Magnetic energy power mechanism

Abstract

According to the magnetic energy power mechanism, magnetic energy difference is artificially manufactured by using magnetic shielding materials inside and outside magnets on a stator and a rotor according to the principle that the heteropoles of the magnets attract each other, and the magnets rotate from a position with low magnetic energy to a position with high magnetic energy due to the heteropoles of the magnets attract each other, so that the rotor rotates according to a set direction; the magnetic shielding material on the stator controls the movement direction and the movement frequency through the motor, magnetic energy difference is repeatedly generated between the magnets of the stator and the rotor, so that the rotor continuously rotates, the magnets on the rotor and the stator can be regarded as a whole due to heteropole attraction and very small spacing distance, and the stress surfaces of the stator and the rotor are located in the middles of the magnets. The middle parts of the magnets are equal in magnetism and relatively stable in magnetic field, so that resistance generated by the magnetic field does not exist in the process that the motor pulls magnetic shielding movement inside and outside the magnets, friction force only needs to be overcome, energy output by the mechanism is far larger than energy consumed by the motor, and net energy output is achieved.

Description

Technical Field

[0001] The invention relates to a device for converting the magnetic energy of a permanent magnet into kinetic energy. The device uses the principle that like poles of permanent magnets repel each other and unlike poles attract each other to artificially create a magnetic energy difference through magnetic shielding materials. The magnetic energy difference causes like poles of the magnets to repel each other and unlike poles to attract each other, resulting in displacement and rotation, which is then converted into kinetic energy. Background Art

[0002] As green energy gradually replaces highly polluting energy, green energy such as wind power generation and photovoltaic power generation has developed rapidly. However, both wind power generation and photovoltaic power generation are largely limited by geographical and environmental factors. How to find a new energy that is not affected by geographical and environmental factors has become of great significance. Permanent magnets themselves have magnetic energy, and magnetic energy is also a kind of usable energy. Through the principle of like poles repel each other and unlike poles attract each other, magnetic shielding technology is used to create a magnetic energy difference between two groups of magnets that repel or attract each other. The magnets that repel each other will move and rotate from a position with high magnetic energy to a position with low magnetic energy, and the magnets that attract each other will move and rotate from a position with low magnetic energy to a position with high magnetic energy. In the process of displacement or rotation, the magnetic energy difference is converted into kinetic energy. The present invention is based on this theoretical basis. Summary of the invention

[0003] The present invention comprises components such as a stator, a rotor, a magnetic shielding material, a control motor, and a control power supply.

[0004] The magnet is a round magnet with a hole, the outside of the magnet is covered with a tubular magnetic shielding material, the inside of the magnet hole is filled with a cylindrical magnetic shielding material, the magnetic shielding material on the rotor is fixed to the magnet, and the magnetic shielding material on the stator is not fixed to the magnet and can slide freely. The tubular magnetic shielding material and the cylindrical magnetic shielding material on the stator are fixed together by a connecting rod, and their movement is driven by a control motor.

[0005] The present invention adopts the principle of opposite poles attracting each other. Taking 6 groups of magnets as an example, each group of magnets on the rotor and the stator are aligned (the centers of the magnets are on a straight line).

[0006] Magnetic shielding materials are used between the magnets on the rotor. The force-bearing surface of the first group of magnets uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface), the force-bearing surface of the second group of magnets in a clockwise direction does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface), the force-bearing surface of the third group of magnets uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface), the force-bearing surface of the fourth group of magnets does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface), the force-bearing surface of the fifth group of magnets uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface), and the force-bearing surface of the sixth group of magnets does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface).

[0007] Magnetic shielding materials are also used at intervals between the magnets on the stator. Since each group of magnets on the stator and rotor are aligned and the centers of the magnets are in a straight line, the magnetic shielding material on the rotor is fixed, and the magnetic shielding material on the stator can reciprocate. Therefore, for the magnets on the stator, the force-bearing surface of the first group of magnets does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface), the force-bearing surface of the second group of magnets in the clockwise direction uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface), the force-bearing surface of the third group of magnets does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface), the force-bearing surface of the fourth group of magnets uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface), the force-bearing surface of the fifth group of magnets does not use magnetic shielding materials (the magnetic shielding materials move to the opposite direction of the force-bearing surface), and the force-bearing surface of the sixth group of magnets uses magnetic shielding materials (the magnetic shielding materials move to the direction of the force-bearing surface).

