An electromagnetically coupled gyromagnetic water treatment device

Abstract

The present invention provides an electromagnetically coupled gyromagnetic water treatment device, comprising a drive motor, a main gyromagnetic disk, a plurality of secondary gyromagnetic disks, a housing, and a magnetomotive mechanism. The housing has a water pipe channel at its center and a cavity within it. The main gyromagnetic disk and the secondary gyromagnetic disks are symmetrically arranged on the inner wall of the housing. The output shaft of the drive motor is connected to the sleeve of the main gyromagnetic disk. If the magnetomotive mechanism is arranged on the main gyromagnetic disk and the secondary gyromagnetic disk, the magnetomotive mechanism includes an inner peripheral magnet and an outer peripheral magnet. The inner peripheral magnet is arranged between adjacent permanent magnet rings, one end of the inner peripheral magnet abuts a retaining ring, and is arranged at an angle of 30-65 degrees to the axis connecting the centers of the axes. The inner wall of the housing has slots spaced along the periphery of the turntable, support blocks are provided in the slots, and outer peripheral magnets are arranged inside the support blocks. Aluminum magnetic separators are provided between adjacent outer peripheral magnets. The LC oscillation formed by the capacitor connected in parallel with the motor, the mutual repulsive force of the same polarity between the inner and outer peripheral magnetic blocks, and the same polarity and tortuous repulsive force between adjacent turntables can combine to enable the turntable to operate for a long time.

Description

Technical Field

[0001] The invention belongs to the technical field of magnetized water, and in particular relates to an electromagnetic coupling type rotating magnetic water treatment device. Background Art

[0002] At any given moment, electrical power and mechanical power are balanced, which depends on whether the losses are borne by the electrical input or the mechanical input. ZL2018106281562 describes a jade magnetic gyroscope-type therapy device. It utilizes N adjacent gyroscope units and jade plates, with no fewer than three permanent magnets positioned around the circumference of the disks. This device utilizes parallel magnetic field coupling for synchronous transmission. Given a certain inter-disk distance, if the magnetic field lines of each disk are appropriately twisted to increase the force exerted on adjacent magnetic disks, a unique force can be generated in the magnetic motor. Current magnetic power machines use a larger number of magnets in the stator and fewer in the rotor, with the same pole faces angled counterclockwise to achieve magnetic motion.

[0003] Patent ZL2021108145371 describes a combined gyromagnetic water magnetization device and method. This device utilizes several asynchronous motor windings connected in series in the front stage, coupled with a dual gyromagnetic machine in the back stage for coordinated water magnetization. This device offers excellent magnetization results and a high water output. Whether this dual gyromagnetic machine can be adapted to a three-dimensional operation, leveraging the combined gyromagnetic machine's ability to maintain extended operation after a power outage, is also a valuable research topic. Further extending the combined gyromagnetic machine by using gyromagnets on the inside and a magnetic dynamic mechanism on the outside can further extend the rotation time. In the field of gyromagnetic therapy beds, utilizing the flywheel inertia of a thickened turntable and the principle of LC oscillation also holds considerable research value. The concept of generating electricity from a moving magnet is broad. Summary of the Invention

[0004] The technical problem solved by the present invention is that the current magnetized water uses static magnetism to magnetize the water flow, which has low magnetization efficiency and low magnetic energy power utilization rate.

