Continuous gaussian accelerator type magnetic force amplifying device

Abstract

To provide an amplifying device that uses power of a magnet to generate electrical energy output with a small rotational input to convert the energy stored in the magnetic field during magnetic attraction and repulsion into other energy sources, and extracts continuous energy.SOLUTION: A reciprocating magnet is attached to an elastic body, a ring-shaped rotating magnet with magnets of opposite polarity spaced evenly is rotated directly below the reciprocating magnet, and magnetic energy is converted into electrical energy, and the magnetic energy contained in the magnet is repeatedly extracted by attracting the magnet attached to the elastic body with the attractive force acting between the ring-shaped rotating magnet and the reciprocating magnet, while the repulsive force pulls them apart, and reciprocating the magnet attached to the elastic body near an electromagnetic coil.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] This invention relates to an amplifier that uses the power of a magnet to obtain electrical energy output with a small rotational input. It relates to technology that converts the energy stored in the magnetic field when the magnet is attracted or repelled into other energy and extracts energy continuously.

[0002] Although there is no prior art example, it is similar to a Gaussian accelerator, which uses the magnetic field energy of a magnet to obtain high-speed kinetic energy at a low speed. Also, since the consumed energy is continuously supplied from magnetic energy, we will call it a continuous Gaussian accelerator-type magnetic force amplifier. [Background technology]

[0003] The saturable reactor and Gaussian accelerator are used as background technology for the device of the present invention that uses a magnetic field for amplification. A saturable reactor is also called a magnetic amplifier. The present invention is not a magnetic amplifier, but is called a magnetic power amplifier to distinguish it from a magnetic amplifier. Although the function of the present invention is different from that of a magnetic amplifier, the saturable reactor is used as background technology because the names are similar.

[0004] A saturable reactor is a reactor with an iron core that has a steep saturation characteristic. One iron core has a DC winding and the other has an AC winding. By changing the excitation current of the DC winding, the reactance of the AC circuit can be changed, and the current on the AC winding side can be controlled.

[0005] A saturable reactor is a control device that uses magnetism to control large currents and voltages with small signals. It does not extract energy greater than the input, but functions in a similar way to a transistor.

[0006] A Gaussian accelerator is a phenomenon in which a magnet and two or more iron balls arranged in a line are placed on an orbit, and when another iron ball is rolled from the end of the magnet and caused to collide, the iron ball at the other end is ejected at a speed greater than that of the rolled iron ball and begins to move.

[0007] This is a phenomenon in which a rolling iron ball is accelerated by the attractive force of a magnet just before impact, and the iron ball flies out and rolls at a speed greater than the speed at which it was rolled.

[0008] The speed of the iron ball being rolled through the Gaussian accelerator just before and just after the collision is smaller than the speed just before the collision due to air resistance and friction.

[0009] A Gaussian accelerator consumes energy due to air resistance and frictional resistance, and cannot continuously extract energy greater than the potential energy of the magnet. Even if several Gaussian accelerators are connected in stages, the speed and kinetic energy of the ejected iron ball increases, but it is not possible to extract more energy than the energy of the magnetic field.

[0010] This invention supplies magnetic energy periodically and continuously, converts it into another form of energy, and extracts it. In that it converts magnetic energy into kinetic energy, it is similar to a Gaussian accelerator. Therefore, this invention is called a continuous Gaussian accelerator type magnetic force amplifier. [Prior art documents] [Patent documents]

[0011] [Patent Document 1] Supersaturated Reactor Nippon Foundation Library [Patent Document 2] Gaussian accelerator Wikipedia Summary of the Invention [Problem to be solved by the invention]

[0012] The first challenge is how to make the magnet work both when it is moving due to its attractive and repulsive forces, and how to convert the continuously supplied magnetic energy into electrical energy.

[0013] The second challenge is to make the object do work both when it is moving due to attractive forces and when it is moving due to repulsive forces, and to extract the work done by both attractive and repulsive forces.

[0014] The third challenge is to eliminate the force required when switching from a state in which the magnets are moving due to attractive forces to a state in which they are moving due to repulsive forces.

