specific angle rotation controllers are respectively arranged on the core tube of the telescopic structure near the two ends of the two telescopic arms; the double-arm telescopic controller is arranged between the two specific angle rotation controllers to control the two specific angle rotation structures;

[0016] The two telescopic arms are respectively provided with two specific angle rotation locking structures at one end close to the independent magnetization structure, and the specific angle rotation locking structure is provided with a fixed locking plate at one end close to the independent magnetization structure, and the fixed locking plate is connected to the independent magnetization structure.

[0017] In some embodiments of the present invention, the outside of the permanent magnet is provided with anti-skid insulating material, and one end of the permanent magnet close to the water supply structure is provided with wear-resistant and anti-skid insulating material.

[0018] In a second aspect of the present invention, a method for using a multi-modal monopolar variable diameter magnetized water device is provided, comprising:

[0019] According to the required magnetic induction intensity and in combination with the size of the water supply structure, the plane geometric shape of the multi-mode single-pole variable-diameter magnetized water device is determined;

[0020] Assemble the independent magnetization structure. Specifically, fix the gas spring to the spring fixing base of the independent magnetization structure base; install the core tube magnet positioning ring on the independent magnetization structure core tube; connect the independent magnetization structure base and the independent magnetization structure core tube through the distance adjustment fixing screw; the permanent magnet passes through the core tube magnet positioning ring and is fixed on the magnetic attraction sheet by magnetic force; decide whether to adjust the distance adjustment fixing screw again according to the actual situation;

[0021] Determine the number of required independent magnetization structures according to the plane geometry of the multi-mode monopolar variable diameter magnetized water device;

[0022] According to the required magnetic induction intensity, combined with the size of the water supply structure and the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the telescopic locking structure angle and the telescopic locking structure telescopic amount are adjusted;

[0023] According to the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the number of entity telescopic locking structures is determined;

[0024] Using the assembled independent magnetization structure and the adjusted entity telescopic locking structure, a multi-modal single-pole variable-diameter magnetized water device is assembled according to the determined plane geometry;

[0025] The assembled multi-modal single-pole variable-diameter magnetized water device is installed on the water supply pipeline of a concrete mixer truck or the water supply pipe fittings of a concrete mixer to magnetize the water and prepare the required magnetized water.

[0026] One or more technical solutions of the present invention have the following beneficial effects:

[0027] The present invention provides a multi-modal monopolar variable diameter magnetized water device and a method for using the same. Based on the idea of ​​combined assembly, the assembly module is applied to the magnetized water preparation process. The device is efficient, reliable and flexible in application. In actual use, the device can be quickly combined into magnetized water devices of different specifications to flexibly adjust the magnetic induction intensity of the device, thereby systematically and efficiently preparing magnetized water of different parameters according to the needs of different tests, providing a convenient and efficient magnetized water preparation device for experimental research and field application.

[0028] The multi-modal monopolar variable diameter magnetized water device provided by the present invention is based on a unique magnet array and uses a single magnetic pole (all N poles or all S poles) to magnetize water. The magnetized water device developed using the magnet array technology has a stronger energy-gathering effect and penetration ability than the conventional bipolar design, and the magnetization efficiency and effect are difficult to achieve by ordinary magnetized water devices.

[0029] In addition, the device can be adapted to water pipes of different materials and diameters. The magnetized water device can be used alone or in combination with water pipes, equipment pipelines and water supply devices. It is easy to promote and is suitable for different application scenarios of magnetized water, meeting the new requirements of industry development.