[0005] The present invention provides an electromagnetic coupling type gyromagnetic water treatment device, which is characterized by comprising a driving motor, a main gyromagnetic disk, a plurality of auxiliary gyromagnetic disks, a shell, and a magnetomotive mechanism. A water pipe channel is provided at the center of the shell, and the interior of the shell is a cavity. The main gyromagnetic disk and the plurality of auxiliary gyromagnetic disks are symmetrically arranged on the inner wall of the shell. The main gyromagnetic disk comprises a turntable and a plurality of permanent magnet rings. A shaft sleeve is provided at the center of the turntable, and a retaining ring is provided on the circumference of the turntable. The permanent magnet rings are arranged in an array on the surface of the turntable with the shaft sleeve as the center. The output shaft of the driving motor is connected to the shaft sleeve of the main gyromagnetic disk. The plurality of auxiliary gyromagnetic disks comprise a turntable, a plurality of permanent magnet rings. Ring, shaft, a shaft is provided in the center of the turntable, a retaining ring is provided around the turntable, and permanent magnet rings are arranged in an array on the turntable surface with the shaft as the center. The magnetic dynamic mechanism is arranged on the main rotating disk and the auxiliary rotating disk. The magnetic dynamic mechanism includes an inner peripheral magnet and an outer peripheral magnet. The inner peripheral magnet is arranged between adjacent permanent magnet rings, one end of the inner peripheral magnet abuts the retaining ring, and is inclined 30-65 degrees to the axis line. The inner wall of the shell is provided with slots at intervals along the periphery of the turntable, and a support block is provided in the slot. The outer peripheral magnet is arranged on the inner side of the support block. The outer peripheral magnetic block is arranged close to the vertical axis line, and an aluminum magnetic isolation block is provided between adjacent outer peripheral magnets.

[0006] Furthermore, the total number of the primary spinning disk and the secondary spinning disks is an even number greater than or equal to four.

[0007] Furthermore, the outer magnetic block and the inner magnetic block are arc-shaped, corresponding to the radian of the inner diameter of the stator.

[0008] Furthermore, the shell includes four bottom plates cut into the same specifications, the bottom plates are welded into a U-shaped tetrahedron, and one main rotating disk and three auxiliary rotating disks are installed on the inner side of the bottom plate. The surface is wrapped with epoxy board to form a combination structure of 1*4 rotating disks, and the turntables on two opposite sides rotate in opposite directions.

[0009] Furthermore, the shell includes six bottom plates cut into the same specifications, the bottom plates are welded into a regular hexagonal shell, and one main rotating disk and five auxiliary rotating disks are installed on the inner side of the bottom plate. The surface is wrapped with epoxy board to form a combination structure of 1*6 disks, and the turntables on two opposite sides have the same direction of rotation.

[0010] Furthermore, an electric motor is installed at the lower end of the main rotating disk, and a generator is installed at the upper end of the auxiliary rotating disk arranged opposite to the main rotating disk. The output power of the generator is selected to be greater than the input power of the electric motor.

[0011] The present invention has the following beneficial effects: The technical principle of the electromagnetic coupling type rotary magnetic water treatment device of the present invention is to adopt a four-disc zigzag closed loop structure. Compared with the current parallel coupling transmission method, the magnetic coupling distance is relatively shortened, and it is closed into a loop at the beginning and end, which has the advantage of relatively reduced magnetic coupling spacing. Three or four permanent magnetic rings are symmetrically arranged in the turntable, and uniformly with the S pole or N pole facing upward. The two adjacent turntables can be synchronously driven with the same polarity and zigzag repulsive force, forming a rotation rule in which one turntable rotates forward and the other rotates reversely, thereby limiting the arrangement of four, six, or eight turntables; the inner peripheral magnetic block on the turntable is inclined along the axis line and close to the permanent magnetic ring, and the outer circular magnetic block located on the periphery of the turntable can produce a magnetic boosting effect under the condition that the outer peripheral magnetic block is more than two than the inner peripheral magnetic block; two square-shaped permanent magnetic blocks of the same size are used, and on the inner peripheral magnetic block or on the left Or it is set to be tilted to the right by α1, that is, α1=30-65 degrees, and the peripheral magnetic blocks are set close to the vertical axis connection line α2, α2=80-100 degrees, and the turntable is rotated by the force of like-pole repulsion; the peripheral magnetic blocks are arc-shaped, and there is no dead angle in the mutual force. The turntable is made of titanium alloy material, so the like-pole repulsion force is stronger and the boosting effect is better. After the motor is powered off, the LC oscillation formed by the motor parallel capacitor, the like-pole repulsion force between the inner and outer peripheral magnetic blocks, and the like-polarity and tortuous repulsion between adjacent turntables can make the turntable rotate for a longer time. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 , Schematic diagram of Example 1 of the electromagnetic coupling type rotary magnetic water treatment device of the present invention.