[0008] To summarize, the force-bearing surfaces of the second, fourth and sixth groups of magnets on the rotor have no magnetic shielding materials, and the force-bearing surfaces of the first, third and fifth groups of magnets on the stator have no magnetic shielding materials. Using the principle of attraction between opposite poles, the second, fourth and sixth groups of magnets on the rotor generate magnetic energy differences with the second, fourth and sixth groups of magnets on the stator, respectively. According to the principle of attraction between opposite poles, the magnets on the rotor will rotate from a position with low magnetic energy to a position with high magnetic energy, and the second, fourth and sixth groups of magnets on the rotor will rotate toward the first, third and fifth groups of magnets on the stator, respectively.

[0009] When the force-bearing surfaces of the second, fourth and sixth groups of magnets on the rotor rotate to align with the force-bearing surfaces of the first, third and fifth groups of magnets on the stator, respectively, this round of rotation ends. The motor is controlled to control the magnetic shielding material on the stator to move the second, fourth and sixth groups of magnetic shielding materials on the stator toward the force-bearing surfaces, and the first, third and fifth groups of magnetic shielding materials on the stator to move in the opposite direction of the force-bearing surfaces, thereby creating a second round of magnetic energy difference, which repeats over and over again and continuously generates kinetic energy.

[0010] Since the present invention adopts the principle of attraction between opposite poles, the gap between the force-bearing surfaces of the magnets on the stator and the rotor is very small, so the magnetic field of the entire magnet system is in a relatively balanced state in the middle position, and the magnetic shielding material on the stator has only friction during the movement process, so the energy consumed by the control motor is much less than the energy output by the rotor rotation. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 The main view of the present invention

[0012] Figure 2 Front view of the present invention

[0013] Figure 3 A top view of the present invention

[0014] Figure 4 The front view of the rotor of the present invention

[0015] Figure 5 The front view of the rotor of the present invention

[0016] Figure 6 The stator front view of the present invention

[0017] Figure 7 This is a front view of the stator of the present invention

[0018] Figure 8 Schematic diagram of the stator magnetic shielding material of the present invention

[0019] Fig. 9 The rotor magnet distribution diagram of the present invention is

[0020] Fig.10 The stator magnet distribution diagram of the present invention is

[0021] In the above figure, 1--rotor, 2--stator, 3--rotor magnet, 4--stator magnet, 5--rotor external magnetic shield, 6--stator external magnetic shield, 7--magnetic shield connecting rod, 8--control motor, 9--motor controller, 10--control power supply, 11--drive shaft, 12--stator internal magnetic shield, 13--rotor internal magnetic shield, 14--magnetic shielding rod, 101--magnet on rotor, 102--magnet on rotor, 103--magnet on rotor, 104--magnet on rotor, 105--magnet on rotor, 106--magnet on rotor, 201--magnet on stator, 202--magnet on stator, 203--magnet on stator, 204--magnet on stator, 205--magnet on stator, 206-magnet on stator Specific implementation plan

[0022] The present invention adopts the principle of magnets with opposite poles attracting each other. The stator external magnetic shield (6) and the stator internal magnetic shield (12) are connected by a magnetic shield connecting rod (7). The magnetic shield pull rod (14) is connected to the stator internal magnetic shield (12). The magnetic shield pull rod (14) and the control motor (8) are engaged by gear teeth. The control motor (8) and the motor controller (9) are connected by wires. The motor controller (9) and the control power supply (10) are connected by wires. The rotor magnet (3) and the rotor (1) are fixed. The stator magnet (4) and the stator (2) are fixed. The magnet on the stator (2) and the magnet on the rotor (1) have opposite suction surfaces. The control motor (8) pulls the stator external magnetic shield (6) and the stator internal magnetic shield (12) to move back and forth, so that the magnets on the stator (2) and the rotor (1) generate a magnetic energy difference, so that the magnet on the rotor (1) rotates, thereby generating kinetic energy. Fig. 9 Rotor magnet distribution diagram and Fig.10The stator magnet distribution diagram is for reference only, and the specific implementation plan is as follows:

