Magnet with variable interaction to non-variable interaction

Abstract

The application discloses a magnet variable interaction device, left and right middle magnets are simultaneously and synchronously rotated by gears on left and right shafts, the left and right middle magnets are oppositely inclined by a diameter surface and a south-north pole demarcation surface, when the left and right middle magnets enter the gap between inner and outer magnets, the gap is large, and when the left and right middle magnets enter the gap between inner and outer magnets, the gap is small, after the left middle magnet enters the gap between inner and outer magnets and repels, the magnetic force of the south-north pole demarcation surface of the left middle magnet is increased, after the right middle magnet enters the gap between inner and outer magnets and attracts, the magnetic force of the south-north pole demarcation surface of the right middle magnet is changed to zero, at this time, the right and left middle magnets become variable interaction, the right middle magnet has no repulsion and attraction force to the magnet, the time gap between the left and right middle magnets and the inner and outer magnets is small and has no repulsion force, when the left and right middle magnets exit and enter the gap between inner and outer magnets, the relative attraction and repulsion force between the left and right middle magnets and the inner and outer magnets is balanced, and after the left and right middle magnets exit, the gap is large and has extra repulsion force.

Description

[0001] This invention relates to a magnetic energy conduction device, specifically a magnetic force conduction machine, and particularly to a combination of interacting components during the magnetic force conduction process, such that a portion of one component has no magnetic force exchange, resulting in an imbalance between the inflow and outflow. Background technology:

[0002] Humans have pioneered the conversion of energy into particles, setting a precedent for transforming force into physical particles, such as using energy to generate electricity, where electricity is composed of electric particles. Magnetism and thermodynamics also share similarities. For example, in thermodynamics, quantities may be equal, but qualities may differ; similarly, in magnetism, quantities may be equal during transmission, but properties may differ. Thermal energy can be converted into power due to differences in quality, as seen in the increase in energy during the adiabatic throttling process of high-temperature, high-pressure steam. The different properties of the magnetic particles in a permanent magnet during transmission, resulting in different attractive and repulsive forces, and the different locations to which the magnetic force is transmitted, can be used to generate power that is transmitted to the outside world. Summary of the Invention:

[0003] This invention provides a magnet-to-magnet interaction device that transforms quantitative interaction into quantitative interaction. When the left and right shafts rotate, they carry the circular disc and the left and right center magnets. Two gears mounted inside the left and right shafts ensure that the shafts rotate in the same direction and at the same speed. The left center magnet repels the inner and outer magnets, while the right center magnet attracts them, balancing the attraction and repulsion forces when the two center magnets enter and exit the gap between the inner and outer magnets. The left and right center magnets are annular, with their diameter surfaces and north and south pole interfaces angled opposite each other to repel each other. The gap between the left and right center magnets changes from the larger end of the gap between the outer magnets to the smaller end, causing the gap between the left and right center magnets to decrease within the gap between the inner and outer magnets. When the left center magnet enters the gap between the inner and outer magnets and repels them, the magnetic force at its north and south pole interface increases. When the right center magnet enters the gap between the inner and outer magnets and attracts them, the magnetic force at its north and south pole interface disappears, and there is no attraction or repulsion force on the magnets. This reduces the gap between the left and right center magnets in the gap between the inner and outer magnets, eliminating the repulsive force. After the left and right center magnets leave the gap between the inner and outer magnets, the original repulsive force is restored. At this point, the gap between the left and right center magnets increases, resulting in excess repulsive force. The two outer magnets are fixed inside the frame of the base plate, and the two inner magnets are installed inside the frame of the cylinder. The cylinder is fixed to the connecting rod, and the connecting rod is fixed to the base plate. The bearings in the two bearing seats fixed to the base plate hold the left and right shafts. Excess force is transmitted through the left shaft of the fixed disc.

[0004] The structure of this magnet-based interaction device, which transforms quantitative interactions into quantitative interactions, is as follows:

