Infinite automatic generator for power generation, energy storage, and amplification.

Abstract

This invention relates to Infinite Automatic Generators No. 1 through 19. Infinite Automatic Generators No. 1 through 19 generate, store, and amplify mechanical and electrical energy. Without the need for an external power source, Infinite Automatic Generators No. 1 through 19 can be used together in new products. Infinite Automatic Generators No. 1 through 19 are made of the following materials: --Rechargeable batteries, capacitors, and electric transformers of the same voltage but different outputs connected in parallel and / or series. --Capacitors have two different electrodes and may have holes. These capacitors are used in high-voltage insulators. --Magnets, diodes, coils, and transformers used in high-voltage insulators. --Transformers and electric motors using insulated magnetic alloy wire coils. --One or more circular magnets rotating on an axis are located near a magnet shaped like a rod or U-shape. --At least two torsade-insulated wires are used on the insulator, separated by high-voltage insulators. --Diodes, resistors, capacitors, and transistors used between two batteries. --Two parallel reverse-biased diodes used in high-voltage insulators.

Description

[Technical Field]

[0001] The present invention relates to infinite automatic generators used to generate and store DC and AC electrical and mechanical energy, such as batteries, battery chargers, capacitors, electrical transformers, dynamos, motors, etc., which produce electrical and mechanical energy continuously without the need for any external energy source. It relates to the use of these new infinite automatic generators to manufacture new types of batteries, generators, capacitors, transformers, motors, and related products, related to mechanical, electrical, thermal, and calorific aspects, which allow for continuous electrical and / or mechanical power generation for these products without the need for an external power source. [Background technology]

[0002] Electric generators and energy storage devices, such as (rechargeable) batteries, capacitors, electrical transformers, dynamos, and motors, require an initial power source to store, convert, charge, or generate electrical power. For example:

[0003] 1--The battery and storage capacitor can be charged with a battery charger (if available) when in use.

[0004] 2--Electrical transformers require electrical power to be converted into different voltages or currents.

[0005] Three--Dynamos require mechanical and / or electrical energy to generate power.

[0006] 4--An electric motor requires electricity to produce mechanical power.

[0007] 5--Mechanical motors (engines in cars, trains, planes, and ships) require gasoline, oil, coal, etc. to generate mechanical and electrical energy.

[0008] These electrical and mechanical generators – motors, chargers, transformers and storage devices – require external electrical and mechanical energy to continue functioning, which can come from sources such as oil, wind, solar, nuclear, bioenergy conversion, or burning coal or wood.

[0009] These mineral resources (oil, coal, gas, etc.) are limited on Earth and, according to scientists, are causing weather changes that are harmful to humanity and the planet (by increasing the climate and global temperatures), while conventional nuclear power plants can be life-threatening in the event of an accident.

[0010] (As happened at nuclear power plants such as Chernobyl, Fukushima, and Three Mile Island.) We want generators, transformers, and storage devices to generate, convert, and store electricity without harming the planet or humanity. We also want them to be easy, cheap, and continuously reliable.

[0011] Therefore, there is a need for unlimited, automatic power generation devices to be used as generators. And storage devices that provide these benefits are important for improving human living conditions and maintaining peace on Earth, for domestic, public, and private use, because conflicts over limited mineral resources (oil, coal, natural gas, etc.) used to power cars, trains, ships, planes, cities, etc. have led to wars on Earth.

[0012] I am petitioning that my invention be prevented from any dangerous use anywhere in the world, that it be forever prohibited from use by military or defense agencies, and that it may never be seized for all time, and that the benefits of the unlimited automatic generator be used exclusively for peaceful purposes.

[0013] Hence the need for continuous electrical and mechanical automatic power generation through the combined invention of some improved batteries and capacitors, some generators, some electrical transformers, (Zena) diodes and magnets.

[0014] High voltage (anti-static) insulation, metal foil, (insulated) wire, and / or motors constructed in a manner different from the usual general description.

[0015] 1- A typical battery contains a +metal anode (or carbon rod, etc.).

[0016] has a cathode made of a normal metal and an electrolyte made of an acid (or base), and a typical voltage of about 1 volt. Some high voltage batteries are made by connecting several 1 volt batteries in series, often with the - terminal of one battery connected to the + terminal of another battery. For example: For a 4.5 volt battery, three 1.5 volt batteries are connected in series.

[0017] 2-A regular rechargeable battery is similar to a regular battery, but the cathode (-) and anode (+) and electrolyte are selected with materials that allow them to release energy, and the rechargeable battery can be charged again by applying a higher current and higher voltage.

[0018] 3- Ordinary (storage) capacitors (and other capacitors) are very similar to batteries and can be used as power storage devices for rechargeable electricity generation. Polarized and non-polarized capacitors (high or low frequency) consist of two similar electrodes separated by an insulator.

[0019] 4- A typical electrical transformer has a core made of magnetic steel (such as silicon steel, iron-nickel alloy, or ferrite) and has a primary and secondary coil(s). The primary coil carries the alternating current and voltage, which is converted into a higher or lower voltage and / or current in the secondary coil, depending on the number of turns and size. The coils and insulated wire (usually copper) in the primary (input) and secondary (output) coils also depend on the alloy used in the transformer.

[0020] 5-A typical generator is made of a magnet or electromagnet with a strong magnetic field and has a rotating coil (inside a rotor).

[0021] The alternating magnetic field generated by a rotating coil creates an induced current whose voltage depends on the frequency of the rotor's rotation. (In some generators, there is a stationary coil, and a rotating or moving (electro)magnet creates an induced current in the coil.)

[0022] 6- A conventional mechanical generator is usually driven by a motor or requires steam, gasoline, gas, or electricity to produce rotational mechanical energy. This energy can also be transferred mechanically (through a shaft) and connected by a shaft to an electrical generator (dynamo) to produce electrical power.