[0015] The fourth challenge is to reduce mechanical loss and allow the magnets to work efficiently. [Means for solving the problem]

[0016] In order to make the magnet work both when the object is moving due to attractive or repulsive forces, a ring-shaped magnet with magnets of different polarities evenly arranged is rotated directly below a magnet that moves back and forth attached to an elastic body, and the energy of the magnet is converted into mechanical energy, and a means is provided to further convert the mechanical energy into electrical energy.

[0017] Hereinafter, a means for converting the energy of a magnet into mechanical energy and then converting the mechanical energy into electrical energy will be referred to as a means for converting the energy of a magnet into other energy.

[0018] In order to make the elastic body do work both when moving by attractive force and when moving by repulsive force and to extract the energy, a ring-shaped magnet with magnets of different polarities evenly arranged is rotated directly below a magnet that moves back and forth attached to the elastic body, and the ring-shaped magnet pulls the magnet that moves back and forth when it is attracted, storing elastic energy in the elastic body, and a means is provided to release the stored elastic energy when it is repulsed.

[0019] In order to eliminate the force required when switching from a state in which the magnet moves due to attractive forces to a state in which it moves due to repulsive forces, a crescent-shaped magnet with magnets of opposite polarity arranged symmetrically across its width is mounted on the same support base as a ring-shaped magnet with magnets of opposite polarity arranged evenly, which rotates, and the crescent-shaped magnet rotates directly below the magnet fixed to a fixed frame, providing a means for canceling out the rotational force acting between the reciprocating magnet and the ring-shaped magnet with magnets of opposite polarity arranged evenly.This magnet fixed to a fixed frame will be called a magnet that corrects the rotational force.

[0020] The means for converting the energy of the magnet into other energy, the means for canceling the force of the magnet acting in the direction of rotation, and the means for eliminating the force required when switching the state in which the magnet moves from an attractive force to a repulsive force are provided symmetrically with respect to the rotation plane of the rotating support base, and a means for preventing force from being applied in either the direction of rotation or perpendicular to the direction of rotation is provided.

[0021] In order to reduce mechanical loss and allow the magnet to work efficiently, a control circuit is provided to control the output current of the electromagnetic coil, the output of the control circuit is connected to a load, and the control circuit controls the current flowing through the electromagnetic coil, thereby providing a means for causing the vibration of the reciprocating magnet attached to the elastic body to resonate. [Effects of the Invention]

[0022] Since a means for converting the energy of the magnet into other energy is provided, the consumed energy can be periodically supplied from magnetic energy. The consumed electrical energy is supplied from magnetic energy.

[0023] A ring-shaped magnet with magnets of different polarities evenly arranged is rotated directly below a magnet that moves back and forth attached to an elastic body, and the magnet that moves back and forth is pulled when attracted, storing elastic energy in the elastic body. A means is provided to release the elastic energy when repulsed, so that work is done both when moving due to attractive force and when moving due to repulsive force, and the work done in both cases can be extracted as energy.

[0024] A means is provided to cancel the force acting in the rotational direction between the reciprocating magnet and the ring-shaped rotating magnet, which is made up of magnets of opposite polarity evenly arranged, so that the force required when switching the state in which the magnet moves from an attractive force to a repulsive force can be eliminated.

[0025] A means for converting the magnetic energy of the magnet into other energy and a means for canceling out the magnetic force acting in the rotational direction are provided symmetrically with respect to the rotational plane of the disk-shaped support base that fixes the ring-shaped rotating magnet and the crescent-shaped magnet, and since the force acting in the rotational direction of the disk-shaped support base and the force acting in the direction perpendicular to the rotational direction cancel each other out, the disk-shaped support base can be rotated with a small force.

[0026] Since a means is provided to make the vibration of the reciprocating magnet attached to the elastic body resonate, the efficiency of converting mechanical energy into electrical energy can be improved. [Brief explanation of the drawings]

[0027] [Figure 1] Configuration of the continuous gauss accelerator type magnetic force amplifier of the present invention [Figure 2] The relationship between the position of the magnet and the force acting on the magnet when the position of the reciprocating magnet of the continuous Gauss accelerator type magnetic force amplifier of the present invention is changed [Figure 3] Relationship between the forces acting in the rotational direction of the continuous Gaussian accelerator-type magnetic force amplifier of the present invention DETAILED DESCRIPTION OF THE INVENTION

[0028] Figure 1 shows the configuration of a continuous Gaussian accelerator-type magnetic force amplifier of the present invention. The reciprocating magnets are configured with two magnets that are attracted downward and two magnets that are attracted upward, for a total of four poles.