[0023] The rotor external magnetic shield (5) and the rotor internal magnetic shield (13) are fixed together with the rotor magnet (3) without displacement. The stator external magnetic shield (6) and the stator internal magnetic shield (12) are connected by a magnetic shield connecting rod (7), and are connected to the control motor (8) through a magnetic shield pull rod (14), and the back and forth movement is controlled by the control motor (8).

[0024] During the first rotation process, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (101), (103), (105) on the rotor are located at the magnet force-bearing surface, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (102), (104), (106) on the rotor are located at the opposite position of the magnet force-bearing surface, the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the magnets (201), (203), (205) on the stator are located at the opposite position of the magnet force-bearing surface, and the stator magnets (202), (204), (206) on the stator are located at the opposite position of the magnet force-bearing surface. The external magnetic shield (6) and the stator internal magnetic shield (12) are located at the magnet force-bearing surface. At this time, the magnets (201), (203), (205) on the stator generate magnetic energy differences with the magnets (101), (103), (105) on the rotor, respectively. The magnetic energy of the magnets (201), (203), (205) on the stator is higher than the magnetic energy of the magnets (202), (204), (206) on the stator. Therefore, the rotor will rotate, and the magnets (102), (104), (106) on the rotor will rotate to a position aligned with the magnets (201), (203), (205) on the stator.

[0025] After the first round of rotation is completed, by controlling the rotation of the motor (8), the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the stator magnets (201), (203), (205) are pushed toward the magnet force surface, and the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the stator magnets (202), (204), (206) are pushed in the opposite direction of the magnet force surface. At this time, the rotor magnet (3) and the stator magnet (4) will generate a second round of magnetic energy difference.

[0026] During the second wheel rotation process, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (101), (103), (105) on the rotor are located at the magnet force-bearing surface, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (102), (104), (106) on the rotor are located at the opposite position of the magnet force-bearing surface, the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the magnets (201), (203), (205) on the stator are located at the magnet force-bearing surface, and the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the magnets (202), (204), (206) on the stator are located at the magnet force-bearing surface. The magnetic shield (6) and the magnetic shield (12) inside the stator are located at opposite positions to the magnet force-bearing surfaces. At this time, the magnets (201), (203), (205) on the stator generate magnetic energy differences with the magnets (102), (104), (106) on the rotor, respectively. The magnetic energy of the magnets (201), (203), (205) on the stator is lower than the magnetic energy of the magnets (202), (204), (206) on the stator. Therefore, the rotor will rotate, and the magnets (102), (104), (106) on the rotor will rotate to a position aligned with the magnets (202), (204), (206) on the stator.

[0027] After the second round of rotation is completed, by controlling the reverse rotation of the motor (8), the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the stator magnets (201), (203), (205) are pushed in the opposite direction of the magnet force surface, and the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the stator magnets (202), (204), (206) are pushed in the direction of the magnet force surface. At this time, the rotor magnet (3) and the stator magnet (4) will generate a third round of magnetic energy difference.

[0028] During the rotation of the third wheel, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (101), (103), (105) on the rotor are located at the magnet force-bearing surface, the rotor external magnetic shield (5) and the rotor internal magnetic shield (13) of the magnets (102), (104), (106) on the rotor are located at the opposite position of the magnet force-bearing surface, the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the magnets (201), (203), (205) on the stator are located at the opposite position of the magnet force-bearing surface, and the stator external magnetic shield (6) and the stator internal magnetic shield (12) of the magnets (202), (204), (206) on the stator are located at the opposite position of the magnet force-bearing surface. The external magnetic shield (6) and the stator internal magnetic shield (12) are located at the magnet force-bearing surface. At this time, the magnets (201), (203), (205) on the stator generate magnetic energy differences with the magnets (103), (101), (105) on the rotor, respectively. The magnetic energy of the magnets (201), (203), (205) on the stator is higher than the magnetic energy of the magnets (202), (204), (206) on the stator. Therefore, the rotor will rotate, and the magnets (102), (104), (106) on the rotor will rotate to a position aligned with the magnets (203), (205), (201) on the stator.