[0005] The central magnet is made into a ring, and the inner and outer magnets are made into ring segments. There are two central magnets, two inner magnets, and two outer magnets. The outer magnets attract each other using their north and south pole points, the inner magnets attract each other using their north and south pole points, and the central magnets repel each other using their north and south pole points. The central magnet is located in the gap between the inner and outer magnets, where the inner and outer magnets attract each other using their opposite poles. The left-hand central magnet repels the left-hand inner and outer magnets, and the right-hand central magnet attracts the right-hand inner and outer magnets. A shaft runs from left to right, connecting a bearing housing and a bearing. The bearing housing is fixed to a small base plate, which is secured to the base plate with screws. The small base plate and the base plate have corresponding screw holes. The left shaft continues to the right with a disc and a gear. The disc has a convex ring on its right-hand diameter surface, and an iron cylinder on the right side of the convex ring's diameter surface. A central magnet is fitted inside the iron cylinder, and the iron cylinder is also fitted inside the central magnet. Corresponding grooves are formed on the disc, gear, and shaft, with locking pins inserted into these grooves. The right shaft continues to the left with a bearing housing and a bearing. The bearing housing is fixed to a small base plate, which is secured to the base plate with screws. The small base plate and the base plate have corresponding holes for screws. The right shaft continues to the left with a disc and a gear. The disc has a convex ring on its left-hand diameter surface. A central magnet is fixed to the left-hand diameter surface of the convex ring with screws. Corresponding holes are formed on the convex ring and the central magnet. Corresponding grooves are formed on the gear, disc, and shaft, with locking pins inserted into these grooves. The right gear connects to the left gear. Two external magnets are mounted in a frame on the base plate. The frame is not sealed on the left or inside; the left side is open for mounting the external magnets. A fixed iron plate surrounds the inner side of the left external magnet. Two inner magnets are mounted within a frame around the outer perimeter of the cylinder. This frame is not sealed off from the outside or the front of the cylinder. An iron plate is fixed to the outer perimeter of the left inner magnet. The cylinder is fixed to a connecting rod, which is fixed to a base plate. It is possible to omit the two iron cylinders and the two iron plates on the left. The iron cylinders and iron plates can be replaced with objects that can be attracted by magnets. Two inner magnets can be used where they attract each other. The inner magnet enters through the small end of the gap between the outer magnets. The outer magnets repel each other using their north and south pole interfaces, or one outer magnet and the inner magnets repel each other using their north and south pole interfaces, or one inner magnet attracts or repels the two inner magnets. The two inner magnets can be formed into a ring with gaps between the segments.

[0006] The theoretical basis of this invention is: utilizing the permanent attraction and repulsion forces of magnets, as well as their ability to mutually reduce and increase magnetic force, and their capacity for self-circulation and multiple cycles. When magnets attract each other with their north and south poles facing each other, the magnetic force at the point of attraction decreases. Therefore, the farther apart the north and south poles are, the weaker the magnetic force in the middle section. This means the magnetic force is strong at the north and south poles and weak in the middle. Since the magnetic force in the middle section of the north and south pole interface is weak, when magnets attract only the middle section, the attraction can be reduced to almost nothing, resulting in a weak interaction. By separating inner and outer magnets that attract each other with their north and south poles facing each other, they can sandwich two middle magnets that attract each other with their north and south pole interfaces. The two middle magnets are positioned so that their north and south poles face each other, with one middle magnet attracting the inner and outer magnets and the other repelling them. The inner and outer magnets are fixed, while the two intermediate magnets are movable. First, the two intermediate magnets attract and close together, then enter the gap between the inner and outer magnets. After entering the gap, the two intermediate magnets separate again, and then exit the gap. When the two intermediate magnets enter the inner and outer magnets, the attractive and repulsive forces are balanced. After entering the gap, the intermediate magnets attracted to the inner and outer magnets exert no attraction on the repulsive ones, and the repulsive ones exert no effect on the attraction. Only then do the two intermediate magnets separate, minimizing the force required to separate. When the two intermediate magnets exit the gap, the repulsive forces between the intermediate magnets increase, and the attraction forces also increase. Therefore, when the two intermediate magnets exit the gap, the attractive and repulsive forces are also balanced. This creates the additional attraction force that would have created when the two intermediate magnets initially attracted and closed together. When two central magnets repel each other using their north and south pole interfaces, one central magnet repels the inner and outer magnets, and the other central magnet attracts the inner and outer magnets. Using two outer magnets and two inner magnets, the inner and outer magnets attract each other using their opposite poles, and the two central magnets attract each other using their opposite poles. The outer magnets attract each other using their north and south pole interfaces, and the inner magnets attract each other using their opposite pole interfaces. The two central magnets only come together after entering the gap between the inner and outer magnets, and only begin to separate after leaving the gap. When two central magnets repel each other using their north and south pole interfaces, a piece of iron can be placed on each of the two opposite sides of the central magnet that repels the inner and outer magnets, and a piece of iron can be placed on the side of the inner and outer magnets that repels the central magnet.During operation, the left and right shafts rotate, causing the disc and the left and right center magnets to rotate. Two gears installed inside the left and right shafts ensure that the shafts rotate at the same speed and in the same direction. The left and right center magnets enter the gap between the inner and outer magnets through the larger end of the gap between the outer magnets. The left center magnet repels the inner and outer magnets, while the right center magnet attracts them. This balances the attraction and repulsion forces of the left and right center magnets when they enter and exit the gap between the inner and outer magnets. The gap between the left and right center magnets narrows before they exit, and widens after they exit. The repulsion force when the gap between the left and right center magnets widens pushes them to rotate. When the gap between the left and right center magnets narrows, there is no repulsion force. Since the attraction and repulsion forces of the inner and outer magnets are balanced when they enter and exit, there is excess repulsion force. This excess repulsion force is transmitted from the disc to the two shafts, and from the two shafts to the two gears, allowing the left shaft to simultaneously transmit the rotational force of the left and right center magnets.