[0029] Figure 2 shows the relationship between the position of the reciprocating magnet of the means for converting the magnetic energy of the pair of upper and lower poles into other energy, and the direction and magnitude of the force acting on the magnet. The polarity of the magnet in the explanatory diagram of the magnet of the continuous gauss accelerator type magnetic force amplifier of the present invention is shown by displaying the cross section of the magnet, and only the polarity of the magnet that is actually acting is illustrated.

[0030] The continuous Gaussian accelerator type magnetic force amplifier in Figure 1 is composed of A means for converting magnetic energy into other energy, B means for pulling the reciprocating magnet when attracted, storing elastic energy in an elastic body, and releasing the elastic energy when repelled, C means for canceling out the force acting in the rotational direction, and D means for maintaining the vibration of the reciprocating magnet in a resonant state.

[0031] The means for converting magnetic energy A into other energy is composed of an electromagnetic coil 2, a reciprocating magnet 3, a ring-shaped rotating magnet 4, a support base for the rotating magnet 5, and an elastic body 6. The electromagnetic coil 2 may not use an iron core that moves inside the reciprocating magnet 3.

[0032] The electromagnetic coil 2 is attached to the fixed frame 1, and the reciprocating magnet 3 moves back and forth on the axis of the electromagnetic coil 2. The reciprocating magnet 3 is fixed to one end of the elastic body 6, and the other end is fixed to the fixed frame 1.

[0033] When the polarity of the reciprocating magnet 3 and the polarity of the ring-shaped magnet 4 are different, they pull on the elastic body 6, and when the polarities become the same, they release the elastic body 6, converting the magnetic energy stored in the magnet into elastic energy.

[0034] When the reciprocating magnet 3 comes near the electromagnetic coil 2, the electromagnetic coil 2 converts the kinetic energy of the elastic body into electrical energy.

[0035] The means for pulling the reciprocating magnet when B is attracted, storing elastic energy in the elastic body, and releasing it when repelled, is composed of a reciprocating magnet 3, a ring-shaped rotating magnet 4, a support base for the rotating magnet 5, and an elastic body 6.

[0036] The means for pulling the reciprocating magnet when B is attracted, storing elastic energy in the elastic body, and releasing it when repelled is to rotate the ring-shaped rotating magnet 4 at high speed directly below the reciprocating magnet 3, and when the reciprocating magnet 3 and the ring-shaped rotating magnet 4 have different polarities, they pull the elastic body 6, and when they switch to the same polarity, they are separated.

[0037] The reciprocating magnet 3 reciprocates on the axis of the electromagnetic coil, changing the magnetic flux of the electromagnetic coil 2 and generating an induced voltage due to electromagnetic induction. In this way, the magnetic energy of the magnet is converted into electrical energy.

[0038] When the ring-shaped rotating magnet (4) directly below the reciprocating magnet (3) comes closest, the force of attraction changes to the maximum repulsion. At this time, the force in the opposite direction to the direction of rotation also becomes maximum, so unless some measure is taken, the rotation of the ring-shaped rotating magnet (4) will stop.

[0039] In this invention, when the ring-shaped rotating magnet 4 directly below the reciprocating magnet 3 approaches, a means is provided to cancel the force acting in the rotational direction of C in order to make the rotation of the ring-shaped rotating magnet 4 smooth.

[0040] The means for canceling out the force acting in the rotational direction of C is composed of a support base for the rotating magnet 5, a crescent-shaped rotating magnet 8, and a magnet that corrects the rotational force 9.

[0041] The ring-shaped rotating magnet 4 and the crescent-shaped magnet 8 are fixed to the same disk-shaped support base 5, and a magnet 9 that corrects the rotational force is fixed to a fixed frame near the crescent-shaped rotating magnet 8. In this embodiment, the reciprocating magnet 3 and the magnet that corrects the rotational force 9 are magnets of different polarities.

