A multi-modal single pole variable diameter water magnetization device and method of use thereof

Abstract

The application discloses a kind of multimodal monopole variable-diameter magnetized water device and its use method, belong to magnetized water preparation device technical field, including multiple independent magnetization structures, multiple telescopic locking structures and multiple permanent magnets, multiple independent magnetization structures and multiple telescopic locking structures are connected and are arranged in polygonal structure with interval around, water supply structure is arranged in the polygonal structure;The one end of the same magnetic pole of the multiple permanent magnets is arranged on multiple independent magnetization structures respectively, the other end of the same magnetic pole of the multiple permanent magnets is arranged towards water supply structure, and the permanent magnet can be driven by independent magnetization structure to approach or away from water supply structure.The multimodal monopole variable-diameter magnetized water device and its use method provided in the application 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, prepare magnetized water of different parameters, and the magnetized water preparation effect is stable.

Description

TECHNICAL FIELD

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

[0002] In the prior art, chemical admixtures or mineral admixtures are often added to concrete 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 activation methods are energy-intensive, harsh, and have little effect, and also have a negative impact on the environment.

[0003] Current research shows that magnetized water has unique advantages in improving the performance of concrete. 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 thus promote the hydration process. Therefore, magnetized water itself is an effective activation tool that can accelerate the reaction rate of admixtures, mineral admixtures, and cement hydration products, and activate the early activity of mineral admixtures. Using magnetized water instead of tap water to prepare concrete containing admixtures and admixtures can improve concrete strength, reduce concrete rebound and dust concentration. Compared to simply using admixtures and mineral admixtures in concrete, using magnetized water to improve concrete performance is more cost-effective, environmentally friendly, and saves materials.

[0004] However, the concrete preparation involves concrete mixers, mixing trucks, or concrete mixing stations, and the materials and diameters of the water pipes used in the preparation process are different. The existing magnetized water device cannot be adapted and applied, making it difficult to apply and popularize magnetized water in the field of concrete preparation. At the same time, the existing magnetized water device is easily affected by the complex energy of the external scene, which can cause "demagnetization", and the device has poor reliability and adaptability. Moreover, the existing magnetized device is mostly based on various combinations of positive and negative magnets, and the magnetization effect will be offset due to the opposite polarity of the two poles, resulting in unsatisfactory magnetization effect. In addition, the lack of research and development of existing magnetized devices results in a single product type that is difficult to combine with other equipment and devices, limiting the scope of application.

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

[0006] In view of the problems in the prior art, the application provides a multi-modal single-pole variable-diameter magnetized water device and a use method thereof, which has a detachable module, can be assembled into an arbitrary polygonal magnetized water device according to the needs of different application scenarios, is suitable for water supply structures of different materials and different pipe diameters, and can prepare magnetized water with different parameters, so that the preparation effect of the magnetized water is stable, and the high-quality and efficient preparation of concrete is further ensured; the device has a simple overall structure, is easy to assemble, is efficient and reliable, and is convenient to maintain.

[0007] The technical scheme of the application is as follows:

[0008] In a first aspect of the application, a multi-modal single-pole variable-diameter magnetized water device is provided, comprising a plurality of independent magnetization structures, a plurality of telescopic locking structures and a plurality of permanent magnets, the plurality of independent magnetization structures and the plurality of telescopic locking structures are arranged and connected in a ring direction at intervals to form a polygonal structure, and a water supply structure is arranged inside the polygonal structure; one end of the same magnetic pole of the plurality of permanent magnets is arranged on the plurality of independent magnetization structures, respectively, and the other end of the same magnetic pole of the plurality of permanent magnets is arranged towards the water supply structure, and the permanent magnets can be driven by the independent magnetization structures to approach or move away from the water supply structure.

[0009] In some embodiments of the application, the plurality of independent magnetization structures are arranged at the positions of the corners of the polygonal structure formed by the plurality of independent magnetization structures and the plurality of telescopic locking structures arranged and connected in a ring direction at intervals; and the plurality of telescopic locking structures are arranged at the positions of the sides of the polygonal structure formed by the plurality of independent magnetization structures and the plurality of telescopic locking structures arranged and connected in a ring direction at intervals.