[0030] The magnetized water prepared by the provided multi-modal monopolar variable diameter magnetized water device has a smaller particle size of water molecules, which can more easily penetrate the cement hydration product layer and continuously react with the internal cement particles to fully improve the comprehensive performance of concrete. Compared with adding chemical admixtures or mineral admixtures to concrete, the cost of using the multi-modal monopolar variable diameter magnetized water device to prepare magnetic water to improve the performance of concrete is very low, and the negative impact on the environment is reduced;

[0031] In addition, the method for using a multimodal monopolar variable diameter magnetized water device provided by the present invention systematically provides the process steps for preparing magnetized water using the multimodal monopolar variable diameter magnetized water device proposed by the present invention. The process is clear and the steps are clear, which better guides the preparation of high-quality magnetized water using the multimodal monopolar variable diameter magnetized water device and improves the preparation efficiency of magnetized water. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 This is a schematic diagram of the overall structure of the combined structure of the hexagonal monopolar variable diameter magnetized water device provided in Example 1 of the present invention;

[0033] Figure 2 This is an overall schematic diagram of the combined structure of the quadrilateral modal monopolar variable diameter magnetized water device provided in Example 1 of the present invention;

[0034] Figure 3 This is an overall schematic diagram of the combined structure of the pentagonal modal monopolar variable diameter magnetized water device provided in Example 1 of the present invention;

[0035] Figure 4 A schematic diagram of an independent magnetization structure in a multi-modal monopolar variable diameter magnetized water device provided in Example 1 of the present invention;

[0036] Figure 5 This is a schematic diagram of the assembly structure of the NdFeB permanent magnet provided in Example 1 of the present invention;

[0037] Figure 6 This is an overall schematic diagram of the physical locking structure provided in Example 1 of the present invention;

[0038] Figure 7 A schematic diagram of the extension and retraction of the physical locking structure provided in Example 1 of the present invention;

[0039] Figure 8 This is a schematic diagram of the application of the concrete mixer truck provided in Example 1 of the present invention;

[0040] Fig. 9 This is a schematic diagram of the application of the concrete mixer provided in Example 1 of the present invention.

[0041] In the figure: 1. Independent magnetization structure; 11. Independent magnetization structure base; 12. Adjustable pitch fixing screw; 13. Independent magnetization structure core tube; 14. Spring fixing base; 15. Gas spring; 16. Magnetic plate; 17. Core tube magnet positioning ring; 2. Telescopic locking structure; 21. Telescopic module; 211. Telescopic arm; 212. Telescopic structure core tube; 22. Double-arm telescopic controller; 23. Specific angle rotation controller; 24. Specific angle rotation telescopic locking structure; 25. Fixed locking plate; 3. Permanent magnet; 31. Anti-slip insulating material; 32. Wear-resistant and anti-slip insulating material. DETAILED DESCRIPTION

[0042] The present invention will be further described below in conjunction with the accompanying drawings and embodiments.

[0043] Example 1

[0044] In a typical embodiment of the present invention, a multi-modal single-pole variable-diameter magnetized water device is proposed, comprising a plurality of independent magnetizing structures 1, a plurality of telescopic locking structures 2 and a plurality of permanent magnets 3. The plurality of independent magnetizing structures 1 and the plurality of telescopic locking structures 2 are arranged in an annular manner and connected to form a polygonal structure, and a water supply structure is arranged inside the polygonal structure; one ends of the same magnetic poles of the plurality of permanent magnets 3 are respectively arranged on the plurality of independent magnetizing structures 1, and the other ends of the same magnetic poles of the plurality of permanent magnets 3 are arranged toward the water supply structure, and the permanent magnet 3 can be driven by the independent magnetizing structure 1 to approach or move away from the water supply structure.

[0045] The multi-modal single-pole variable-diameter magnetized water device provided by the present invention is based on a unique magnet array. One ends of the same magnetic poles of multiple permanent magnets 3 are respectively arranged on multiple independent magnetization structures 1, and the other ends of the same magnetic poles of multiple permanent magnets 3 are arranged toward the water supply structure. Water is magnetized using a single magnetic pole that is all N-pole or all S-pole. The magnetized water device developed using this magnet array technology has a stronger energy gathering effect and penetration ability than the conventional bipolar design, and the magnetization efficiency and effect are difficult to achieve with ordinary magnetized water devices.

[0046] Moreover, the permanent magnet 3 can be moved closer to or away from the water supply structure under the drive of the independent magnetizing structure 1, so that the device can adapt to water pipes of different materials and diameters. The magnetized water device can be used alone or in combination with water pipes, equipment pipelines and water supply devices. It is easy to promote and is suitable for different application scenarios of magnetized water, meeting the new requirements of industry development.