[0042] When the gap between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 becomes shorter, the width of the crescent-shaped rotating magnet 8 becomes wider. When the gap between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 becomes wider, the width of the crescent-shaped rotating magnet 8 becomes narrower.

[0043] In other words, if the force acting between the reciprocating magnet (3) and the ring-shaped rotating magnet (4) increases, the width of the crescent-shaped rotating magnet (8) will become wider, and if the force acting between the reciprocating magnet (3) and the ring-shaped rotating magnet (4) decreases, the width of the crescent-shaped rotating magnet (8) will become narrower.

[0044] As shown in Figure 3, the relationship between the forces acting in the rotational direction of the continuous Gauss accelerator type magnetic force amplifier of the present invention is such that the rotational force acting between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 and the force acting between the crescent-shaped rotating magnet 8 and the magnet compensating for the rotational force 9 are equal in magnitude but opposite in direction, and therefore cancel each other out.

[0045] The ring-shaped rotating magnet (4) and the crescent-shaped rotating magnet (8) are fixed to the support base of the same rotating magnet (5), so no force is applied to rotate the support base of the rotating magnet (5).

[0046] The support base for the rotating magnet in 5 can be rotated with a small force, requiring only windage loss and mechanical friction of the bearing.

[0047] The four-pole continuous Gauss accelerator magnetic force amplifier of the present invention shown in Figure 1 has a means for converting magnetic energy A into other energy and a means for canceling out the force acting in the rotational direction C, both of which are provided symmetrically on the rotational plane of the support base for the rotating magnet 5. The support base for the rotating magnet 5 is in a magnetically levitated state. Therefore, only a small force is required to rotate the support base for the rotating magnet 5.

[0048] The means for maintaining the vibration of the reciprocating magnet D in a resonant state is composed of an electromagnetic coil 2, a control circuit 12, a load 13, a current sensor 14, and a magnetic sensor 15.

[0049] The reciprocating magnet 3 reciprocates on the axis of the electromagnetic coil 2. The magnetic flux that crosses the electromagnetic coil changes over time, so an induced electromotive force is generated according to Faraday's law.

[0050] The voltage induced in the electromagnetic coil 2 is applied to the control circuit 12 and is consumed as electrical energy by the load 13.

[0051] A control circuit 12 is provided to control the output current of the electromagnetic coil 2, and the current flowing through the electromagnetic coil is controlled by the control circuit so that the vibration of the reciprocating magnet 3 is in a resonant state. The control circuit 12 receives a current signal from the current sensor 14 and a position information signal of the magnet from the magnetic sensor 15, and is able to maintain the resonant state of the reciprocating motion.

[0052] The position of the reciprocating magnet 3 is detected by a magnetic sensor 15, and the current flowing through the electromagnetic coil 2 is detected by a current sensor 14.

[0053] In order to cancel out the rotational force acting between the reciprocating magnet (3) and the ring-shaped rotating magnet (4) and the force acting between the crescent-shaped rotating magnet (8) and the magnet that corrects the rotational force (9), it is necessary to input information about the position of the reciprocating magnet (3) and information about the current flowing through the electromagnetic coil (2) into the control circuit (2).

[0054] When the reciprocating magnet 3 approaches the electromagnetic coil 2, electromagnetic induction causes a current to flow in the electromagnetic coil that prevents changes in magnetic flux. When the reciprocating magnet is close to the electromagnetic coil, the current that flows due to electromagnetic induction flows in such a way that a repulsive force acts, and when the magnet tries to move away from the electromagnetic coil, the current flows in such a way that an attractive force acts.

[0055] The current is detected by a current sensor 14, and the position of the reciprocating magnet is detected by a magnetic sensor 15. The magnitude and timing of the current are controlled by a control circuit so that no force acts to inhibit the reciprocating motion of the reciprocating magnet 3, thereby maintaining the resonant state of the reciprocating motion.

[0056] If the current is too large, the amplitude of the reciprocating motion will be small when the magnet approaches the electromagnetic coil, causing the reciprocating motion to deviate from the resonance state.On the other hand, if the current is too small, the amplitude of the reciprocating motion will be large, but the electrical energy extracted by electromagnetic induction will be small.