[0010] In some embodiments of the application, the independent magnetization structure comprises an independent magnetization structure core cylinder, one end of the independent magnetization structure core cylinder away from the water supply structure is connected with an independent magnetization structure base, the independent magnetization structure base is arranged inside the independent magnetization structure core cylinder and is provided with a spring fixing base, a gas spring is arranged on the spring fixing base, an output end of the gas spring is connected with a magnetic attraction piece, and the magnetic attraction piece is connected with the permanent magnet.

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

[0012] In some embodiments of the application, the independent magnetization structure core cylinder is provided with a distance adjusting fixing screw at one end of the independent magnetization structure base, and the independent magnetization structure base is connected with the independent magnetization structure core cylinder through the distance adjusting fixing screw.

[0013] In some embodiments of the present application, the telescopic locking structure comprises a telescopic module, two locking modules are arranged at the two ends of the telescopic module, and the two locking modules are respectively connected with the two independent magnetization structures.

[0014] In some embodiments of the present application, the telescopic module comprises two telescopic arms, a telescopic structure core barrel and a double-arm telescopic controller, the double-arm telescopic controller is arranged on the telescopic structure core barrel, and the two telescopic arms are respectively arranged at the two ends of the telescopic structure core barrel; the double-arm telescopic controller can control the two telescopic arms to perform telescopic operation.

[0015] In some embodiments of the present application, the locking module comprises 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 telescopic structure core barrel near the two ends of the two telescopic arms; the double-arm telescopic controller is arranged between the two specific angle rotation controllers and controls the two specific angle rotation structures.

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

[0017] In some embodiments of the present application, the outer part of the permanent magnet is provided with anti-skid insulation material, and the one end of the permanent magnet near the water supply structure is provided with wear-resistant anti-skid insulation material.

[0018] In the second aspect of the present application, a use method of the multi-modal single-pole variable-diameter magnetized water device is provided, comprising:

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

[0020] The independent magnetization structure is assembled, specifically, the gas spring is fixed to the spring fixing base of the independent magnetization structure base; the core barrel magnet positioning ring is installed on the independent magnetization structure core barrel; the distance adjusting fixing screw is used to connect the independent magnetization structure base and the independent magnetization structure core barrel; the permanent magnet passes through the core barrel magnet positioning ring and is fixed on the magnet attracting sheet by magnetic force; whether the distance adjusting fixing screw needs to be adjusted again is determined according to the actual situation;

[0021] According to the planar geometric shape of the multi-modal single-pole variable-diameter magnetized water device, the required number of independent magnetization structures is determined;

[0022] According to the required magnetic induction intensity, the size of the water supply structure and the planar geometric shape of the multi-modal single-pole variable-diameter magnetized water device, the angle of the telescopic locking structure and the telescopic amount of the telescopic locking structure are adjusted.

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

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

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

[0026] The one or more technical solutions of the present application have the following beneficial effects:

[0027] The multi-modal single-pole variable-diameter magnetized water device and the using method thereof provided by the present application are based on the combination and assembly idea, apply the assembly module to the magnetized water preparation process, are efficient and reliable, and are flexible in application. In actual use, different specifications of magnetized water devices can be quickly combined to flexibly adjust the magnetic induction intensity of the device, so that magnetized water with different parameters can be efficiently prepared according to the needs of different tests, and a convenient and efficient magnetized water preparation device is provided for test research and field application.

[0028] The multi-modal single-pole variable-diameter magnetized water device provided by the present application is based on a unique magnet array, uses a single magnetic pole (all N poles or all S poles) to magnetize water, and has stronger energy concentration effect and penetration ability than conventional bipolar designs. The magnetized water device developed by using the magnet array technology has a magnetization efficiency and effect that ordinary magnetized water devices cannot match.

[0029] Moreover, the device can be adapted to water passing pipes of different materials and diameters, and the magnetized water device can be used alone or in combination with water passing pipes, equipment pipelines and water supply devices. The device has low popularization difficulty, is suitable for different magnetized water application scenarios, and meets new requirements of industry development.

[0030] The magnetized water prepared by the multi-modal single-pole variable-diameter magnetized water device has smaller water molecule group particle size, can more easily penetrate the hydration product layer of cement, continuously reacts with internal cement particles, and comprehensively improves the comprehensive performance of concrete. Compared with adding chemical admixtures or mineral admixtures to concrete, the cost of using the multi-modal single-pole variable-diameter magnetized water device to prepare magnetized water to improve the performance of concrete is very low, and the negative impact on the environment is reduced.