[0013] Figure 2 , a schematic diagram of the expansion of Example 1 of the electromagnetic coupling type rotary magnetic water treatment device of the present invention.

[0014] Figure 3 , Schematic diagram of Example 2 of the electromagnetically coupled gyromagnetic water treatment device of the present invention.

[0015] Figure 4 , the expanded view of Example 3 of the electromagnetic coupling type rotary magnetic water treatment device of the present invention. DETAILED DESCRIPTION

[0016] In order to clearly illustrate the technical features of this solution, the solution is described below through specific implementation methods and in conjunction with the accompanying drawings.

[0017] Example 1

[0018] like Figure 1 As shown, an electromagnetic coupling type gyromagnetic water treatment device includes a drive motor 3, a main gyromagnetic disk, a plurality of auxiliary gyromagnetic disks, a housing, and a magnetic mechanism.

[0019] The housing's base plate 11 is constructed from 6-8mm thick stainless steel, divided into four equal length and width sections and welded into a U-shaped structure. A primary gyroscopic disk and three secondary gyroscopic disks are mounted on the inner side of the base plate, each encased in an epoxy sheet 12. The overall structure forms a U-shaped structure with a water pipe running through its center. The primary gyroscopic disk and three secondary gyroscopic disks are positioned adjacent to each other at their respective ends, forming a nearly closed structure. This creates a circumferential rotating magnetic field for the horizontal water flow in the center, effectively magnetizing it.

[0020] Figure 2 This is a planar expansion diagram of the main rotating disk and three secondary rotating disks, numbered 01-04. Number 02 is the main rotating disk, and numbers 01, 03, and 04 are the secondary rotating disks. Each of the main and three secondary rotating disks is equipped with a sleeve 10 and a permanent magnet ring 7. The specific structure is as follows: a frustoconical sleeve 10 is located at the center of the turntable 1, with a cylindrical cavity defined within the sleeve 10. A through hole is also provided at the center of the turntable 1. For the main rotating disk, the output shaft of the drive motor 3 passes through the through hole and connects to the sleeve 10 of the main rotating disk, driving the main rotating disk. A hole is opened slightly below the frustoconical sleeve 10 on the secondary rotating disk to accommodate a bearing 9. A rotating shaft 8 passes through the through hole and is fixedly connected to the cylindrical cavity by the bearing 9. The cooperation of the bearing 9 and the rotating shaft 8 enables the secondary rotating disks to rotate flexibly. A retaining ring 2 is provided around the turntable 1. The retaining ring 2 around the turntable 1 and the central conical sleeve 10 form a groove with high sides and a low middle. Three permanent magnet rings 7 are arranged in an array with the rotating shaft 8 as the center in the groove. The three permanent magnet rings 7 are all arranged with the S pole facing upward. One of the permanent magnet rings 7 and the two permanent magnet rings 7 on the adjacent turntable 1 maintain a triangular nearly symmetrical relationship in the repulsion of the same poles, thereby generating mutual coupling, so that the auxiliary rotating disk can rotate under the coupling action.