[0057] Since the output is electrical energy, it is possible to store the electrical energy by using an inductor or capacitor as the load 13.

[0058] When an attractive or repulsive force is acting, an object with mass can be moved by the attractive or repulsive force, and work can be done by the magnetic force. When attractive and repulsive forces are acting, the direction of the force and the direction of movement are opposite, so it is not possible to do work using both attractive and repulsive forces at the same time.

[0059] The direction and timing of the force when the stored elastic energy is released is matched to the direction and timing of the repulsive force acting between the reciprocating magnet 3 and the ring-shaped rotating magnet 4. Therefore, the direction of the force acting when the elastic energy is released is the same as the direction of the repulsive force, so both attractive and repulsive forces are used.

[0060] In this invention, a means is used to pull the reciprocating magnet when B is attracted, store elastic energy in the elastic body, and release it when it is repelled. Energy is stored as elastic energy in the elastic body of 3 when it is attracted, and this energy is released when it is repelled, so work is done when both the attractive force and the repulsive force are acting.

[0061] Generally, magnetic energy is a conservative force, and according to the law of conservation of energy, the total energy remains constant even if the path changes. If the work is done only when either the attractive or repulsive force of the magnet is acting, the amount of work does not change even if the path changes.

[0062] In the present invention, the magnetic energy of the magnet is used to do work both when an attractive force and a repulsive force are acting, so the amount of work obtained is the sum of the work done during attraction and the work done during repulsion.

[0063] In this invention, the energy output extracted is not an infinite supply from somewhere, but is supplied from magnetic energy, and it is not a one-time supply, but a continuous supply.

[0064] The supplied magnetic energy is converted into mechanical energy by the elastic body and consumed as electrical energy by the electromagnetic coil. The supplied energy and consumed energy are the same, so the total energy does not change. Therefore, it does not violate the law of conservation of energy. Furthermore, this invention does not propose a perpetual motion machine.

[0065] Figure 2 shows the relationship between the position of the magnet and the forces acting on it when the position of the reciprocating magnet in the continuous Gauss accelerator-type magnetic force amplifier of the present invention changes. In particular, it explains the relationship between the forces acting perpendicular to the plane of rotation of the reciprocating magnet (3) and the ring-shaped rotating magnet (4).

[0066] Figure 3 shows the relationship between the forces acting in the rotational direction of the continuous Gauss accelerator-type magnetic force amplifier of the present invention. In particular, it explains the relationship between the forces acting in the rotational direction of the reciprocating magnet 3 and the ring-shaped rotating magnet 4, and the forces acting in the rotational direction of the crescent-shaped rotating magnet 8 and the magnet compensating for the rotational force 9. The operation at each step will be explained below.

[0067] In the first step, the ring-shaped rotating magnet 4 directly below the reciprocating magnet 3 faces each other with opposite polarities, creating an attractive force. The reciprocating magnet 3 is attracted to the ring-shaped rotating magnet 4, and elastic energy accumulates in the elastic body 6.

[0068] In the second step, since the reciprocating magnet 3 and the ring-shaped rotating magnet 4 have different polarities, the reciprocating magnet 3 is attracted to the ring-shaped rotating magnet 4, and elastic energy is accumulated in the elastic body 6.

[0069] In the third step, the reciprocating magnet 3 is attracted to the rotating ring-shaped magnet 4 and approaches the lowest point. The force acting between the reciprocating magnet 3 and the rotating ring-shaped magnet 4 reaches its maximum. The reciprocating magnet 3 is attracted, and elastic energy is stored in the elastic body 6.

[0070] When moving from the third step to the fourth step, the joint of the ring-shaped rotating magnet (4) is shaped like a triangular blade. Therefore, the ratio of north and south poles at the joint changes linearly. The polarity of the ring-shaped rotating magnet (4) directly below the reciprocating magnet (3) gradually switches from north to south.