[0047] The magnetized water prepared by the provided multi-modal monopole variable diameter magnetized water device has a smaller particle size of water molecules and can more easily penetrate the hydration product layer of cement, continuously undergoing hydration reactions with internal cement particles, thereby comprehensively improving the comprehensive performance of concrete. Compared with adding chemical admixtures or mineral admixtures to concrete, the cost of using a multi-modal monopole variable diameter magnetized water device to prepare magnetic water to improve concrete performance is very low, and reduces negative impacts on the environment.

[0048] Furthermore, the multiple independent magnetizing structures 1 are respectively arranged at the corners of a polygonal structure composed of a multiple independent magnetizing structures 1 and a multiple telescopic locking structures 2 arranged in an annular manner and connected; the multiple telescopic locking structures 2 are respectively arranged at the edges of a polygonal structure composed of a multiple independent magnetizing structures 1 and a multiple telescopic locking structures 2 arranged in an annular manner and connected.

[0049] like Figure 1 , Figure 2 , Figure 3 As shown, multiple independent magnetizing structures 1, multiple telescopic locking structures 2 and multiple permanent magnets 3 can determine the planar geometric shape of the multi-modal single-pole variable diameter magnetized water device according to the required magnetic induction intensity and combined with the size of the water supply structure, and are assembled according to the planar geometric shape. The planar geometric shape includes but is not limited to quadrilaterals, pentagons and hexagons.

[0050] Based on the idea of ​​combined assembly, the assembly module is applied to the magnetized water preparation process, which is efficient, reliable and flexible in application. In actual use, it can be quickly combined into magnetized water devices of different specifications to flexibly adjust the magnetic induction intensity of the device, so as to systematically and efficiently prepare magnetized water of different parameters according to the needs of different experiments, and provide a convenient and efficient magnetized water preparation device for experimental research and field application. In this embodiment, the permanent magnet 3 can adopt a neodymium iron boron permanent magnet 3, which has a strong magnetic force and a stable effect.

[0051] Further, such as Figure 4 As shown, the independent magnetization structure 1 includes an independent magnetization structure core tube 13, and one end of the independent magnetization structure core tube 13 away from the water supply structure is connected to the independent magnetization structure base 11, and the independent magnetization structure base 11 is located inside the independent magnetization structure core tube 13 and is provided with a spring fixed base 14, and the spring fixed base 14 is provided with a gas spring 15, and the output end of the gas spring 15 is connected to the magnetic induction sheet 16, and the magnetic induction sheet 16 is connected to the permanent magnet 3.

[0052] Furthermore, a magnet positioning ring is provided at one end of the independent magnetization structure core tube 13 away from the independent magnetization structure base 11 , and the magnet positioning ring is sleeved on the permanent magnet 3 .

[0053] Furthermore, the independent magnetization structure core tube 13 is provided with a distance adjustment fixing screw 12 on the outside of one end of the independent magnetization structure base 11 , and the independent magnetization structure base 11 is connected to the independent magnetization structure core tube 13 via the distance adjustment fixing screw 12 .

[0054] In this embodiment, the diameter change of the independent magnetizing structure 1 is realized by means of the gas spring 15; the magnetic attraction sheet 16 is located at the end of the telescopic rod of the gas spring 15 away from the spring fixed base 14, and the core tube magnet positioning ring 17 is installed at the end of the core tube 13 of the independent magnetizing structure away from the base of the independent magnetizing structure 1; the gas spring 15 is fixed to the spring fixed base 14 of the independent magnetizing structure base 11; the core tube magnet positioning ring 17 is installed on the core tube of the independent magnetizing structure 1; the independent magnetizing structure base 11 and the independent magnetizing structure core tube 13 are connected by the distance adjustment fixing screw 12; the NdFeB permanent magnet 3 passes through the core tube magnet positioning ring 17 and is fixed on the magnetic attraction sheet 16 by magnetic force; whether it needs to be adjusted again is determined according to the actual situation The distance adjusting fixing screw 12 is used to assemble an independent magnetizing structure 1. In actual use, the telescopic function of the gas spring 15 is used to adapt to different pipe diameters. The outside of the independent magnetizing structure core tube 13 can always meet the fixing method of the parallel fixing locking plate 25 of the entity telescopic locking structure 2, and the shape is limited to a rectangular parallelepiped. The cross-sectional shape of the magnetic sheet 16 is not limited to regular shapes such as circles, rectangles, and squares. The outer ring shape of the core tube magnet positioning ring 17 of the independent magnetizing structure 1 is the same as the cross-sectional shape of the core tube 13 of the independent magnetizing structure, and the inner ring shape is the same as the cross-sectional shape of the NdFeB permanent magnet 3. The independent magnetizing structure base 11, the independent magnetizing structure core tube 13, and the core tube magnet positioning ring 17 are explosion-proof shield magnetic materials.