[0023] While these devices mentioned above require power initially, can generate power, store power, and provide continuous power, my invention improves them so that they can generate and / or store power (energy) continuously using an infinite self-generating device without the need for additional external energy (power). This is achieved through the improved use of the devices mentioned in 1, 2, 3, 4, 5, and 6. Summary of the Invention

[0024] The invention provides several models of infinite automatic generators as set out in the accompanying claims.

[0025] Infinite Automatic Power Generator 1: An automatic rechargeable battery consisting of three or more rechargeable batteries with three different power capacities and the same voltage connected in parallel with a switch.

[0026] Infinite Automatic Generator 2: This is two sets of automatic rechargeable batteries with four batteries of the same voltage but different outputs connected in series and parallel, and equipped with a switch.

[0027] Infinite Automatic Generator 3: An automatic charger that connects two, three, or four (rechargeable) batteries with different power storage capacities in parallel at the same voltage and controls them with a switch.

[0028] Infinite Automatic Generator 4: An automatically rechargeable capacitor that connects two, three, or four capacitors of the same voltage but different capacities in series and parallel and controls them with a switch.

[0029] Infinite Automatic Generator 5: is an AC power generator that uses at least three capacitors of the same voltage but different capacities (high and / or low frequency) connected in parallel with a switch or resistor.

[0030] Infinite Automatic Generator 6: This AC generator consists of three transformers with the same voltage but different outputs connected in parallel and aligned in phase.

[0031] Infinite Automatic Generator 7: This is an alternating current generator made using one or two new types of transformers connected in a loop, with the input coils made of insulated magnetic alloy wire and the output coils made of insulated non-magnetic alloy wire.

[0032] Infinite Automatic Generator 8: This is an alternating current generator made of a coil with its core placed near an insulated vibrating magnet, with each end connected to two parallel, oppositely oriented isolated diodes.

[0033] Infinite Automatic Generator 9: This is a mechanical generator (or motor) in which a circular magnet rotates on an axis and is powered by the magnetic attraction between the circular magnet and a nearby movable or fixed bar magnet (C-shaped, U-shaped, or other shape).

[0034] Infinite Automatic Generator 10: This is a mechanical generator and alternator in which a coil is placed near a magnet with a hole in it. This circular magnet rotates against a rod or U-shaped magnet.

[0035] Infinite Automatic Generator 11: This is a new type of AC / DC electric motor that uses insulated magnetic alloy wire to further increase the alternating magnetic field in the coils and rotor / stator of the motor. This motor can be connected to a dynamo through the shaft, and this dynamo can supply power to this new type of motor.

[0036] Infinite Automatic Generator 12: This is an AC and DC power generator that uses an asymmetric capacitor mounted on a high voltage insulator. This asymmetric capacitor has two electrodes of different sizes separated by a thin high voltage insulator.

[0037] Infinite Automatic Generator 13: This is a transformer and AC / DC generator.

[0038] It consists of two insulated wires separated by a high voltage insulator, twisted together in the middle, and all placed inside the high voltage insulator.

[0039] Infinite Auto-Generator 14: This is an electron / ion beam and plasma generator that uses a modified insulated asymmetric capacitor with two electrodes of different sizes, each containing a hole, separated by a thin, high-voltage insulator that also contains a hole.

[0040] Infinite Automatic Generator 15: This is a device for generating high power, high frequency AC and DC power, consisting of two or more asymmetric capacitors connected in series, parallel, or ring configurations. Each asymmetric capacitor has two insulated conductors separated by high voltage insulators.

[0041] Infinite Automatic Generator 16: This is a type of generator for AC and DC power. It consists of insulated wires separated by high voltage insulators, twisted together at one end and held within the high voltage insulator.

[0042] Infinite Automatic Generator 17: It is an automatic rechargeable battery consisting of at least three (rechargeable) batteries with the same voltage and similar power. Infinite Automatic Generator 17 has a circuit containing diodes, capacitors, resistors, and transistors, which can be built into an integrated circuit. By connecting more than 50 diodes in parallel, an integrated circuit can be built that can replace diodes, capacitors, resistors, and transistors.

[0043] Infinite Automatic Power Generator 18: This is an automatic power electron beam generator, which consists of at least two anti-parallel diodes and a high-voltage insulator, and can generate electron beams continuously without any additional power source.

[0044] Infinite Automatic Generator 19: This is an AC generator that uses two infinite automatic generators and electronic circuits.

[0045] The Improved Infinite Automatic Power Generator (IAPGD) uses a combination of one or more Infinite Automatic Power Generators (IAPGD).

[0046] 1---Infinite Automatic Generators 1 and 2 are used as basic generators. The storage device generates and stores DC power. It provides continuous current at any voltage without an external power source. It consists of a combination of a rechargeable battery and a storage capacitor or rechargeable battery with the same voltage (V) but different energy storage (W / h) or capacitance (F). These batteries and capacitors are connected in parallel (positive to positive and negative to negative) and in series (positive to negative); the rechargeable battery and / or capacitor can be automatically and continuously charged without an external power source. In this case, the rechargeable battery or capacitor can be continuously self-charged without an external power source. At least one relay and one Zener diode are required. Alternatively, at least two or three reverse-connected diodes must be connected in parallel. (See Figure 1.d or Figure 1.e or Figure 1.f, these components reduce the flow of current from the positive (or negative) terminal of the charged battery to the positive (or negative) terminal of the battery with lower power storage. The rechargeable battery has the highest power (to prevent the battery from discharging).

[0047] 2---Infinite Automatic Generators 3 and 4 are generators used as chargers to automatically charge rechargeable batteries or capacitors without the need for an external power source. This generates continuous DC power. They consist of at least two (rechargeable) batteries and / or (storage) capacitors with the same voltage. When different power storage (W / h) and capacities (F) are connected in parallel (+ to +, - to -), the rechargeable batteries or capacitors connected to the charger automatically and continuously charge without an external power source. To prevent discharge, a "Circuit 162" using diodes and relays (Figures 1.d, 1.e, and 1.f) must be added. This "Circuit 162" should function as a switch in conjunction with the charger to recharge the rechargeable batteries.