[0031] In addition, the use method of the multi-modal single-pole variable-diameter magnetized water device provided by the application systematically gives the flow steps of preparing magnetized water by using the multi-modal single-pole variable-diameter magnetized water device, the flow is clear, the steps are clear, and the preparation of high-quality magnetized water by using the multi-modal single-pole variable-diameter magnetized water device is better guided, and the preparation efficiency of the magnetized water is improved. BRIEF DESCRIPTION OF DRAWINGS

[0032] Figure 1 The overall schematic view of the hexagonal modal single-pole variable-diameter magnetized water device combination structure provided in embodiment 1 of the application is shown in the figure.

[0033] Figure 2 The overall schematic view of the quadrilateral modal single-pole variable-diameter magnetized water device combination structure provided in embodiment 1 of the application is shown in the figure.

[0034] Figure 3 The overall schematic view of the pentagonal modal single-pole variable-diameter magnetized water device combination structure provided in embodiment 1 of the application is shown in the figure.

[0035] Figure 4 The schematic view of the independent magnetization structure in the multi-modal single-pole variable-diameter magnetized water device provided in embodiment 1 of the application is shown in the figure.

[0036] Figure 5 The assembly structure schematic view of the neodymium-iron-boron permanent magnet provided in embodiment 1 of the application is shown in the figure.

[0037] Figure 6 The overall schematic view of the physical locking structure provided in embodiment 1 of the application is shown in the figure.

[0038] Figure 7 The extension schematic view of the physical locking structure provided in embodiment 1 of the application is shown in the figure.

[0039] Figure 8 The application schematic view of the concrete mixer provided in embodiment 1 of the application is shown in the figure.

[0040] Figure 9 The application schematic view of the concrete mixer provided in embodiment 1 of the application is shown in the figure.

[0041] In the figure: 1, independent magnetization structure; 11, independent magnetization structure base; 12, distance adjustment fixed screw; 13, independent magnetization structure core cylinder; 14, spring fixed base; 15, gas spring; 16, magnetic induction sheet; 17, core cylinder magnet positioning ring; 2, extension locking structure; 21, extension module; 211, extension arm; 212, extension structure core cylinder; 22, double-arm extension controller; 23, specific angle rotation controller; 24, specific angle rotation extension locking structure; 25, fixed locking plate; 3, permanent magnet; 31, anti-slip insulating material; 32, wear-resistant anti-slip insulating material. DETAILED DESCRIPTION

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

[0043] Embodiment 1

[0044] In an exemplary embodiment of the application, a multi-modal single-pole variable-diameter water magnetization device is provided, comprising a plurality of independent magnetization structures 1, a plurality of telescopic locking structures 2 and a plurality of permanent magnets 3, the plurality of independent magnetization structures 1 and the plurality of telescopic locking structures 2 are arranged and connected in a polygonal structure in a ring direction at intervals, and a water supply structure is arranged inside the polygonal structure; one end of the same magnetic pole of the plurality of permanent magnets 3 is arranged on the plurality of independent magnetization structures 1 respectively, and the other end of the same magnetic pole of the plurality of permanent magnets 3 is arranged towards the water supply structure, and the permanent magnets 3 can be driven by the independent magnetization structures 1 to approach or move away from the water supply structure.

[0045] The multi-modal single-pole variable-diameter water magnetization device provided by the application is based on a unique magnet array, one end of the same magnetic pole of the plurality of permanent magnets 3 is arranged on the plurality of independent magnetization structures 1 respectively, and the other end of the same magnetic pole of the plurality of permanent magnets 3 is arranged towards the water supply structure, and the water is magnetized by using a single magnetic pole which is either N pole or S pole, and the magnetization water device developed by using the magnet array technology has stronger energy concentration effect and penetration ability than the conventional bipolar design, and the magnetization efficiency and effect of the magnetization water device are difficult to achieve by ordinary magnetization water devices.

[0046] And the permanent magnets 3 can be driven by the independent magnetization structures 1 to approach or move away from the water supply structure, so that the device can adapt to water pipes of different materials and diameters, and the magnetization water device can be used alone or in combination with water pipes, equipment pipelines and water supply devices, which has low popularization difficulty and is suitable for different application scenarios of magnetized water and meets the new requirements of industry development.

