Magnetic field power generation battery

Abstract

The invention discloses a magnetic field power generation battery which is a static magnetic field power generation battery of power generation and supply equipment and can supply power to electric appliances in various fields. The equipment does not store electricity, generates electricity and outputs current as long as a power switch is turned on, and stops generating electricity and does not output current as long as the switch is turned off. The equipment is not a perpetual motion machine, power generation can be stopped along with weakening and extinction of the magnetic field, and full blood resurgence can be achieved by replacing the magnetic field or replacing the magnet block or magnetizing the magnet block. When the device is damaged, damaged, broken down, not on fire, not exploded and free of gas, only power generation is stopped. When the equipment is applied, a generator is carried at any time, so that the electricity utilization problem of free endurance is solved.

Description

Technical Field

[0001] The present invention relates to the field of electronic products and is a magnetic field power generation battery for power generation and power supply equipment. The present invention solves the problem of power consumption with unlimited endurance. Technical Background

[0002] Batteries on the market have made great progress and are used in various fields, but they have also encountered a series of problems: short lifespan, slow charging, battery life concerns, fire hazard, etc. This invention focuses on solving these problems. Summary of the Invention

[0003] The present invention provides a magnetic field power generation device (magnetic field power generation battery), which aims to solve the problems of short life, slow charging, endurance anxiety, fire and other problems in existing battery technology, and realizes the problem of power use with unlimited endurance.

[0004] Specifically, the magnetic field power generation device (magnetic field power generation cell) of the present invention is as follows.

[0005] A negative electrode material (zinc, aluminum, etc.) serves as the negative electrode, a superconducting material (aluminum, copper, etc.) serves as the power source, and a lithium-ion positive electrode material (lithium cobalt oxide, lithium iron phosphate, etc.) serves as the positive electrode. The lithium-ion positive electrode material acts as a pump, extracting and transporting electrons. The negative electrode material + superconducting material + positive electrode material = a small unit electron generator. When the electron generator is near a magnetic field, the positive charges in the superconducting material align. At this point, the lithium-ion positive electrode material captures the electrons on the surface of the superconducting material. The lithium-ion positive electrode material then outputs the electrons through a wire to the electrical device, where they flow back through the negative electrode material to the superconducting material, forming a circuit. The lithium-ion positive electrode material then continuously outputs electrons, thus generating voltage and current. Multiple small unit electron generators connected in parallel or series generate a certain voltage and current, forming a medium unit. Multiple medium units connected in parallel or series form a large unit, and so on, resulting in even greater voltage and current. BRIEF DESCRIPTION OF THE DRAWINGS

[0006] Here we use a magnet block as an example to provide the magnetic field.

[0007] Figure 1 It is a structural schematic diagram of the present invention. Figure 11. The magnet provides the magnetic field; 2. The cathode material (zinc, aluminum, etc.) absorbs the negative charge flowing back and feeds it back to the superconducting material; 3. The superconducting material (aluminum, copper, etc.) acts as the power source. The magnetic field aligns the positive charges in the superconducting material; 4. The lithium-ion cathode material (lithium cobalt oxide, lithium iron phosphate, etc.) acts as a pump, extracting and transporting electrons. The lithium-ion cathode material captures electrons on the surface of the superconducting material and transmits them through wires to the electrical device, where they flow back to the cathode material and then to the superconducting material, forming a loop; 5. The electron collection network collects electrons output by the lithium-ion cathode material and transmits them; 6. The insulating layer separates the two small units, preventing electrons from wandering around and causing no current output. Implementation Method

[0008] Implementation 1: Cylindrical power generation battery

[0009] A cylindrical hollow magnet is selected as the magnetic field supply. To reduce the size of the electron generator, a negative electrode material or superconducting material is selected to form a long thin strip as a carrier. The negative electrode material, superconducting material, lithium-ion positive electrode material, and insulating material are sprayed or electroplated onto the carrier to form the electron generator. The electron generator is then rolled into a cylinder and placed inside the cylindrical hollow magnet. Wires (the negative electrode wire is made of the negative electrode material) are connected to the positive and negative electrodes. The cylindrical power generation cell is then sealed and waterproofed with magnetic field isolating material.

[0010] Implementation 2: Chip-to-battery power generation

[0011] By utilizing nanotechnology, if necessary, a photolithography machine can be used to make negative electrode materials, superconducting materials, lithium-ion positive electrode materials, insulating materials, and wires (negative electrode wires are made of negative electrode materials) into small unit electron generators using nanotechnology, and superimposed in parallel and series to obtain the required electrical value, thus obtaining a chip-sized superimposed electron generator, using a superstrong magnet to provide a magnetic field, and using magnetic field isolation materials to package the finished chip power generation battery.

[0012] Implementation 3: Square power generation battery

[0013] In order to reduce the volume of the electron generator, a negative electrode material or a superconducting material is selected to be made into a long thin strip as a carrier, and the negative electrode material, superconducting material, lithium ion positive electrode material, and insulating material are sprayed or electroplated on the carrier to form an electron generator. The electron generator is rolled into the required square shape, and the wires (the negative electrode wires are made of negative electrode materials) are connected to the reserved output wires. The magnet block provides a magnetic field, and the magnet block and the square electron generator are packaged together with a magnetic field isolating material to form a square power generation battery.

[0014] Implementation 4: Replaceable magnet blocks to generate electricity

[0015] An electron generator is constructed from negative electrode materials, superconducting materials, lithium-ion positive electrode materials, insulating materials, an electron collection network, and wires (the negative electrode wire is made of the negative electrode material). Multiple electron generators are connected in parallel and series to achieve the desired voltage. Multiple strong magnets are used at various locations to provide the magnetic field. The magnets can be removed and replaced, and packaged with magnetic field-isolating material. When the magnetism of the magnets weakens to a certain value, the device can be fully restored by replacing them. Models with various voltage values ​​can be manufactured to meet specific application needs.

[0016] Implementation 5: Wireless Power Receiving Equipment

[0017] The electron generator is made of negative electrode materials, superconducting materials, lithium-ion positive electrode materials, insulating materials, electron collection nets, and wires (the negative electrode wire is made of the negative electrode material). Multiple electron generators can be connected in parallel or series to achieve the required electrical value and assembled into a package. When receiving an external magnetic field, current can be output.

Claims

1. A device that uses a negative electrode material (zinc, aluminum, etc.) as the negative electrode, a superconducting material (aluminum, copper, etc.) as the power source, and a lithium-ion positive electrode material (lithium cobalt oxide, lithium iron phosphate, etc.) as the positive electrode to generate electricity in a magnetic field environment.

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