[0055] Further, such as Figure 6 , Figure 7 As shown, the telescopic locking structure 2 includes a telescopic module 21, two locking modules are provided at both ends of the telescopic module 21, and the two locking modules are respectively connected to the independent magnetized structures 1 at the two ends.

[0056] Furthermore, the telescopic module 21 includes two telescopic arms 211, a telescopic structure core tube 212 and a double-arm telescopic controller 22. The double-arm telescopic controller 22 is arranged on the telescopic structure core tube 212, and the two telescopic arms 211 are respectively arranged at both ends of the telescopic structure core tube 212; the double-arm telescopic controller 22 can control the two telescopic arms 211 to telescope.

[0057] Furthermore, the locking module includes two specific angle rotation controllers 23, two specific angle rotation telescopic locking structures 24 and two parallel fixed locking plates 25; the two specific angle rotation controllers 23 are respectively arranged on the telescopic structure core tube 212 near the two ends of the two telescopic arms 211; the double-arm telescopic controller 22 is arranged between the two specific angle rotation controllers 23 to control the two specific angle rotation structures;

[0058] Two telescopic arms 211 are respectively provided with two specific angle rotating telescopic locking structures 24 at one end close to the independent magnetizing structure 1 . The specific angle rotating telescopic locking structure 24 is provided with a fixed locking plate 25 at one end close to the independent magnetizing structure 1 . The fixed locking plate 25 is connected to the independent magnetizing structure 1 .

[0059] In this embodiment, the telescopic structure includes a telescopic arm 211 and a telescopic structure core tube 212; the shape of the telescopic structure core tube 212 of the telescopic structure is limited to a rectangular parallelepiped; the telescopic arms 211 are located at both ends of the telescopic structure core tube 212 and are controlled by a double-arm telescopic controller 22; the double-arm telescopic controller 22 is installed at the upper center position of the telescopic structure core tube 212 and has three gears: synchronous, reset and asynchronous; when the double-arm telescopic controller 22 is in the synchronous gear, the telescopic arms 211 at both ends of the telescopic structure core tube 212 are telescoped synchronously, and the telescopic conditions are the same; when the gear is reset, the telescopic arms 211 at both ends of the telescopic structure core tube 212 immediately return to the initial position; when the gear is out of position, the telescopic arms 211 at both ends of the telescopic structure core tube 212 are no longer telescoped synchronously, and the telescopic conditions are no longer the same.

[0060] The specific angle rotation controller 23 is located on the left and right sides of the upper part of the telescopic structure core tube 212, with a double-arm telescopic controller 22 in the middle, indicating 7 gears of 0, 3 to 8, to control a similar specific angle rotation telescopic locking structure 24; one end of the specific angle rotation telescopic locking structure 24 is fixed on the telescopic arm 211, and the other end is equipped with a parallel fixed locking plate 25; the parallel fixed locking plate 25 can be fixed on the independent magnetization structure core tube 13, and its shape is limited to a rectangle, with a length of 1 / 2 of the independent magnetization structure core tube 13, and a width equal to the independent magnetization structure core tube 13.