[0047] The magnetized water prepared by the multi-modal single-pole variable-diameter water magnetization device has smaller water molecule group particle size, is more easily penetrated through the hydration product layer of cement, continuously reacts with internal cement particles, and comprehensively improves the comprehensive performance of concrete. Compared with adding chemical admixtures or mineral admixtures in concrete, the cost of using the multi-modal single-pole variable-diameter water magnetization device to prepare magnetized water to improve the performance of concrete is very low, and the negative impact on the environment is reduced.

[0048] Further, the plurality of independent magnetization structures 1 are arranged at the positions of the corners of the polygonal structure formed by the plurality of independent magnetization structures 1 and the plurality of telescopic locking structures 2 arranged and connected in a ring direction at intervals; and the plurality of telescopic locking structures 2 are arranged at the positions of the sides of the polygonal structure formed by the plurality of independent magnetization structures 1 and the plurality of telescopic locking structures 2 arranged and connected in a ring direction at intervals.

[0049] As Figure 1 , Figure 2 ,Figure 3 As shown, the plurality of independent magnetization structures 1, the plurality of telescopic locking structures 2 and the plurality of permanent magnets 3 can determine the planar geometry of the multi-modal single-pole variable-diameter magnetized water device according to the required magnetic induction strength and in combination with the size of the water supply structure, and the planar geometry includes but is not limited to quadrilateral, pentagon and hexagon.

[0050] Based on the combination assembly idea, the assembly module is applied to the magnetized water preparation process, which is efficient and reliable, flexible in application, and can be quickly combined into different specifications of magnetized water devices in actual use, thereby flexibly adjusting the magnetic induction strength of the device, and efficiently preparing magnetized water with different parameters according to the needs of different tests, thereby providing a convenient and efficient magnetized water preparation device for test research and field application. In this embodiment, the permanent magnet 3 can be a neodymium iron boron permanent magnet 3, which has stable magnetic force and effect.

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

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

[0053] Further, the independent magnetization structure core cylinder 13 is provided with a distance adjusting fixing screw 12 at one end of the independent magnetization structure base 11. The independent magnetization structure base 11 is connected to the independent magnetization structure core cylinder 13 through the distance adjusting fixing screw 12.

[0054] In this embodiment, the diameter of the independent magnetization structure 1 is changed by the gas spring 15; the magnetic sheet 16 is located at the end of the telescopic rod of the gas spring 15 away from the spring fixing base 14, and the core cylinder magnet positioning ring 17 is installed at the end of the independent magnetization structure core cylinder 13 away from the base of the independent magnetization structure 1; the gas spring 15 is fixed to the spring fixing base 14 of the independent magnetization structure base 11; the core cylinder magnet positioning ring 17 is installed on the independent magnetization structure core cylinder 1; the distance adjusting fixing screw 12 is connected between the independent magnetization structure base 11 and the independent magnetization structure core cylinder 13; the neodymium iron boron permanent magnet 3 passes through the core cylinder magnet positioning ring 17 and is fixed on the magnetic sheet 16 by magnetic force; whether the distance adjusting fixing screw 12 needs to be adjusted again is determined according to the actual situation, so that an independent magnetization structure 1 is assembled, and in the actual use process, the telescopic function of the gas spring 15 is used to adapt to different pipe diameters; the external shape of the independent magnetization structure core cylinder 13 can always have a fixing mode that satisfies the parallel fixing lock plate 25 of the solid telescopic locking structure 2, and the shape is limited to a cuboid; the cross-sectional shape of the magnetic sheet 16 is not limited to regular patterns such as a circle, a rectangle, a square and the like; the outer ring shape of the independent magnetization structure core cylinder magnet positioning ring 17 is the same as the cross-sectional shape of the independent magnetization structure core cylinder 13, and the inner ring shape is the same as the cross-sectional shape of the neodymium iron boron permanent magnet 3; the independent magnetization structure base 11, the independent magnetization structure core cylinder 13 and the core cylinder magnet positioning ring 17 are explosion-proof screen magnetic materials.

[0055] Further, as shown in Figure 6 、 Figure 7 , the telescopic locking structure 2 comprises a telescopic module 21, and two locking modules are arranged at two ends of the telescopic module 21, and the two locking modules are connected with the two independent magnetization structures 1 at the two ends respectively.

