Electromagnetic induction energizing method

Abstract

The invention relates to an electromagnetic induction method and a novel magnetic conductive material. The unique performance of the magnetic conductive material has selective magnetic conductivity, and if the magnetic conductive material is selected to conduct the magnetic field A, the effect on the magnetic field B loses the conducting capacity; if the conducting magnetic field B is selected, the effect on the magnetic field A loses the conducting capability. The magnetic conductive material eliminates the electromagnetic resistance of an induced current magnetic field in the power generation device and the back electromotive force in the electric device, so that the output power of the power generation device and the electric device is several times to dozens of times greater than the input power. A part of the output power of the electromagnetic induction device is temporarily stored and converted to be provided to the input end of the device, and a generator set and a motor set are respectively formed, so that the set can continuously output electric energy or mechanical energy to the outside under the condition of no external input energy.

Description

Technical Field

[0001] The present invention relates to an electromagnetic induction method, in particular to a method used in an electromagnetic induction device in which a closed conductive coil moves in a magnetic field to cut magnetic lines of force. Background Art

[0002] Throughout history, people have manufactured various types of electromagnetic induction devices such as generators and motors based on the principle of electromagnetic induction. When a generator outputs electrical energy, it is subject to a major force, which is the electromagnetic force, also called the Ampere force. This force is resistance here, so it is called the electromagnetic resistance of the generator. When an electric device outputs kinetic energy, the biggest obstacle to the input current is the obstacle of the back electromotive force. The biggest drawback of the existing electromagnetic induction method is that it cannot eliminate the electromagnetic resistance in the generator and the back electromotive force in the electric device. Summary of the invention

[0003] Purpose of the invention: The problem to be solved by this invention is to provide an electromagnetic induction method to eliminate the electromagnetic resistance of a power generation device and the back electromotive force of an electric device, so as to solve the problem that the prior art cannot eliminate the electromagnetic resistance in a power generation device and cannot eliminate the back electromotive force in an electric device.

[0004] Technical solution: A new type of magnetic conductive material, which is called "AF magnetic conductive material". For the convenience of explanation, the original magnetic field that causes induced current and voltage in the electromagnetic induction device is referred to as the "original magnetic field", and the new magnetic field generated by the current in the closed conductive coil is referred to as the "new magnetic field". The unique property of AF magnetic conductive material is that it has selective magnetic conductivity. If the original magnetic field is selected to be transmitted in the electromagnetic induction device, the electromagnetic force effect on the new magnetic field will lose the transmission ability. If the new magnetic field is selected to be transmitted, the effect on the original magnetic field will lose the transmission ability. The discovery of AF magnetic conductive material solves the above problems. In the electromagnetic induction device, AF magnetic conductive material is used to make the magnetic core of the closed conductive coil. When working in the power generation mode, the original magnetic field is selected to be conducted, and the electromagnetic force on the new magnetic field loses its ability to conduct. Since the AF magnetic material conducts the original magnetic field normally, the closed conductive coil obtains normal induced voltage and current to output electrical energy. Since the AF magnetic material loses its ability to conduct the electromagnetic effect of the new magnetic field, the electromagnetic force of the new magnetic field is very small, as small as one thousandth of the ordinary magnetic core, which almost completely eliminates the electromagnetic force of the new magnetic field. This electromagnetic force manifests as resistance in the power generation device, so the electromagnetic resistance of the power generation device is eliminated. When working in the motor mode, the new magnetic field is selected to be conducted, and the electromagnetic force on the original magnetic field loses its ability to conduct. The magnetic flux of the original magnetic field cannot pass through the closed conductive coil to change, and the back electromotive force cannot be generated in the closed conductive coil, so the back electromotive force is eliminated. Due to the normal conduction of the new magnetic field by the AF magnetic material, the new magnetic field of the closed conductive coil normally interacts with the original magnetic field to output dynamic energy.

[0005] Beneficial effects: The existing electromagnetic induction method cannot eliminate the electromagnetic resistance of the power generation device and the back electromotive force of the electric device, so the input power has to be increased to offset the consumption of electromagnetic resistance and back electromotive force to maintain the normal operation of the electromagnetic induction device. This invention eliminates the electromagnetic resistance of the power generation device and the back electromotive force of the electric device, so that the input power of the electromagnetic induction device does not need to offset the consumption of electromagnetic resistance or back electromotive force to operate normally. Therefore, under the condition of outputting the same power, the input power is reduced by about 90% compared with the prior art. In other words, this invention makes the output power of the electromagnetic induction device several to dozens of times greater than the input power. This invention can also be improved as follows: part of the output power of the above-mentioned power generation device is used for production and life, and the other part is temporarily stored (for example: using capacitors or batteries, etc.) and converted into power (the above-mentioned electric device can be used) and provided to the input end of the device, so that the device can continuously output electrical energy without any external power input. The power generation device group formed by this method has become a zero-pollution, zero-cost electrical energy source. The generator set can replace thermal power units, hydropower units, wind power units, etc. without providing any fuel. Part of the power output of the above-mentioned electric device is used for production and life, and the other part is converted into electric power (the above-mentioned power generation device can be used) and provided to the input end to replace the original electric power input, so that the electric device can continuously output power energy without any external power input. BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 Schematic diagram of the power generation device Figure 2 Schematic diagram of electric device DETAILED DESCRIPTION Embodiment 1: Figure 1 This is a schematic diagram of a power generation device with a designed output power of 10kw. Stator A is composed of a magnetic circuit made of stacked silicon steel sheets, neodymium iron boron permanent magnets, a metal casing, etc. Rotor B is composed of a magnetic core made of AF magnetic conductive material and a conductive coil W wound on the magnetic core. Rotor B selects to conduct the magnetic field of stator A, and coil W obtains an induced current during rotation to output electrical energy. Since rotor B loses its conduction effect on the magnetic field resistance of coil W, rotor B loses its rotation resistance, thereby reducing power by 80% to 95%. After testing, when the output power is 10kw, the input power, including copper and iron losses, is only 1200w. The output power is close to 8.3 times the input power, and the energy-enhancing effect is very obvious. Example 2: Figure 2This is a schematic diagram of an electric device. The designed output power is 10kw. Stator A is composed of a magnetic circuit made of stacked silicon steel sheets, a neodymium iron boron permanent magnet, a metal shell, etc. The rotor B is composed of a magnetic core made of AF magnetic conductive material and a conductive coil wound on the magnetic core. The rotor B selects to dredge the magnetic field of the coil W. The magnetic field of the input coil W current interacts with the magnetic field of the stator A to generate a rotating force and output kinetic energy. Since the rotor B loses its ability to conduct the magnetic field of the stator A, the magnetic field of the stator A cannot pass through the coil W to form a back electromotive force, so the input current loses the hindering effect of the back electromotive force, thereby reducing the input power by 80%~95%. After testing, when the output power is 10kw, the input power including copper and iron losses is only 1300w. The output power is 7.6 times the input power, and the energy-enhancing effect is very obvious.

Claims

1. An electromagnetic induction method characterized by The electromagnetic resistance of induced current in the power generation device is eliminated by using new magnetic conductive materials.

2. The electromagnetic induction method according to claim 1, characterized in that A portion of the output power of the power generating device can be converted and provided to the input end to replace the original input power source to maintain the normal operation of the power generating device.

3. An electromagnetic induction method characterized by The back electromotive force in the electric device is eliminated by using new magnetic conductive materials.

4. The electromagnetic induction method according to claim 3, characterized in that A portion of the output power of the electric device can be converted and provided to the input end to replace the original input power supply to maintain the normal operation of the electric device.

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