[0061] Determine the plane geometry of the multi-modal monopolar variable-diameter magnetized water device, adjust the angle of the physical telescopic locking structure 2, adjust the specific angle rotation controller 23 to gear 0, reset the telescopic arm 211, and adjust the specific angle rotation controller 23 to the corresponding gear 3 to gear 8 according to the plane geometry of the multi-modal monopolar variable-diameter magnetized water device; adjust the length of the physical telescopic locking structure 2, adjust the gear of the double-arm telescopic controller 22 to reset, and return the telescopic arms 211 on both sides to the initial position, adjust the gear of the double-arm telescopic controller 22 to synchronous or asynchronous, and determine the telescopic amount of the telescopic arm 211 according to the required magnetic induction intensity and the actual conditions such as the pipe diameter; the physical telescopic locking structure 2 is adjusted in this way.

[0062] Further, such as Figure 5 As shown, the outside of the permanent magnet 3 is provided with an anti-skid insulating material 31, and one end of the permanent magnet 3 close to the water supply structure is provided with a wear-resistant and anti-skid insulating material 32.

[0063] In this embodiment, the NdFeB permanent magnet 3 is accurately fixed in position by the core tube magnet positioning ring 17, and the same pole is either the N pole or the S pole and is adsorbed on the magnetic attraction plate 16 by magnetic force, and single magnetic pole magnetization is achieved by relying on this structure; the shape is not limited to regular polygons such as rectangles and cylinders; the outside of the NdFeB permanent magnet 3 is wrapped with a layer of anti-slip insulating material 31 of a certain thickness, and the end in contact with the water pipe is provided with wear-resistant and anti-slip insulating material 32.

[0064] Example 2

[0065] Concrete preparation usually involves concrete mixers, mixer trucks or concrete mixing stations. The operational procedures for preparing concrete are roughly the same, but there are obvious differences in the way water is added during the preparation process. For example, an automatic concrete loading mixer truck can automatically add water through a water tank, while a concrete mixer requires manual control of the amount of water used for concrete mixing. The materials and diameters of the water-adding pipes used are different, and the existing magnetized water devices cannot be used at all, resulting in the difficulty in popularizing magnetized water in the field of concrete preparation. The multi-modal single-pole variable-diameter magnetized water device provided by the present invention can be assembled into any polygonal magnetized water device according to the requirements of different application scenarios, and can be adapted to water-passing pipes of different materials and different diameters to prepare magnetized water with different parameters.

[0066] In a second aspect of the present invention, Figure 8 , Fig. 9 As shown, a method for using a multi-modal monopolar variable diameter magnetized water device is provided, comprising:

[0067] According to the required magnetic induction intensity and in combination with the size of the water supply structure, the plane geometric shape of the multi-mode single-pole variable-diameter magnetized water device is determined;

[0068] Assemble the independent magnetization structure 1. Specifically, fix the gas spring 15 to the spring fixing base 14 of the independent magnetization structure base 11; install the core tube magnet positioning ring 17 on the independent magnetization structure core tube 13; connect the independent magnetization structure base 11 and the independent magnetization structure core tube 13 through the distance adjustment fixing screw 12; the permanent magnet 3 passes through the core tube magnet positioning ring 17 and is fixed on the magnetic attraction sheet 16 by magnetic force; decide whether to adjust the distance adjustment fixing screw 12 again according to the actual situation;

[0069] According to the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the number of required independent magnetization structures 1 is determined;

[0070] According to the required magnetic induction intensity, combined with the size of the water supply structure and the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the angle of the telescopic locking structure 2 and the telescopic amount of the telescopic locking structure 2 are adjusted;

[0071] According to the plane geometric shape of the multi-modal single-pole variable-diameter magnetized water device, the number of the physical telescopic locking structures 2 is determined;

[0072] Utilizing the assembled independent magnetization structure 1 and the adjusted entity telescopic locking structure 2, a multi-modal monopolar variable diameter magnetized water device is assembled according to the determined plane geometry;

[0073] The assembled multi-modal single-pole variable-diameter magnetized water device is installed on the water supply pipeline of a concrete mixer truck or the water supply pipe fittings of a concrete mixer to magnetize the water and prepare the required magnetized water.