[0021] A magnetic mechanism is provided within the secondary rotating disks numbered 01 and 03. The mechanism comprises inner and outer magnetic blocks 6 and 5. Specifically, the inner magnetic block 6 is disposed between adjacent permanent magnet rings 7, with one end of the inner magnetic block 6 abutting against the retaining ring 2. The inner magnetic block 6 is tilted 30-65 degrees from the axis line α1, with its south pole facing outward. Slots are provided at intervals along the periphery of the turntable 1 on the inner side of the housing bottom plate 11. Support blocks 4 are provided within these slots, and outer magnetic blocks 5 are provided inside the support blocks 4. The outer magnetic blocks are positioned approximately perpendicular to the axis line α2, with α2 being 80-100 degrees. The south poles of the outer magnetic blocks 5 face inward, and aluminum magnetic spacers 13 are provided between adjacent outer magnetic blocks 5. The inner and outer magnetic blocks generate a rotational thrust with their south poles facing each other, and the outer magnetic block 5 also partially generates a magnetic attraction effect on the opposite poles of the inner magnetic block 6. The peripheral magnetic block 5 and the aluminum magnetic spacer block 13 are similar to the stator of a motor and are fixed on the bottom plate 11. The permanent magnet ring 7 on the turntable 1 and the peripheral magnetic block 5 maintain a distance of 2-15 mm.

[0022] The drive motor 3 is started from the initial low frequency of 2HZ under the control of the AC inverter. Power capacitors with a power / capacity ratio of less than 1 / 2 are connected to the three terminals of the drive motor 3. After power failure, an LC oscillation process is generated to maintain the continued operation of the drive motor 3. After the drive motor 3 reaches the rated speed, the motor current is close to zero due to the combined effect of the coupling between the main rotating disk and the three auxiliary rotating disks and the repulsive and attractive forces generated by the internal and external magnetic blocks.

[0023] Example 2

[0024] like Figure 3 As shown, the bottom plate 11 of the housing is made of non-magnetic material and is divided into six sections with the same length and width. After opening the corresponding through holes, the six sections are bent 60 degrees in sequence and welded into a closed-circuit structure of a regular hexagon. A main rotating disk and five auxiliary rotating disks are installed on the inside of the bottom plate 11, numbered 01-06, numbered 02 is the main rotating disk, and numbers 01, 03, 04, 05, and 06 are auxiliary rotating disks, forming a six-linked rotating disk and wrapped with an epoxy plate 12. The epoxy plate 12 is close to the water pipe in the center to magnetize the water flow. In the four auxiliary rotating disks 01, 03, 04, and 06, inner magnetic blocks 6 and outer magnetic blocks 5 are respectively set. Six outer magnetic blocks 5 are set along the vertical line of the turntable 1 and at a 45-degree angle to the left and right. The active pole surface is tangent to the edge of the turntable 1. The outer end of the inner magnetic block 6 is close to the retaining ring 2, and the side is close to the permanent magnet ring 7 and is tilted 30 degrees from the axis line. In this embodiment, the magnetic rotation directions of the two sides of the hexagonal structure are the same, while in the embodiment 1, the magnetic rotation directions of the two sides of the quadrilateral structure are opposite.

[0025] Example 3

[0026] like Figure 3 The six-linked structure diagram and Figure 4As shown in the six-link planar expansion diagram, number 02 is connected to the AC motor as the input terminal, and number 05 is connected to the AC generator as the output terminal. Its basic structure is: a closed loop structure is formed by welding six sections of the bottom plate 11 made of non-magnetic material. Six rotating disks are arranged inside it, numbered 01-06. Number 02 is the main rotating disk, and numbers 01, 03, 04, 05, and 06 are auxiliary rotating disks. Number 02 is connected to the AC motor, and number 05 is connected to the AC generator. The six rotating disks maintain a rotation relationship in which 01, 03, and 05 are reverse rotation and 02, 04, and 06 are forward rotation. Numbers 01, 02, 03, 04, 05, and 06 are provided with three arc-shaped inner magnetic blocks 6 and six arc-shaped outer magnetic blocks 5. The outer magnetic blocks 5 and the inner magnetic blocks 6 adopt a similar curvature to the inner circle of the stator. The six outer magnetic blocks 5 are arranged along a vertical line with a 45-degree left-right offset. When rotating in the clockwise direction, the distance between the two magnetic blocks is smaller on the counterclockwise side than on the clockwise side. By leveraging the mutual coupling between the permanent magnet rings 7 and the same-pole repulsion generated by the opposing inner and outer magnetic blocks 6 and 5, the motor can maintain operation for a long time after power is removed, while the generator outputs a certain amount of power. This increase in output power is achieved by utilizing electromagnetic coupling, inter-pole repulsion and local attraction, the LC oscillation of the capacitor, and its moment of inertia.