[0071] The fourth step is when the reciprocating magnet 3 comes closest to the rotating ring-shaped magnet 4. The force perpendicular to the plane of rotation acting between the reciprocating magnet 3 and the rotating ring-shaped magnet 4 goes through a state where the attractive and repulsive forces are balanced, and then changes from a state where the attractive force is greater to a state where the repulsive force is greater. However, the force perpendicular to the plane of rotation acting on the support base for the rotating magnet 5 is the same magnitude but in the opposite direction because the reciprocating magnets 3 are installed above and below symmetrically with respect to the plane of rotation, so no perpendicular force is applied to the support base for the rotating magnet 5.

[0072] The rotational force acting between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 changes from a state where the rotational force and the counter-rotational force are balanced to a state where the rotational force is greater, and then to a state where the counter-rotational force is greater. Meanwhile, the rotational force between the crescent-shaped rotating magnet 8 and the magnet that corrects the rotational force 9 changes from a state where the rotational force and the counter-rotational force are balanced to a state where the rotational force is greater.

[0073] At this time, the rotational force acting between the reciprocating magnet 3 and the ring-shaped rotating magnet 4, and the rotational force acting between the crescent-shaped rotating magnet 8 and the magnet compensating for the rotational force 9, are equal in magnitude but opposite in direction. Therefore, the rotational forces cancel each other out, and no rotational force acts on the support base for the rotating magnet 5.

[0074] In the fifth step, a repulsive force acts between the reciprocating magnet (3) and the ring-shaped rotating magnet (4), trying to push out the reciprocating magnet (3). The force acting between the reciprocating magnet (3) and the ring-shaped rotating magnet (4) changes from an attractive force to a repulsive force. The magnitude of the force acting between the reciprocating magnet (3) and the ring-shaped rotating magnet (4) and the rotational force acting between the crescent-shaped rotating magnet (8) and the magnet compensating for the rotational force (9) are the same as in the third step, but in the opposite direction. As a result, the rotational forces cancel each other out and no force acts in the rotational direction.

[0075] When moving from the fourth step to the fifth step, the reciprocating magnet 3 moves away from its closest position. In the fifth step, the force acting between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 changes to a repulsive force. A pushing force acts on the reciprocating magnet 3, which tries to push out the elastic body 6, and at the same time, releases the elastic energy stored in the elastic body 6.

[0076] In the sixth step, a repulsive force acts between the reciprocating magnet 3 and the ring-shaped rotating magnet 4. As the distance between the reciprocating magnet 3 and the ring-shaped rotating magnet 4 increases, the magnitude of the repulsive force decreases. When they are at their farthest point, the polarity of the ring-shaped rotating magnet 4 switches. At this time, because the magnets are far apart, no force is applied to switch the polarity of the magnets.

[0077] The means for converting magnetic energy into other energies in the continuous Gaussian accelerator type magnetic force amplifier of the present invention converts magnetic energy into elastic energy, kinetic energy, and electrical energy, but it is also possible to convert the linear motion of a reciprocating magnet into the rotational motion of a crank mechanism and directly convert magnetic energy into mechanical energy. In the present invention, a method of converting magnetic energy into electrical energy is adopted, which is easy to handle.

[0078] In the embodiment of the present invention, the number of poles of the means for converting magnetic energy into other energy is four, but if the number of poles of this means for converting magnetic energy into other energy is increased, the energy that can be extracted will increase and the amplification degree of the continuous Gauss accelerator type magnetic force amplifier will also increase. The pulsation of the force acting in the rotational direction on the support base of the rotating magnet 5 will decrease, and the rotation will be stable.

[0079] In this invention, it is possible to increase the voltage and current by connecting the output of the electromagnetic coil 2 in series or in parallel. It is also possible to connect the rotation axis 10 of the magnet support base that rotates the multiple continuous Gauss accelerator-type magnetic force amplifiers. By sharing the support base of the magnet that rotates the magnet 5, it is possible to increase the amplification degree. Increasing the rotation speed of the support base of the magnet that rotates the magnet 5 also increases the output.

[0080] Comparing the continuous Gaussian accelerator type magnetic force amplifier of the present invention with a Gaussian accelerator, the Gaussian accelerator uses the attractive force of the magnet only once to extract the potential energy of the magnet, whereas the continuous Gaussian accelerator type magnetic force amplifier uses both the attractive force and the repulsive force to extract the potential energy of the magnet periodically and continuously.