[0074] In this embodiment, the following steps are specifically included:

[0075] S1. Check the reliability of each device to ensure normal use;

[0076] S2. Determine the shape of the magnetized water device: Determine the plane geometric shape of the multi-modal single-pole variable-diameter magnetized water device according to the required magnetic induction intensity and the actual conditions such as the pipe diameter;

[0077] S3. Assemble the independent magnetization structure: fix the gas spring to the spring fixing base of the independent magnetization structure base; install the core tube magnet positioning ring on the independent magnetization structure core tube; connect the independent magnetization structure base and the independent magnetization structure core tube through the distance adjustment fixing screw; the NdFeB permanent magnet passes through the core tube magnet positioning ring and is fixed on the iron sheet magnetization sheet by magnetic force; decide whether to adjust the distance adjustment fixing screw again according to the actual situation;

[0078] S4, determining the required number of independent magnetization structures according to the planar geometry of the multi-modal monopolar variable diameter magnetized water device; repeating step S3 until the required number of independent magnetization structures is met;

[0079] S5. Adjust the angle of the physical telescopic locking structure: adjust the specific angle rotation controller to gear 0, at which time the specific angle rotation device is not started; according to the required magnetic induction intensity and the actual situation such as the pipe diameter, determine the plane geometry of the multi-modal single-pole variable diameter magnetized water device, and adjust the specific angle rotation controller to the corresponding gear 3 to gear 8;

[0080] S6. Adjust the length of the physical telescopic locking structure: adjust the gear position of the double-arm telescopic controller to reset, and the telescopic arms on both sides return to the initial position; adjust the gear position of the double-arm telescopic controller to synchronous or asynchronous, and determine the telescopic amount of the telescopic arm according to the required magnetic induction intensity and the actual situation such as the pipe diameter;

[0081] S7, determining the required number of physical telescopic locking structures according to the plane geometric shape of the multi-modal single-pole variable-diameter magnetized water device; repeating steps S5 and S6 until the required number of physical telescopic locking structures is met;

[0082] S8. Using the assembled independent magnetization structure and the adjusted entity telescopic locking structure, assemble a multi-modal monopolar variable diameter magnetized water device according to the determined plane geometry;

[0083] The assembled multi-modal single-pole variable-diameter magnetized water device is installed on the water supply pipeline of a concrete mixer truck or the water supply pipe fittings of a concrete mixer to magnetize the water and prepare the required magnetized water.

[0084] The present invention provides a method for using a multi-modal monopolar variable diameter magnetized water device, which systematically provides the process steps for preparing magnetized water using the multi-modal monopolar variable diameter magnetized water device proposed by the present invention. The process is clear and the steps are well-defined, which better guides the preparation of high-quality magnetized water using the multi-modal monopolar variable diameter magnetized water device and improves the preparation efficiency of magnetized water.

[0085] Although the above describes the specific implementation mode of the present invention in conjunction with the accompanying drawings, it is not intended to limit the scope of protection of the present invention. Those skilled in the art should understand that various modifications or variations that can be made by those skilled in the art on the basis of the technical solution of the present invention without creative work are still within the scope of protection of the present invention.

Claims

1. A multi-mode monopolar variable diameter magnetized water device, characterized in that: The invention comprises a plurality of independent magnetizing structures, a plurality of telescopic locking structures and a plurality of permanent magnets. The plurality of independent magnetizing structures and the plurality of telescopic locking structures are arranged in an annular manner and connected to form a polygonal structure. A water supply structure is arranged inside the polygonal structure. One ends of the plurality of permanent magnets with the same magnetic poles are respectively arranged on the plurality of independent magnetizing structures, and the other ends of the plurality of permanent magnets with the same magnetic poles are arranged toward the water supply structure. The permanent magnets can approach or move away from the water supply structure under the drive of the independent magnetizing structures.

2. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 1, characterized in that: The multiple independent magnetizing structures are respectively arranged at the corners of a polygonal structure composed of a plurality of independent magnetizing structures and a plurality of telescopic locking structures arranged in an annular manner and connected; the multiple telescopic locking structures are respectively arranged at the sides of a polygonal structure composed of a plurality of independent magnetizing structures and a plurality of telescopic locking structures arranged in an annular manner and connected.

3. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 1, characterized in that: The independent magnetization structure comprises an independent magnetization structure core tube, one end of the independent magnetization structure core tube away from the water supply structure is connected to the independent magnetization structure base, the independent magnetization structure base is located inside the independent magnetization structure core tube and is provided with a spring fixed base, the spring fixed base is provided with a gas spring, the output end of the gas spring is connected to a magnetic attraction sheet, and the magnetic attraction sheet is connected to a permanent magnet.

4. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 3, characterized in that: A magnet positioning ring is arranged at one end of the independent magnetization structure core tube away from the independent magnetization structure base, and the magnet positioning ring is sleeved on the permanent magnet.

5. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 3, characterized in that: The independent magnetization structure core tube is provided with an independent magnetization structure base, and a distance adjustment fixing screw is provided on the outside of one end of the independent magnetization structure base, and the independent magnetization structure base is connected to the independent magnetization structure core tube through the distance adjustment fixing screw.

6. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 1, characterized in that: The telescopic locking structure comprises a telescopic module, two locking modules are arranged at two ends of the telescopic module, and the two locking modules are respectively connected to the independent magnetization structures at the two ends.

7. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 6, characterized in that: The telescopic module includes two telescopic arms, a telescopic structure core tube and a double-arm telescopic controller. The double-arm telescopic controller is arranged on the telescopic structure core tube, and the two telescopic arms are respectively arranged at the two ends of the telescopic structure core tube; the double-arm telescopic controller can control the two telescopic arms to telescope.

8. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 7, characterized in that: The locking module includes two specific angle rotation controllers, two specific angle rotation locking structures and two parallel fixed locking plates; the two specific angle rotation controllers are respectively arranged on the core tube of the telescopic structure near the two ends of the two telescopic arms; the double-arm telescopic controller is arranged between the two specific angle rotation controllers to control the two specific angle rotation structures; The two telescopic arms are respectively provided with two specific angle rotation locking structures at one end close to the independent magnetization structure, and the specific angle rotation locking structure is provided with a fixed locking plate at one end close to the independent magnetization structure, and the fixed locking plate is connected to the independent magnetization structure.

9. A multi-mode monopolar variable diameter magnetized water device as claimed in claim 1, characterized in that: The outside of the permanent magnet is provided with anti-skid insulating material, and one end of the permanent magnet close to the water supply structure is provided with wear-resistant anti-skid insulating material.

10. A method for using a multi-modal monopolar variable diameter magnetized water device according to any one of claims 1 to 9, characterized in that: include: According to the required magnetic induction intensity and in combination with the size of the water supply structure, the plane geometric shape of the multi-mode single-pole variable-diameter magnetized water device is determined; Assemble the independent magnetization structure. Specifically, fix the gas spring to the spring fixing base of the independent magnetization structure base; install the core tube magnet positioning ring on the independent magnetization structure core tube; connect the independent magnetization structure base and the independent magnetization structure core tube through the distance adjustment fixing screw; the permanent magnet passes through the core tube magnet positioning ring and is fixed on the magnetic attraction sheet by magnetic force; decide whether to adjust the distance adjustment fixing screw again according to the actual situation; Determine the number of required independent magnetization structures according to the plane geometry of the multi-mode monopolar variable diameter magnetized water device; According to the required magnetic induction intensity, combined with the size of the water supply structure and the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the telescopic locking structure angle and the telescopic locking structure telescopic amount are adjusted; According to the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the number of entity telescopic locking structures is determined; Using the assembled independent magnetization structure and the adjusted entity telescopic locking structure, a multi-modal single-pole variable-diameter magnetized water device is assembled according to the determined plane geometry; The assembled multi-modal single-pole variable-diameter magnetized water device is installed on the water supply pipeline of a concrete mixer truck or the water supply pipe fittings of a concrete mixer to magnetize the water and prepare the required magnetized water.

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