[0029] In the rotation process, the rotor will rotate continuously. Since the rotor magnet (3) on the rotor (1) and the stator magnet (4) on the stator (2) are installed in a way that opposite poles attract each other, and the interval between the magnets is very small, the rotor magnet (3) on the rotor (1) and the stator magnet (4) on the stator (2) can be regarded as an integral magnet. The magnetism at any position in the middle of the magnet is the same, and the magnetism is in a relatively stable state. During the reciprocating motion of the stator external magnetic shield (6) and the stator internal magnetic shield (12), only a small friction force is generated. Therefore, the kinetic energy generated by the transmission shaft (11) is much greater than the energy consumed by the control motor (8), thereby achieving energy generation and output.

Claims

1. A magnetic energy power mechanism based on the attraction and repulsion between magnets, characterized in that: It mainly consists of a rotor (1), a stator (2), a rotor magnet (3), a stator magnet (4), a rotor external magnetic shield (5), a stator external magnetic shield (6), a magnetic shield connecting rod (7), a control motor (8), a motor controller (9), a control power supply (10), a transmission shaft (11), a stator internal magnetic shield (12), a rotor internal magnetic shield (13), and a magnetic shield pull rod (14). The rotor magnet (3) is fixed on the rotor (1), and the stator magnet (4) is fixed on the stator (2). The rotor external magnetic shield (5) is fixed to the rotor (1), the rotor internal magnetic shield (13) is fixed to the rotor (1), the stator external magnetic shield (6) is connected to the magnetic shield connecting rod (7), the stator internal magnetic shield (12) is connected to the magnetic shielding pull rod (14), the magnetic shielding connecting rod (7) is connected to the magnetic shielding pull rod (14), the magnetic shielding pull rod (14) is connected to the control motor (8), the motor controller (9) is connected to the motor (8), and the control power supply (10) is connected to the motor controller (9).

2. A magnetic energy power mechanism according to claim 1, characterized in that: The rotor magnet (3) and the stator magnet (4) may be in the shape of a cylindrical hole, a polygonal hole, or an elliptical hole, and the number of holes may be 0 or more.

3. A magnetic energy power mechanism according to claim 1, characterized in that: The rotor external magnetic shield (5), stator external magnetic shield (6), stator internal magnetic shield (12), and rotor internal magnetic shield (13) can be made of magnets or magnetic conductive materials, and their shapes can be cylindrical, polygonal, or elliptical, and their number can be one or more.

4. A magnetic energy power mechanism according to claim 1, characterized in that: The control motor (8), motor controller (9), control power supply (10), and magnetic shielding pull rod (14) can be controlled by motor-coordinated mechanical control, self-control of energy output by the mechanism body, and electromagnetic control.

5. A magnetic energy power mechanism according to claim 1, characterized in that: The number of magnet groups of the rotor magnet (3) mounted on the rotor (1) can be one or more groups, and the number of magnet groups of the stator magnet (4) mounted on the stator (2) can be two or more groups.

6. A magnetic energy power mechanism according to claim 1, characterized in that: The rotor magnet (3) installed on the rotor (1) and the stator magnet (4) installed on the stator (2) can adopt the principle of like poles repelling each other or unlike poles attracting each other.

7. A magnetic energy power mechanism according to claim 1, characterized in that: One stator (2) can drive one rotor (1) or multiple rotors (1) to rotate at the same time.

8. A magnetic energy power mechanism according to claim 1, characterized in that: The motion between the rotor (1) and the stator (2) can be rotation, reciprocating translation, or left-right swing.

9. A magnetic energy power mechanism according to claim 1, characterized in that: The energy output by the transmission shaft (11) can be used directly as driving power, or can be connected to a generator for use as power generation.

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