[0081] Gaussian accelerators cannot be connected in parallel or series. On the other hand, continuous Gaussian accelerator-type magnetic amplifiers can be connected in parallel or series because they extract electrical energy as output. By increasing the number of parallel or series connections, the output can be increased as much as desired.

[0082] In a Gaussian accelerator, the potential energy of the magnet is lost through mechanical loss and friction. Gaussian accelerators have no means of periodically replenishing this lost energy. On the other hand, a continuous Gaussian accelerator type magnetic force amplifier periodically replenishes the energy lost through mechanical loss and friction from magnetic energy. As a result, a continuous Gaussian accelerator type magnetic force amplifier can sustain the amplification effect of extracting magnetic energy.

[0083] It is difficult to magnetically levitate a Gaussian accelerator, but a continuous Gaussian accelerator-type magnetic force amplifier can be magnetically levitated, reducing mechanical loss due to friction. Furthermore, if the device of the present invention is placed in a sealed container and the container is filled with hydrogen gas, air resistance can be reduced, making it possible to reduce loss. It is also possible to increase output by using superconducting magnets instead of permanent magnets. In this invention, magnetic energy is converted into elastic energy, but it is also possible to convert it into potential energy. [Industrial Applicability]

[0084] This continuous Gauss accelerator-type magnetic force amplifier can convert magnetic energy into other forms of energy and repeatedly extract magnetic energy continuously. Since the output is electrical energy, it can replace batteries. It can also be used as an environmentally friendly rotating device or power generator. It is expected to be used in a variety of mobility and industrial fields. [Explanation of symbols]

[0085] 1 is a fixed frame 2 is an electromagnetic coil 3 is a magnet that moves back and forth 4 is a ring-shaped magnet that rotates 5 is a support for the rotating magnet 6 is an elastic body 7 is a bearing 8 is a crescent-shaped rotating magnet 9 is a magnet that corrects the force in the rotation direction 10 is the rotation axis of the support base for the rotating magnet 11 is a guide 12 is a control circuit 13 is the load 14 is a current sensor 15 is a magnetic sensor A is a means of converting magnetic energy into other energy B is a means of attracting a magnet that reciprocates when attracted, storing elastic energy in an elastic body, and releasing it when repelled. C is a means to counteract the force acting in the rotational direction D is a means for maintaining the vibration of the reciprocating magnet in a resonant state.

Claims

1. The magnet is attached to a fixed frame, a magnet that moves back and forth near the electromagnetic coil is fixed to an elastic body, the other end of the elastic body is fixed to the fixed frame, and a ring-shaped magnet that rotates, with magnets of different polarities evenly arranged directly below the magnet that moves back and forth attached to the elastic body, is fixed to a disk-shaped support base and rotated, and a means for converting magnetic energy into mechanical energy and mechanical energy into electrical energy is provided, and a means for converting the magnetic energy into mechanical energy and the mechanical energy into electrical energy is provided, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, and a means for converting the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert ... which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy into electrical energy, which is configured to convert the magnetic energy into mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and the mechanical energy and a magnet fixed to a fixed frame in the vicinity of the magnet performing crescent-shaped rotational motion, and means for canceling out the force acting in the rotational direction; the rotation axis of the disk-shaped support base is used as an input, and the induced voltage generated in the electromagnetic coil is used as an output.

2. 2. The continuous Gauss accelerator type magnetic force amplifier according to claim 1, wherein the means for converting the multiple mechanical energies and converting the mechanical energies into electrical energy and the means for canceling out the magnetic force acting in the rotational direction are provided symmetrically with respect to the rotation plane of the ring-shaped rotating magnet and the disk-shaped support base to which the crescent-shaped magnet is fixed, so that the disk-shaped support base is magnetically levitated.

3. 2. A continuous Gauss accelerator type magnetic force amplifier according to claim 1, further comprising a current sensor for detecting the magnitude of the output current of said electromagnetic coil, a magnetic sensor for detecting the position of said reciprocating magnet, a control circuit for controlling the output current of said electromagnetic coil, a load connected to the output of said control circuit, and means for maintaining a resonant state of vibration of said reciprocating magnet, said means being configured to receive signals from said current sensor and magnetic sensor and control the current flowing to said electromagnetic coil with said control circuit.

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