[0056] Further, the telescopic module 21 comprises two telescopic arms 211, a telescopic structure core cylinder 212 and a double-arm telescopic controller 22, the double-arm telescopic controller 22 is arranged on the telescopic structure core cylinder 212, and the two telescopic arms 211 are arranged at two ends of the telescopic structure core cylinder 212 respectively; the double-arm telescopic controller 22 can control the two telescopic arms 211 to perform telescopic operation.

[0057] Further, the locking module comprises two specific angle rotation controllers 23, two specific angle rotation telescopic locking structures 24 and two parallel fixing lock plates 25; the two specific angle rotation controllers 23 are arranged on the telescopic structure core cylinder 212 close to the two ends of the two telescopic arms 211 respectively; the double-arm telescopic controller 22 is arranged between the two specific angle rotation controllers 23 and controls the two specific angle rotation structures.

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

[0059] In this embodiment, the telescopic structure includes telescopic arms 211 and a telescopic core tube 212. The shape of the telescopic core tube 212 is limited to a cuboid. The telescopic arms 211 are located at both ends of the telescopic core tube 212 and are controlled by a dual-arm telescopic controller 22. The dual-arm telescopic controller 22 is installed at the upper center of the telescopic core tube 212 and has three positions: synchronous, reset, and asynchronous. When the dual-arm telescopic controller 22 is in the synchronous position, the telescopic arms 211 at both ends of the telescopic core tube 212 extend and retract synchronously, and the extension and retraction are the same. When the reset position is in the reset position, the telescopic arms 211 at both ends of the telescopic core tube 212 immediately return to their initial positions. When the asynchronous position is in the asynchronous position, the extension and retraction of the telescopic arms 211 at both ends of the telescopic core tube 212 are no longer synchronous, and the extension and retraction are no longer the same.

[0060] The specific angle rotation controller 23 is located on the upper left and right sides of the telescopic structure core tube 212, with the double-arm telescopic controller 22 in the middle. It is marked with 7 positions from 0 to 8, and controls the nearby specific angle rotation telescopic locking structure 24. One end of the specific angle rotation telescopic locking structure 24 is fixed to the telescopic arm 211, and the other end is equipped with a parallel fixing locking plate 25. The parallel fixing locking plate 25 can be fixed to the independent magnetized structure core tube 13. Its shape is limited to rectangle, with a length of 1 / 2 of the independent magnetized structure core tube 13 and a width equal to that of the independent magnetized structure core tube 13.

[0061] Determine the planar geometry of the multimodal unipolar variable diameter magnetized water device, adjust the angle of the physical telescopic locking structure 2, set the specific angle rotation controller 23 to position 0, reset the telescopic arm 211, and adjust the specific angle rotation controller 23 to the corresponding positions 3 to 8 according to the planar geometry of the multimodal unipolar variable diameter magnetized water device; adjust the length of the physical telescopic locking structure 2, adjust the position of the double-arm telescopic controller 22 to reset, and return the two telescopic arms 211 to their initial positions; adjust the position of the double-arm telescopic controller 22 to synchronous or asynchronous, and determine the telescopic arm 211 extension amount according to the required magnetic induction intensity and the actual situation such as pipe diameter; thus, the adjustment of the physical telescopic locking structure 2 is completed.

[0062] Furthermore, such as Figure 5 As shown, the permanent magnet 3 is provided with an anti-slip insulating material 31 on its exterior, and a wear-resistant anti-slip insulating material 32 is provided at the end of the permanent magnet 3 near the water supply structure.

[0063] In the embodiment, the neodymium-iron-boron permanent magnet 3 is accurately fixed in position by the core cylinder magnet positioning ring 17, and the same poles are either N poles or S poles and are adsorbed on the magnet attracting sheet 16 by magnetic force, so that single-pole magnetization is realized by the structure; the shape is not limited to regular polygons such as cuboids and cylinders; the neodymium-iron-boron permanent magnet 3 is wrapped with a layer of anti-skid insulating material 31 of a certain thickness, and the end in contact with the water pipe has wear-resistant anti-skid insulating material 32.

[0064] Embodiment 2

[0065] The preparation of concrete generally involves a concrete mixer, a mixing truck or a concrete mixing station, and the operation process of preparing concrete is basically the same, but the way of adding water during the preparation process is obviously different, for example, the automatic water feeding of the automatic concrete feeding and mixing truck can automatically feed water through the water tank, while the concrete mixer needs to manually control the water quantity for concrete mixing, and the materials and pipe diameters of the water feeding pipes used are different, so the existing magnetized water device cannot be applied, which leads to the difficulty of popularizing magnetized water in the field of concrete preparation. The multi-modal single-pole variable-diameter magnetized water device provided by the application can be assembled into any polygonal magnetized water device according to the required application scene, and can be adapted to water pipes of different materials and different pipe diameters to prepare magnetized water of different parameters.