[0048] The 3---Infinite Automatic Generator 5 is designed to be used as a high-voltage generator, continuously generating AC or DC power without the need for an external power source. It utilizes high-frequency and low-frequency capacitors, as well as polarized capacitors. At least three (high-frequency or low-frequency, or polarized) capacitors with the same voltage (V) but different capacitances (F) can be connected in parallel and self-charged while isolated by high-voltage (HV) (anti-static) insulators to create a system capable of continuously generating AC or DC power without the need for an external power source. It can be used as an automatically charging AC or DC charger, or as an AC or DC generator that continuously generates power without the need for external power. These capacitors and other connected devices must be isolated by high-voltage insulators when generating DC or AC power.

[0049] 4---Infinite Automatic Generator 6 is used as an AC generator. It is constructed using a transformer that can generate continuous (high or low frequency) AC current and power without the need for an external power source. When the inputs (and outputs) of three electrical transformers with the same voltage (V) and three different powers (W / h) are connected in parallel (and in phase), the transformers automatically charge and can continuously produce AC power even after the initial AC power source is used. The principle used for continuous AC (AC) automatic generation without the need for an external power source is the same as that used for direct current (DC) automatic generation. Here, three (or more) rechargeable batteries connected in parallel to generate continuous DC power are described (1---p7&8). The three parallel outputs can be connected to the inputs of transformer 4, and its output is connected to a circuit that allows AC current to flow in only one direction. This causes current to flow through three other transformers with three parallel inputs, forming a loop.

[0050] 5---The Infinite Automatic Generator 7 is used as an AC generator to continuously generate AC power using a new type of transformer (either high or low frequency). It is constructed using a combination of at least one or two new type transformers, each utilizing an output coil made of insulated copper wire and an input coil made of insulated magnetic alloy wire. These two new type transformers are connected in such a way that the output coil of the first new type transformer, A, is connected to the input coil of the second new type transformer, B. The output coil of new type transformer B can be connected to the input of the first new type transformer, A, (using a diode to ensure that AC power flows only to the input of A). This creates a loop. This automatically charges the two new type transformers, allowing them to continuously produce more power without the need for an external power source.

[0051] 6---The Infinite Automatic Generator 8 utilizes an insulated magnet, diode, high-voltage (anti-static) insulator, and coil (with or without a magnetic core) to be used as an AC generator capable of generating continuous AC power without an external power source. This construction utilizes a combination of coil with or without a core, or a transformer, magnet, diode, and high-voltage (anti-static) insulator, allowing a magnet to oscillate continuously near the core of a transformer or coil. A low AC voltage from both ends of the insulated magnet is repeatedly shorted through at least two opposing diodes. This creates an oscillating magnetic field due to the repeated magnetic contraction and decontraction of the magnet placed near the transformer core. This generates continuous AC power in a coil (coil) made to resonate with the magnet's oscillating frequency.

[0052] 7---The infinite automatic power generating devices 9 and 10 can be constructed (or modified) as mechanical generators (or motors) and can also be used as AC / DC generators (dynamos), capable of continuously producing mechanical and electrical energy without the need for additional external power. They are constructed as follows: a circular magnet is used, with a hole drilled around it, two coils connected nearby in a C-shape (inversely), and a core made of a magnetic alloy is used to generate AC power. Other magnets (rod, C, U, or other shapes connected to buttons) can be adjusted (around their own axis) at variable angles / positions near or around the circular magnet. The circular magnet is connected to a rotor that rotates on its axis. These rod, C, or U-shaped magnets exert variable magnetic forces on the circular magnet depending on their angle and distance, causing the circular magnet to rotate around its axis and generating continuously variable mechanical (convertible to AC) energy without an external power source.

[0053] The Infinite Automatic Generator 11 is a new type of electric motor used as a mechanical generator. It uses coils made of insulated magnetic alloy wire (which further increases the AC magnetic field in the rotor coils) to operate AC / DC currents. This further increases the motor's output (DC / AC power) compared to motors made with insulated copper wire (or non-magnetic alloy wire). When this new type of motor is connected to a dynamo, it generates AC / DC electrical and mechanical power continuously without any additional external power by powering the motor with a portion of the dynamo's output. Examples of insulated magnetic alloy wire include insulated silicon steel wire (Fe (95%), Si (approximately 5%)) and insulated iron-nickel alloy wire (Fe (30-70%), Ni (70-30%)). This insulated magnetic alloy wire further increases the AC magnetic field generated by DC and AC currents in the new motor's coils and rotor / stator cores, thereby improving the new electric motor's mechanical output compared to conventional motors using insulated copper wire.

[0054] 9---The Infinite Automatic Generator 12 is used as an alternator to generate high-voltage and high-frequency AC and DC electrostatic energy and is composed of an asymmetric capacitor. An asymmetric capacitor consists of two electrodes of different sizes and volumes separated by a thin high-voltage insulator. This creates a persistent negative charge on the largest electrode and a positive charge on the smallest electrode. When held in an insulated state, an asymmetric capacitor may function as a charge amplifier and polarity inverter. Asymmetric capacitors can be connected in series, parallel, or ring configurations and used on or within the high-voltage insulator.

[0055] 10---The Infinite Automatic Generator 13 is used as a transformer and AC / DC power source, capable of increasing or decreasing input voltage and / or current. It consists of two insulated electrical conductors (such as wires) separated by a high-voltage insulator spun or twisted together in the middle of their lengths and encased in a very high-voltage (anti-static) insulating case (such as paraffin). The input and output of this transformer are at either end of the two insulated wires, and at the output (depending on the number of turns on each of the two conductors) it produces: 1-increase / decrease in input voltage / current at the output wire, 2- Polarity of the end of each insulted output wire; 3- Whether the output is both DC and AC or AC only. Connecting at least two transformers in parallel, series, or loop configurations will continuously generate high voltage static power (such as ionized air) without an external power source, provided they are isolated by high voltage insulators.