[0007] Advantages and effects of the present invention:

[0008] 1. High efficiency.

[0009] 2. Simple to manufacture and small in size.

[0010] 3. Environmentally friendly. Attached image description:

[0011] Figure 1 This is a schematic diagram of the structure of the magnet with quantitative interaction becoming quantitative interaction device of the present invention.

[0012] Drawing number identifiers: (1, 2) shaft, (3, 4) gear, (5, 6) bearing, (7, 8) bearing seat, (9, 10) screw, (11, 12) small base plate, (13) base plate, (14, 15) round piece, (16, 17) convex ring, (18, 19) middle magnet, (20, 21) inner magnet, (22, 23) outer magnet, (24, 25) frame, (26) connecting rod, (27, 28) iron sheet, (29, 30) iron cylinder, (31) cylinder. Detailed implementation method:

[0013] As shown in the figure, the shaft (1) passes through the bearing seat (7) and the bearing (5) to the right. The bearing seat (7) is fixed on the small base plate (11). The small base plate (11) is fixed on the base plate (13) with screws (9). The small base plate (11) and the base plate (13) have corresponding holes for screws (9). The shaft (1) then passes through the disc (14) and the gear (3) to the right. The disc (14) has a convex ring (16) on the right side of its diameter surface. The convex ring (16) has an iron cylinder (30) on the outer periphery of the right side of its diameter surface. The iron cylinder (30) has a central magnet (18) inside its inner surface. The central magnet (18) has an iron cylinder (29) inside its inner surface. The shaft (1), the gear (3) and the disc (14) have corresponding grooves. The grooves are fitted with locking pins. Shaft (2) passes through bearing housing (8) and bearing (6) to the left. Bearing housing (8) is fixed on small base plate (12). Small base plate (12) is fixed on base plate (13) with screw (10). Small base plate (12) and base plate (13) have corresponding holes for screw (10). Shaft (2) then passes through disc (15) and gear (4) to the left. Disc (15) has a convex ring (17) on the left side of its diameter surface. The middle magnet (19) is fixed on the left side of the convex ring (17) with screw. The convex ring (17) and middle magnet (19) have corresponding holes for screw. Shaft (2), gear (4) and disc (15) have corresponding grooves. Locking pins are inserted into the grooves. A connecting rod (26) is mounted on the base plate (13), and a cylindrical tube (31) is mounted on the connecting rod (26). A frame (24) is fixed around the cylindrical tube (31). Inner magnets (20, 21) are installed inside the frame (24). An iron plate (27) is installed around the inner magnet (20). The frame (24) is not sealed on the outside and the front of the steering wheel. A frame (25) is mounted on the base plate (13). Outer magnets (22, 23) are installed inside the frame (25). An iron plate (28) is installed around the outer magnet (22). The frame (25) is not sealed on the inside and the left side. During installation, the inner magnets (20) and (21) of the fixed iron plate (27) are first installed from the front of the steering wheel and fixed inside the frame (24) on the cylindrical tube (31) of the connecting rod (26). The locking pin and the inherent convex ring (16), the circular piece (14) of the iron cylinder (30) are attached to the shaft (1), then the locking pin and the gear (3) are attached to the shaft (1), the bearing (5) is attached to the shaft (1), and then the central magnet (18) of the inherent iron cylinder (29) is attached to the iron cylinder (30). The bearing seat (7) connected to the small base plate (11) is inserted from the left end of the shaft (1) so that the bearing seat (7) covers the bearing (5). The small base plate (11) is fixed to the base plate (13) with screws (9) so that the gear (3) is inserted into the cylinder (31). The iron cylinder (29) covers the cylinder (31), the inner magnet (20) and the iron piece (27).Install the locking pin and the disc (15) of the fixed convex ring (17) onto the shaft (2), then install the locking pin and the gear (4) onto the shaft (2). Fix the middle magnet (19) onto the convex ring (17) with screws. Install the bearing (6) onto the shaft (2). Insert the bearing seat (8) connected to the small base plate (12) into the right end of the shaft (2), so that the bearing seat (8) covers the bearing (6). Fix the small base plate (12) onto the base plate (13) with screws (10). Insert the gear (4) into the cylinder (31) and connect it to the gear (3), so that the middle magnet (19) covers the cylinder (31) and the inner magnet (21). Install the outer magnet (22) and outer magnet (23) of the fixed iron sheet (28) into the frame (25) from the left.