[0027] The embodiments described above are merely descriptions of preferred implementations of the present invention and are not intended to limit the scope of the present invention. Without departing from the spirit of the present invention, various modifications and alterations made to the technical solutions of the present invention by those skilled in the art should fall within the scope of protection defined by the claims of the present invention.

[0028] Although the present invention has been described in conjunction with preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can implement various changes, substitutions and modifications to the subject matter listed here without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention shall be based on the scope defined by the claims.

Claims

1. An electromagnetically coupled gyromagnetic water treatment device, characterized in that: The system comprises a drive motor, a main rotating disk, several auxiliary rotating disks, a housing, and a magnetomotive mechanism. The housing has a water pipe channel at its center and a hollow interior. The main rotating disk and the auxiliary rotating disks are symmetrically arranged on the inner wall of the housing. The main rotating disk comprises a turntable and several permanent magnet rings. A shaft sleeve is provided at the center of the turntable, and retaining rings are provided around the circumference of the turntable. The permanent magnet rings are arranged in an array on the turntable surface with the shaft sleeve as the center. The output shaft of the drive motor is connected to the shaft sleeve of the main rotating disk. The auxiliary rotating disks comprise a turntable, several permanent magnet rings, and a rotating shaft. A shaft sleeve is provided at the center of the turntable, and retaining rings are provided around the circumference of the turntable. The permanent magnet rings are arranged in an array on the turntable surface with the shaft sleeve as the center. The magnetic dynamic mechanism is arranged on the main rotating disk and the secondary rotating disk. The magnetic dynamic mechanism includes an inner peripheral magnet and an outer peripheral magnet. The inner peripheral magnet is arranged between adjacent permanent magnet rings. One end of the inner peripheral magnet abuts the retaining ring and is arranged at an angle of 30-65 degrees to the axis line. The inner wall of the shell is provided with slots at intervals along the periphery of the turntable. Support blocks are provided in the slots. The outer peripheral magnet is arranged on the inner side of the support block. The outer peripheral magnet is arranged close to the vertical axis line. Aluminum magnetic isolation blocks are provided between adjacent outer peripheral magnets.

2. The electromagnetically coupled gyromagnetic water treatment device according to claim 1, characterized in that: The total number of the primary spinning disk and the secondary spinning disks is an even number greater than or equal to four.

3. The electromagnetic coupling type gyromagnetic water treatment device according to claim 1, characterized in that: The outer magnet and the inner magnet are in arc shape, corresponding to the radian of the inner diameter of the stator.

4. The electromagnetically coupled gyromagnetic water treatment device according to claim 1, wherein: The shell includes four bottom plates cut into the same specifications, which are welded into a U-shaped tetrahedron. A main rotating disk and three auxiliary rotating disks are installed on the inner side of the bottom plate. The surface is wrapped with epoxy board to form a combined structure of 1*4 rotating disks. The turntables on two opposite sides rotate in opposite directions.

5. The electromagnetic coupling type gyromagnetic water treatment device according to claim 1, characterized in that: The shell includes six bottom plates cut into the same specifications, which are welded into a regular hexagonal shell. A main rotating disk and five auxiliary rotating disks are installed on the inner side of the bottom plate. The surface is wrapped with epoxy board to form a combination structure of 1*6 disks. The turntables on two opposite sides have the same direction of rotation.

6. The electromagnetic coupling type gyromagnetic water treatment device according to claim 5, characterized in that: The lower end of the main rotating disk is equipped with an electric motor, and the upper end of the auxiliary rotating disk arranged opposite to the main rotating disk is equipped with a generator. The output power of the generator is selected to be greater than the input power of the electric motor.

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