[0056] 11---The Infinite Automatic Generator 14 uses a modified asymmetric capacitor as an electron / ion beam or high-voltage electrostatic generator. Using an asymmetric capacitor with two electrodes of different sizes, each with a hole, separated by a thin high-voltage insulator, an electron / ion beam is generated within the hole, flowing from the largest negatively charged electrode to the smallest positively charged electrode, generating continuously ionized air. This can be used to generate continuously ionized air, or to use plasma to generate thrust for engines, or to move spacecraft in space (air or vacuum) using beam particles. The two asymmetric electrodes with holes can be separated by a non-perforated high-voltage insulator. This HV insulator can separate gas (or air) from vacuum or liquid (water) if it is thin and permeable to gas, but not water. It allows positive ions (hydrogen) and negative ions (oxygen) to flow continuously through the holes in the two electrodes and insulator (with or without holes) without an external power source. When held in an insulator, the asymmetric capacitor can function as a charge amplifier and polarity inverter, so that positive ions (hydrogen) and negative ions (oxygen) can flow continuously through the two electrodes and the pores of the insulator (whether porous or non-porous) without an external power source.

[0057] 12---The Infinite Automatic Generator 15 is a high-power, high-voltage, high-frequency AC and DC power generator and / or electron / ion beam generator. It is constructed to function as a charge and polarity amplifier and inverter by connecting at least two or three asymmetric capacitors (consisting of two insulated conductors separated by high-voltage insulators) in a series and loop configuration. The device enhances the voltage and intensity of an electron beam generated between an anode (+) (ring-shaped) and a cathode (-) (e.g., needle-point shaped). This device is used to generate electron / ion beams, can be used as a space propulsion engine, and is also utilized to charge high-voltage electrostatic generators and high-voltage capacitors.

[0058] 13---The Infinite Automatic Generator 16 is an AC and DC generator that uses two insulated wires of the same or different sizes. These wires are twisted together at the ends of their lengths and separated by and held within a high-voltage insulator. The wire with the largest size (length, diameter, etc.) produces a negative charge (alternating), while the other, smaller wire carries a positive charge (alternating). If the two wires are similar in size, it acts like a transformer.

[0059] 14---The infinite automatic generator 17 is an automatically charging battery and / or battery charger, consisting of at least three (rechargeable) batteries of similar voltage and power, namely Battery 1, Battery 2, and Battery 3. A circuit consisting of one or more diodes, capacitors, resistors, and transistors is connected between Battery 1 and Battery 2. Battery 3 is recharged when connected to the other terminals of Battery 1 and Battery 2, and is charged without any additional power.

[0060] 15---The Infinite Automatic Generator 18 is an automatic power electron beam generator made using at least two reverse-connected fast-switching diodes (1N4148 or Schottky diodes) in parallel and isolated by a high-voltage insulator. (Examples of insulators include wax paper, PET, and oily paper.) This device generates a positive voltage at one end shaped like a circle and a negative voltage at the other end shaped like a needlepoint. An electron beam is then continuously generated without the need for external power.

[0061] 15---Infinite Automatic Generator 19 is an alternating current generator that alternately charges two or more (rechargeable) batteries. It utilizes the circuitry used in Automatic Generator 17, allowing current to flow in two directions when one of the two circuits is on and the other is off.

[0062] My invention of an infinite combination of automatic power generators can be used in a variety of combinations to generate and store electricity for applications such as: electricity generating plants, hydrogen producing plants, power plants for factories, buildings, spacecraft engines, hydrogen production, etc.

[0063] The novelty and advantage of my invention is that by using 18 infinite automatic generators, in any combination of paragraphs 1 through 15, it produces very inexpensive electrical and mechanical energy continuously without the need for additional external power.

[0064] These devices are easy to manufacture using inexpensive products that are already available, and they are safe because they do not produce dangerous toxic by-products. [Brief explanation of the drawings]