[0066] In the second aspect of the application, as shown in Figure 8 、 Figure 9 A use method of the multi-modal single-pole variable-diameter magnetized water device is provided, which comprises the following steps:

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

[0068] The independent magnetization structure 1 is assembled, specifically, the gas spring 15 is fixed to the spring fixing base 14 of the independent magnetization structure base 11; the core cylinder magnet positioning ring 17 is installed on the independent magnetization structure core cylinder 13; the independent magnetization structure base 11 and the independent magnetization structure core cylinder 13 are connected by the distance adjusting fixing screw 12; the permanent magnet 3 passes through the core cylinder magnet positioning ring 17 and is fixed on the magnet attracting sheet 16 by magnetic force; whether the distance adjusting fixing screw 12 needs to be adjusted again is determined according to the actual situation;

[0069] According to the planar geometric shape 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, the size of the water supply structure and the planar geometric shape 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 planar geometry of the multi-modal single-pole variable-diameter water magnetization device, the number of entity telescopic locking structures 2 is determined;

[0072] Using the assembled independent magnetization structure 1 and the adjusted entity telescopic locking structure 2, the multi-modal single-pole variable-diameter water magnetization device is assembled according to the determined planar geometry;

[0073] The assembled multi-modal single-pole variable-diameter water magnetization device is installed on the water supply pipeline of the concrete mixer truck or the water supply pipe of the 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: according to the required magnetic induction intensity and combined with the actual situation such as pipe diameter, determine the planar geometry of the multi-modal single-pole variable-diameter water magnetization device;

[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 cylinder magnet positioning ring on the independent magnetization structure core cylinder; connect the independent magnetization structure base and the independent magnetization structure core cylinder through the distance adjusting fixing screw; the neodymium iron boron permanent magnet passes through the core cylinder magnet positioning ring and is fixed on the iron sheet magnet sheet by magnetic force; according to the actual situation, it is determined whether it is necessary to adjust the distance adjusting fixing screw again;

[0078] S4, according to the planar geometry of the multi-modal single-pole variable-diameter water magnetization device, determine the number of required independent magnetization structures; repeat step S3 until the required number of independent magnetization structures is met;

[0079] S5, adjust the angle of the entity telescopic locking structure: adjust the specific angle rotary controller to gear 0, at this time the specific angle rotary device is not started; according to the required magnetic induction intensity and combined with the actual situation such as pipe diameter, determine the planar geometry of the multi-modal single-pole variable-diameter water magnetization device, adjust the specific angle rotary controller to the corresponding gear gear 3~gear 8;

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

[0081] S7, according to the planar geometry of the multi-modal single-pole variable-diameter water magnetization device, determine the number of required entity telescopic locking structures; repeat steps S5, S6 until the required number of entity telescopic locking structures is met;

[0082] S8, using the assembled independent magnetization structure and the adjusted solid telescopic locking structure, assembling into a multi-modal single-pole variable-diameter magnetized water device according to the determined plane geometry;

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

[0084] The use method of the multi-modal single-pole variable-diameter magnetized water device provided by the application systematically gives the flow steps of preparing magnetized water by using the multi-modal single-pole variable-diameter magnetized water device, the flow is clear, the steps are clear, the preparation of high-quality magnetized water by using the multi-modal single-pole variable-diameter magnetized water device is better guided, and the preparation efficiency of the magnetized water is improved.

[0085] Although the specific embodiments of the application are described above with reference to the drawings, it is not a limitation on the protection scope of the application, and those skilled in the art should understand that various modifications or changes made on the basis of the technical solutions of the application without creative labor are still within the protection scope of the application.