Claims

1. A magnet with quantitative interaction transforming into quantitative interaction, characterized in that: The shaft (1) passes through the bearing housing (7) and bearing (5) to the right. The bearing housing (7) is fixed on the small base plate (11). The small base plate (11) is fixed on the base plate (13) with screws (9). The small base plate (11) and the base plate (13) have corresponding holes for screws (9). The shaft (1) then passes through the disc (14) and gear (3) to the right. The disc (14) has a convex ring (16) on the right side of its diameter surface. The convex ring (16) has an iron cylinder (30) on the outer periphery of the right side of its diameter surface. The iron cylinder (30) has a central magnet (18) inside its inner surface. The central magnet (18) has an iron cylinder (29) inside its inner surface. The shaft (1), gear (3) and disc (14) have corresponding grooves. The grooves are fitted with locking pins. Shaft (2) passes through bearing housing (8) and bearing (6) to the left. Bearing housing (8) is fixed on small base plate (12). Small base plate (12) is fixed on base plate (13) with screw (10). Small base plate (12) and base plate (13) have corresponding holes for screw (10). Shaft (2) then passes through disc (15) and gear (4) to the left. Disc (15) has a convex ring (17) on the left side of its diameter surface. The middle magnet (19) is fixed on the left side of the convex ring (17) with screw. The convex ring (17) and middle magnet (19) have corresponding holes for screw. Shaft (2), gear (4) and disc (15) have corresponding grooves. Locking pins are inserted into the grooves. A connecting rod (26) is fixed on the base plate (13), a cylinder (31) is fixed on the connecting rod (26), a frame (24) is fixed on the outer periphery of the cylinder (31), an inner magnet (20, 21) is installed inside the frame (24), an iron sheet (27) is installed on the outer periphery of the inner magnet (20), and the outer periphery and the front of the frame (24) are not sealed. A frame (25) is installed on the base plate (13), an outer magnet (22, 23) is installed inside the frame (25), an iron sheet (28) is installed on the inner periphery of the outer magnet (22), and the inner surface and the left side of the frame (25) are not sealed.

2. The magnet-to-quantum interaction device according to claim 1, characterized in that, The inner magnets (20, 21) and the outer magnets (22, 23) attract each other by having one side and one pole facing each other. The inner magnets (20) and (21) attract each other by having their north and south pole interfaces facing each other, and the outer magnets (22) and (23) attract each other by having their north and south pole interfaces facing each other.

3. The magnet-based quantity interaction to quantity infinity interaction device according to claims 1-2, characterized in that, The middle magnets (18, 19) are opposite each other and repel each other by their north and south pole interfaces. They are opposite to the inner and outer magnets (20, 21, 22, 23) by their one-sided poles. The middle magnet (18) repels the inner magnet (20) and the outer magnet (22), while the middle magnet (19) attracts the inner magnet (21) and the outer magnet (23).

4. The magnet-based quantity interaction to quantity infinity interaction device according to claims 1-3, characterized in that, The inner magnet (20) and outer magnet (22) are opposite each other and repel each other, so the iron tube (29, 30) is not needed. The inner magnet (20) and the inner magnet (18) are opposite each other and repel each other, so the iron sheet (27) is not needed. The outer magnet (22) and the inner magnet (18) are opposite each other and repel each other, so the iron sheet (28) is not needed.

5. The magnet-based quantity interaction to quantity infinity interaction device according to claims 1-4, characterized in that, It involves inner and outer magnets attracting each other with one pole facing each other, with a gap between them sandwiching an attractive middle magnet. This ensures that the north and south poles of the sandwiched middle magnet have no attractive or repulsive force against the magnets. Alternatively, a middle magnet that attracts or repels the north and south poles of the sandwiched middle magnet can be sandwiched between the inner and outer magnets. When the two middle magnets are sandwiched simultaneously, one middle magnet attracts the inner and outer magnets, while the other repels them. This balances the attractive and repulsive forces when the two middle magnets move in and out of the inner and outer magnets, resulting in a smaller force required for movement.

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