[0065] The invention will be more clearly understood from the following description and examples, which are illustrated with reference to the accompanying drawings, namely electrical circuit diagrams and device drawings. [Figure 1.a] Figure 1.a shows the structure of the invention. The Infinite Automatic Generator 1 is a DC power generator and storage device made using a (rechargeable) battery. This device is constructed as an automatic battery generator that continuously generates DC power and current of approximately 1 volt without the need for an external power source (without a circuit to stop the discharge). [Fig. 1.b-1.f]Figures 1.b, 1.c, 1.d, 1.e, and 1.f show two different configurations of the invention. Infinitely Automatic Generator 1 uses a rechargeable battery with a circuit that functions as a DC power generator and storage device, and a switch that prevents discharge. It utilizes components such as Zener diodes, relays, transistors, and resistors. This is an infinitely automatic battery configuration that generates 7.5 volts of DC power and stores 1 W / h of power. It produces power continuously without the need for additional external power. This is achieved by adding one of three equivalent circuits, referred to as 'Circuit 162' (shown in Figures 1.d, 1.e, and 1.f). 'Circuit 162' prevents the 7.5V automatic battery from discharging. [Figure 1.g] Figure 1.g shows the structure of the invention. The infinite automatic generator 3 can be used as a DC power generator and storage unit made using a rechargeable battery. It is constructed as an infinite automatic generator that can be used as a charger for (rechargeable) batteries that operate continuously while charging without the need for an additional external power source. One of the three circuits, "Circuit 162," can be used to avoid discharging the battery in order to charge it with a charger. [Figure 1.h] Figure 1.h shows the Infinite Auto Power Generator 2 as a DC power generator and storage device using a rechargeable battery. It is built as an automatic power generating battery that continuously generates approximately 24 volts, 40 A of DC power without the need for an external power source (it has two switches to stop discharging). [Figure 2.a] Figure 2.a shows the structure of an infinite automatic generator 5 (MKP) used as an AC generator, made using a high-frequency or low-frequency capacitor (F). It is constructed as an infinite automatic generator that can continuously generate AC current (of very high or low frequency) without the need for external power. [Figure 2.b]Figure 2.b shows the structure of the invention; Infinite Automatic Generator 4, which is used as a DC power generator and storage device made of polarized capacitors, electrolytic supercapacitors, ultracapacitors, etc., to build an infinite automatic generator that continuously generates and stores DC current without the need for an external power source. [Figure 2.c] Figure 2.c shows the structure of the infinite automatic generating power device 4, which can be used as a DC power generator and power storage device made from a storage capacitor. It is built as an infinite automatic generating power device that can be used to continuously charge a capacitor with DC power without any additional external power source. [Figure 2.d] Figure 2.d shows the structure of an infinite self-generating device 12 that can be used as a high-voltage (HV) electrostatic generator, constructed using at least one of the new capacitors. This capacitor, called an asymmetric capacitor, consists of two electrodes of different sizes separated by a high-voltage (HV) insulator. This is what I call an infinite self-generating device. An asymmetric capacitor continuously and spontaneously generates a negative charge on the largest electrode and a positive charge on the smallest electrode without the use of an external power source. This occurs when the asymmetric capacitor is insulated with a high-voltage insulator. The amount of charge stored on the two electrodes of the (asymmetric) capacitor continuously generates electricity without the use of an external power source (such as high-voltage static electricity or ionized air). [Figure 2.e] Figure 2.e shows the structure of an infinite automatic generator 14, which includes an asymmetric capacitor with holes in the high-voltage insulator separating the large and small electrodes. Each electrode has at least one (small) hole. This device is used as an electron / ion beam generator. This structure functions as an infinite automatic generator that continuously and spontaneously generates an electron (or ion) beam without the need for external power. This beam can be used to ionize air or for (continuous) charged particle beams used as propulsion engines in space (no external additional power required). [Figure 2.f]Figure 2.f shows the construction of an infinite automatic generator16 consisting of a single asymmetric capacitor, which can be used as an electrical polarity inverter, AC and DC power generator, and amplifier. It involves the use of at least two differently sized insulated conductors. These two insulated conductors are separated by a high-voltage insulator. The two insulated conductors and the high-voltage insulator are partially twisted together, with a turn at the center of their length. The other end of the two conductors generates, without an external power source, continuously increasing direct and alternating currents for two wires of different sizes, or only alternating current for two wires of the same size. This occurs at very high or extremely high frequencies. This device must be completely isolated by high-voltage insulators and paraffin-treated cardboard. For example, the longest / largest insulated wire has a negative charge at each end, and the shortest / smallest insulated wire has a positive charge. When held in an insulated state without external power, the charge continues to increase. [Figure 2.g] Figure 2.g shows the structure of the infinite automatic generator 13, which can be used as both an AC and DC generator and a transformer / amplifier, or an AC-only generator. The infinite automatic generator 13 can be used to invert and amplify the power and polarity of an input and is constructed as follows: It is constructed as an infinite automatic generator with at least two insulated conductors (of the same length and diameter) separated by a thin high-voltage insulator and twisted together at the center of their lengths. Meanwhile, the two uninsulated ends of the two insulated conductors, the two inputs and two outputs of the device, function as a transformer to increase or decrease the self-generated AC voltage. This AC voltage and / or current can then be continuously generated at high or low frequencies without the application of external power. This occurs when the device is kept completely insulated by the high-voltage insulator (for example, a paper case wrapped in paraffin). This device can function as a high-voltage AC generator if both conductors are the same size. It can also be used as a DC and AC generator if both conductors are different sizes. [Figure 2.h] Figure 2.h shows the structure of the Infinite Automatic Generator 15, used as a high-voltage AC and DC power source. This device consists of four insulated conductors separated by three high-voltage insulators (anti-static), which together form three asymmetric capacitors, acting as an amplifier and inverter. These three asymmetric capacitors are connected in a loop and housed in a case with high-voltage HV insulators. This is an automatic generator that generates continuous high-voltage (static) electricity, which can be used as an engine to generate continuous thrust without the need for external power. The propulsion is in the form of an electron (or ion) beam device, which can also be used to ionize air or gases by amplified high negative charge by connecting three asymmetric capacitors in a loop to an initially negatively charged conductor through an inverter. These electrons / ions emitted from the tip of a needle are attracted and accelerated through a positively charged ring connected to an amplified high-voltage positive voltage. This amplified charge results from the inverter and amplifier being connected in a loop while this circuit / device is insulated. This infinitely self-powered device also functions as an air ionizer and plasma generator, operating continuously without additional external power. For best results, this device should be filled with a very good high voltage (HV) insulator such as paraffin or oil. [Figure 3.a]Figure 3.a shows the structure of an infinite automatic generator 6, constructed using three or four electrical transformers, that can be used as an AC generator and AC amplifier. It is constructed as an automatic generator that continuously generates electrical (high or low frequency) AC power without requiring continuous external additional power. This device uses at least three electrical transformers with the same voltage (V) and three different outputs (W / h). This device is made by connecting the three inputs of the three transformers in parallel, and then connecting the three outputs of the three transformers in parallel. The three transformers are automatically charged and can continuously produce AC power (after using the initial AC power) when the three parallel outputs are connected to the input of a fourth transformer. [Figure 3.b] Figure 3.b shows the structure of an infinite automatic generator 7, which can be used as an AC power generator and an AC power amplifier, constructed using at least one or two new-type transformers. This infinite automatic generator is constructed using two new-type transformers with input coils made of insulated magnetic alloy wire. The magnetic alloy wire can be insulated silicon steel wire (Fe (95%), Si (approximately 5%)) or insulated iron-nickel alloy wire (Fe (30-70%), Ni (70-30%)). For example, this infinite automatic generator can be used as an AC generator. The output coil is made of insulated copper wire. More power can be produced by connecting the output of new-type transformer A to the input of another new-type transformer B. The output of transformer B is connected to a circuit in which AC current flows only through the input of new transformer A. (Both transformers are connected in a loop) This generates continuous (high- or low-frequency) AC power without the need for external power. [Figures 4a-4d]Figures 4a, 4b, 4c, and 4d show four configurations of an infinite automatic generator8 used as an AC power source (low or high frequency). It consists of a transformer or coil, high-voltage insulators, diodes, and rod-, C-, U-, or other shaped magnets. This infinite automatic generator functions as an AC generator and can generate AC power continuously without an external power source. The AC is generated by induced currents generated by an oscillating magnetic field within an oscillating, insulated magnet. The magnet is connected to two diodes at each end, and by repeatedly shorting out the low AC voltage across the insulated magnet, the magnet continuously contracts and expands. [Figure 5.a-5.b] Figures 5.a and 5.b show the structure of the Infinite Automatic Generator No. 9. This is a mechanical generator (motor) that can be used as an AC / DC power generator and also as a mechanical generator. [Figure 5.c-5.d] Infinitely Generating Power Generator 10, shown in Figures 5.c and 5.d, is made by combining at least one circular magnet (with holes and at least two coils with C-shaped alloy cores near its surface) with one or two other magnets in a novel motor. Infinitely Generating Power Generator No. 9 is used as a mechanical power generator, spontaneously and continuously producing mechanical power without the application of external power. This power can be converted into continuous electricity generation by connecting a motor and dynamo with a shaft. Alternatively, by drilling many semi-holes in the circular magnet and placing coils near its surface. [Figure 6]Figure 6 shows the structure of an infinite self-generating device. No. 11. This is a mechanical generator made using a conventional electric motor, with the normal (copper) coil replaced with insulated magnetic alloy wire [insulated silicon steel wire (Fe(95%), Si(approximately 5%)) or insulated iron-nickel alloy (Fe(30-70%), Ni(70-30%)...)]. These insulated magnetic alloy wires further increase the alternating magnetic field in the coils of an electric motor using AC / DC power. This increase makes the alternating magnetic field in the coils of an electric motor using AC / DC current even stronger than in a motor made with coils using insulated copper wire. This is built as an automatic generator with a more powerful electric motor using the same input power as a conventional electric motor. If connected to the shaft of a dynamo, it can continuously generate AC / DC electricity and mechanical force without any additional external power. This is achieved by powering a new type of motor using part of the dynamo's electrical output. This motor is made with coils using insulated magnetic alloy wire. [Figure 7.a] Figure 7a shows an infinite automatic generator 17 consisting of at least two or three similar electric (rechargeable) batteries of any power storage and voltage (at least 1.2 volts). For example, the negative terminal of Battery 1 is connected to the cathode of at least one or two diodes, the negative terminal of a 1000 μF (electrolytic) capacitor, and the emitter of an NPN transistor (BC547). The positive terminal of Battery 2 is connected to the anode of the diode, the positive terminal of a 1000 μF electrolytic capacitor, and the collector of the NPN transistor. The base of the NPN transistor (BC547) is connected to a resistor, the other end of which is connected to the positive terminal of Battery 2. The positive terminal of Battery 1 is connected to the positive terminal of Battery 3 for charging, and the negative terminal of Battery 2 is connected to the negative terminal of Battery 3 for charging. [Figure 7.b]Figure 7.b shows an infinite self-generating device 18 with at least two anti-parallel diodes with a ring at the anode and a needle-like point at the cathode. This device is held in place by a high-voltage insulator. [Figure 7.c] Figure 7.c shows an infinite automatic generator 19 with two automatic generator 17 circuits, with other components alternately operating one circuit or the other to generate alternating current and charge two rechargeable batteries.