Claims

1. A multi-modal single pole variable diameter magnetized water device, characterized by, The application relates to a multi-mode single-pole variable-diameter magnetized water device, which comprises multiple independent magnetization structures, multiple telescopic locking structures and multiple permanent magnets, the multiple independent magnetization structures and the multiple telescopic locking structures are arranged in a polygonal structure in a ring direction, a water supply structure is arranged in the polygonal structure, one end of the same magnetic pole of the multiple permanent magnets is arranged on the multiple independent magnetization structures, and the other end of the same magnetic pole of the multiple permanent magnets is arranged towards the water supply structure; the permanent magnets can be driven by the independent magnetization structures to approach or move away from the water supply structure. The multiple independent magnetization structures are arranged at the positions of the corners of the polygonal structure formed by the multiple independent magnetization structures and the multiple telescopic locking structures arranged in a ring direction, and the multiple telescopic locking structures are arranged at the positions of the sides of the polygonal structure formed by the multiple independent magnetization structures and the multiple telescopic locking structures arranged in a ring direction. The independent magnetization structure comprises an independent magnetization structure core barrel, the other end of the independent magnetization structure core barrel away from the water supply structure is connected with an independent magnetization structure base, the independent magnetization structure base is arranged in the independent magnetization structure core barrel and is provided with a spring fixing base, the spring fixing base is provided with a gas spring, the output end of the gas spring is connected with a magnetic attraction piece, and the magnetic attraction piece is connected with the permanent magnet. The telescopic locking structure comprises a telescopic module, two locking modules are arranged at the two ends of the telescopic module, and the two locking modules are connected with the independent magnetization structures at the two ends respectively. The telescopic module comprises two telescopic arms, a telescopic structure core barrel and a double-arm telescopic controller, the double-arm telescopic controller is arranged on the telescopic structure core barrel, and the two telescopic arms are arranged at the two ends of the telescopic structure core barrel; the double-arm telescopic controller can control the two telescopic arms to telescopically extend. The locking module comprises two specific angle rotation controllers, two specific angle rotation locking structures and two parallel fixed locking plates; the two specific angle rotation controllers are arranged on the telescopic structure core barrel and are close to the two ends of the two telescopic arms; the double-arm telescopic controller is arranged between the two specific angle rotation controllers and controls the two specific angle rotation structures. The two telescopic arms are respectively provided with the two specific angle rotation locking structures at the ends close to the independent magnetization structures, the specific angle rotation locking structures are provided with the fixed locking plates at the ends close to the independent magnetization structures, and the fixed locking plates are connected with the independent magnetization structures.

2. A multi-modal single pole variable diameter water magnetization device as claimed in claim 1, wherein, The independent magnetization structure core barrel is provided with a magnet positioning ring at the end away from the independent magnetization structure base, and the magnet positioning ring is sleeved on the permanent magnet.

3. A multi-modal single pole variable diameter water magnetizer device as claimed in claim 1, wherein, The independent magnetization structure core barrel is provided with a distance adjusting fixed screw at the outer end of the independent magnetization structure base, and the independent magnetization structure base is connected with the independent magnetization structure core barrel through the distance adjusting fixed screw.

4. A multi-modal single pole variable diameter water magnetizer device as claimed in claim 1, wherein, The permanent magnet is provided with anti-skid insulating materials on the outer end, and the permanent magnet is provided with wear-resistant anti-skid insulating materials at the end close to the water supply structure.

5. A method of using a multi-modal single pole variable diameter water magnetization device as claimed in any one of claims 1 to 4, wherein, The application further discloses a method for manufacturing the multi-mode single-pole variable-diameter magnetized water device. According to the required magnetic induction intensity and the size of the water supply structure, the planar geometric shape of the multi-mode single-pole variable-diameter magnetized water device is determined. Assembling the independent magnetization structure, specifically, fixing the gas spring to the spring fixing base of the independent magnetization structure base; installing the core cylinder magnet positioning ring on the independent magnetization structure core cylinder; connecting the independent magnetization structure base and the independent magnetization structure core cylinder through the distance adjusting fixing screw; the permanent magnet passes through the core cylinder magnet positioning ring and is fixed on the magnet attracting sheet by magnetic force; whether the distance adjusting fixing screw needs to be adjusted again is determined according to the actual situation; According to the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the number of independent magnetization structures required is determined; 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 and extension amount of the telescopic locking structure are adjusted; According to the plane geometry of the multi-modal single-pole variable-diameter magnetized water device, the number of solid telescopic locking structures is determined; Using the assembled independent magnetization structure and the adjusted solid telescopic locking structure, the 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 the concrete mixer truck or the water supply pipe of the concrete mixer for magnetizing water, and the required magnetized water is prepared.

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