[0066] Detailed Description of the Drawings Figure 1 shows a basic infinitely self-generating power device 1 used as a DC power generator and storage device. This generates DC power continuously without adding any additional power. Figure 1.a shows the state where there is no electrical circuit to prevent discharge when the battery is fully charged. (1) is the cathode of a (rechargeable) 1.2V battery 1; negative pole. (2) is the positive pole of the (rechargeable) 1.2V battery 1; positive pole +. (3) is the cathode of the (rechargeable) 1.2V battery 2; negative pole -. (4) is the positive pole of the (rechargeable) 1.2V battery 2; positive pole +. (5) is the cathode of the (rechargeable) 1.2V battery 3; negative pole -. (6) is the positive pole of the (rechargeable) 1.2V battery 3; positive pole +. (7) is the output cathode; negative pole (for automatic rechargeable batteries, 10 automatic rechargeable batteries are battery 1, battery 2, battery 3 connected in parallel). (8) is the anode; the output positive pole + is that of the (automatic rechargeable) battery (the automatic rechargeable battery is battery 1, battery 2, and battery 3 connected in parallel). Circuit 15, detailed in Figure 1.d, Figure 1.e and Figure 1.f, acts as a switch or relay and can be connected between (4) and (6) and / or (3) and (5) to avoid discharging the three batteries.

[0067] Where: (Rechargeable) Battery 1 has a voltage of 1.5V and produces 1A.V / h = 1W / h. (Rechargeable) Battery 2 has a voltage of 1.5V and produces 0.5AV / h = 0.5W / h. (Rechargeable) Battery 3 has a voltage of 1.5V and produces 0.25AV / h = 0.25W / h. Together, these batteries form a self-recharging battery that continuously generates a voltage of 1.5V. When all batteries 1, 2, and 3 are fully self-charged, they can continuously generate at least 1A.V / h = 1W / h. No external power source is required to charge them. This circuit (called "Circuit 162") must be connected to (4) and (6) and / or (3) as shown in Figure 1.d, 1.e, or 1.f (or an equivalent circuit) (5). This is to avoid discharging the three fully charged batteries.

[0068] Figure 1.b shows an infinite automatic generator 1 used as a DC power generator and energy storage device. It is a rechargeable battery that can continuously generate and store DC power without any external additions. It consists of a 7.5V battery containing a battery. It consists of the following: (9) is the cathode and negative electrode of the 7.5V (self-rechargeable) battery II. (10) is the positive electrode; the positive electrode of a 7.5V (self-rechargeable) battery II (11) is the cathode (negative electrode) of a (rechargeable) 1.2V battery 1. (12) is the cathode; it is the negative pole of the (rechargeable) 1.2V battery 2. (13) is the cathode; it is the negative pole of the (rechargeable) 1.2V battery 3. (14) is the anode; the positive pole of a 1.2V (rechargeable) battery (15) is the anode; it is the positive pole of the (rechargeable) 1.2V battery 2. (16) is the anode; the positive pole of a 1.2V (rechargeable) battery (17) is the cathode of a 1.2V (rechargeable) battery 4; it is the negative pole. (18) is the cathode (negative electrode) of a (rechargeable) 1.2V battery 5. (19) is the cathode of a 1.2V (rechargeable) battery 6; it is the negative electrode. (20) is the anode, the positive pole + of the (rechargeable) 1.2V battery 4. (21) is the anode, the positive pole + of a (rechargeable) 1.2V battery 5. (22) is the anode; it is the positive pole of a (rechargeable) 1.2V battery 6. (23) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 7.

[0069] (24) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 8. (25) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 9. (26) is the anode; it is the positive pole of a (rechargeable) 1.2V battery 7. (27) is the anode; it is the positive pole of a (rechargeable) 1.2V battery 8. (28) is the anode; it is the positive pole of a (rechargeable) 1.2V battery 9. (29) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 10. (30) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 11. (31) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 12. (32) is the anode; it is the positive pole of a 1.2V (rechargeable) battery. (33) is the anode; it is the positive pole of a (rechargeable) 1.2V battery 11. (34) is the anode; it is the positive pole of a 1.2V (rechargeable) battery 12. (35) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 13. (36) is the cathode; it is the negative pole of a (rechargeable) 1.2V battery 14. (37) is the cathode; the negative pole of a 1.2V (rechargeable) battery (38) is the anode; the positive pole of a 1.2V (rechargeable) battery +1 (39) is the anode; the positive pole of a 1.2V (rechargeable) battery +1 (40) is the anode; the positive pole of a 1.2V (rechargeable) battery +1 (41) is the cathode; the negative pole of a 1.2V (rechargeable) battery (42) is the cathode; the negative pole of a 1.2V (rechargeable) battery (43) is the cathode; the negative pole of a 1.2V (rechargeable) battery -18 Batteries 1, 2, and 3 are connected in series. Batteries 4, 5, and 6 are connected in series. Batteries 7, 8, and 9 are connected in series. Batteries 10, 11, and 12 are connected in series. Batteries 13, 14, and 15 are connected in series, Batteries 16, 17, and 18 are connected in series.

[0070] These 18 batteries form a self-charging battery with 1 watt of power at 7.5 volts, which can charge itself without an external power source. This self-charging battery will automatically discharge if charged without the six "circuits 162."

[0071] Figure 1.c shows Infinite Automatic Generator 1 used as a DC power generator and storage device for a (rechargeable) 7.5V battery. It uses the same (rechargeable) battery as Figure 1.b, but is connected differently, and one of three circuits, called "Circuit 162," is used to avoid discharging a fully charged 7.5V battery.

[0072] In this build: ---(Rechargeable) Batteries 1, 4, 7, 10, 13, and 16 are connected in series to form a 7.5V self-charging battery, with a power of 1W / h, which must be charged in the following way: ---Rechargeable batteries 2, 5, 8, 11, 14, and 17 are connected in series to form a 7.5V rechargeable battery with an output of 0.5W / h.

[0073] ---Rechargeable batteries number 3, 6, 9, 12, 15, and 18 are connected in series to form a 7.5 volt, 0.25 watt-hour rechargeable battery.

[0074] Batteries 2, 5, 8, 11, 14, and 17 are connected in parallel with batteries 2, 5, 8, 11, 14, and 17.

[0075] Batteries 2, 5, 8, 11, 14, and 17 are also connected in parallel with batteries 3, 6, 9, 12, 15, and 18.

[0076] The negative terminal of battery 2 (12) is connected to the negative terminal of battery 3 (13), The positive terminal of battery 17 (46) is connected to the positive terminal of battery 18. (45) (162) is a manual relay that turns off when 7.5V batteries 1&4&7&10&13716 are fully charged. ---Batteries 1, 4, 7, 10, 13, 16 are connected in parallel with: ---Batteries 2, 5, 8, 11, 14, 17 ---Batteries 3, 6, 9, 12, 15, 18 Terminals (12) and (13) of batteries 2 and 3 are connected to terminal (11) of battery 1.

[0077] The positive terminals (45) and (46) of batteries 17 and 18 are connected to one of three circuits in "Circuit 162," which is activated when the switch connected to the positive terminal (44) of battery 1 (7.5V, 1W / h) is turned on and off.

[0078] "Circuit 162" turns on / off when the voltage of batteries 1, 4, 7, 10, 13, and 16 drops below / exceeds approximately 7.5V when fully charged.

[0079] Figure 1.d shows one of three circuits, labeled "Circuit 162," designed for a 7.5V, 1W / h self-rechargeable battery (or other battery voltage or energy storage) with a relay that stops charging at 7.5 volts and 1 watt per hour when the battery is fully charged and automatically maintains charging during partial discharge.

[0080] Relays (168), (169), (170), and (171) are operated by a simple electrical circuit using a Zener diode 167 (as an example) at about 7.2 V. When the circuit is used in Figure 1.c, it also contains a transistor (166), a relay, and a resistor (165), which switches on and off between anode (164) and the anodes of two other batteries (45) and (46).

[0081] This circuit makes it possible to keep batteries 1, 4, 7, 19, 13 and 16 charged at 7.2V and 1W. When (181) is connected to poles-(11)&(12)&(13)(Fig1.c), this allows continuous automatic charging and prevents discharging and charges 7.5V&1W / h batteries (1&4&7&10&13&16).

[0082] Figure 1.e shows how a circuit with three reverse-connected diodes in parallel (174), (175), and (176) directs more current away from the anode (172) (Figure 1.e) of the battery with the highest power output. This current flows to the anode (173) (Figure 1.e) of the lower-power battery that needs charging (44) (Figure 1.c). This prevents the discharge of 7.5V, 1W / h batteries 1, 4, 7, 10, 13, and 16. The circuit in Figure 1.e has no mechanical components and can have more than one diode in both directions of current.

[0083] Figure 1.f shows a circuit similar to Figure 1.e, but using two inverting diodes. One diode is connected to the positive terminals (177) (Figure 1.f) of two rechargeable 7.5 V batteries (45) and (46) (Figure 1.c). This charges the anodes (178) of 7.5 V, 1 W / h batteries 1, 4, 7, 10, 13, and 16 with positive polarity (44) (Figure 1.c).

[0084] (Batteries 1, 4, 7, 10, 13, 16 need to be charged.) This is possible because each diode drops the incoming voltage in a different way. For example, diode (179) can drop the voltage by 0.35V, while another diode (180) can drop the input voltage by 0.37V. This causes current to flow from pole +(177) (Fig.1.f) = (45) and (46) (Fig.1.c) to pole +(178) (Fig.1.f) = (44) (Fig.1.c). This is to avoid discharging batteries 1, 4, 7, 10, 13, 16 through their pole +(44) (Fig.1.c) when they are fully charged. 7.5V, 1W / h. This circuit does not use any mechanical parts.

[0085] In the scheme of Figure 1.b, if one of the six relays, or one of the six circuits similar to "Circuit 162", is not used, the battery can be overcharged and gradually discharged.

[0086] Figure 1.d, Figure 1.e, and Figure 1.f show three equivalent circuits, referred to as "Circuit 162," as examples of circuits to replace Relay 162 and avoid discharging the battery in Figure 1.c.

[0087] The circuits in Figure 1.e and Figure 1.f have no mechanical components and are two of three circuits designated "Circuit 162" designed to replace and improve upon manual relay 162.

[0088] Figure 1.g shows an infinite automatic generator 3 used in a DC generator and charger device to charge rechargeable or rechargeable batteries or capacitors. With this automatic charger, no external power source is required to recharge the battery or capacitor.

[0089] The structure of this automatic charger when used for batteries and / or capacitors is as follows: (94) is the cathode, or negative electrode, of a (rechargeable) 1.2V battery. (95) is the cathode, or negative electrode, of (rechargeable) 1.2V battery 2. (96) is the anode, or positive electrode, of a (rechargeable) 1.2V battery. (97) is the anode, or positive electrode, of a (rechargeable) 1.2V battery 2. (98) is the negative output of an infinite automatic generation charger connected to the cathode of a 1.2V (rechargeable) battery III that needs to be charged. (99) is the positive output of the infinite automatic power charger, which is connected to the positive pole of the 1.2V (rechargeable) battery III to charge it.

[0090] This is constructed, for example, as follows: Battery 1 has a voltage of 1.2 V and can produce 0.25 A. V / h = 0.25 W / h.

[0091] Battery 2 has a voltage of 1.2V and can produce a current of 0.50A, or 0.50W / h.

[0092] Battery III is a 1.2V rechargeable battery that requires 1W / h to charge. Battery III has a voltage of 1.2V and can produce at least 1A.V / h=1W / h when fully charged.

[0093] Battery III, at 1.2V and 1W / h, must be disconnected from the charger once fully charged to avoid discharging. Battery III can have an output greater than 1 watt-hour, e.g., 5 watt-hours or more. Battery 1 and Battery 2 can maintain a voltage of 1.2V and 0.25W / h and 0.50W / h, respectively. Discharging Battery III while it's being charged by the charger can be avoided by using one of the circuits shown in Figure 1.d, Figure 1.e, or Figure 1.f, called "Circuit 162." Relays (168), (169), (170), and (171), along with Zener diode (167) and transistor (166), are examples of circuits for Battery III that regulate the voltage from approximately 1V to 12V or greater. This can be added to disconnect the cathode (98) and / or anode (99) of the infinitely self-generating charger from the cathode and / or anode of rechargeable Battery III.

[0094] If Battery III is also 7.5V and Batteries 1, 2, and III are all functioning normally, this infinite self-generating charger could theoretically charge an empty 7.5V battery indefinitely.

[0095] This is the case when Battery 1 and Battery 2 have a voltage of 7.5V, and Battery III (the battery being charged) has a different power. This is the case when Battery 1, Battery 2, and Battery 3 are all functioning. The higher the stored power (and voltage) of Battery 1 and Battery 2, the faster Battery III will charge.

[0096] Battery 1, Battery 2, and Battery III should all be the same voltage. For example, the infinite automatic generator schema in Figure 1.g is an example of a charger using two rechargeable batteries. This can be connected in parallel to connect two or more batteries with the same voltage (five batteries above 1V) but different (other) stored power to function faster as a charger. The same applies to rechargeable batteries, capacitors, or other power units from other products. 1.5V, 12V, 100V, or higher voltages, etc.

[0097] Figure 1.h shows a 24V and 100A 2.4KW / h DC power generating unit 2 used to continuously generate and store DC power without adding any external components. This unit consists of two batteries, 12V10A and 12V40A (or other voltage and power 2.4...batteries and 2.4...capacitors), to continuously generate and store DC power without adding any external power sources. It is constructed as follows:

[0098] (193) is the positive (+) pole and (202) is the negative (-) pole of a 12V, 60A battery. (195) is the anode, positive pole, and (196) is the cathode, negative pole, of a 12V, 60A battery. (198) is the anode, positive terminal, and (199) is the cathode, negative terminal of a 12V, 40A battery. (200) is the anode, pole +, and (201) is the cathode, pole - of 12V, 40A battery Z. (208) is the anode, pole +, and (207) is the cathode, pole - of 2.4KW / h battery (IAPGD). Batteries Y and Z can be replaced with storage capacitors, and batteries W, X, Y, and Z can have other voltages (V) and powers (A, W / h). (203) and (204) are two Schottky diodes. (205) and (206) are two manual switches (to prevent discharge), which can be replaced with Figure 1.d, Figure 1.e, Figure 1.f, or other similar circuits. Batteries W and X are connected in series, and batteries Y and Z are also connected in series. Batteries W and X are connected in parallel with batteries Y and Z. The OV (GRD) of both batteries W and X and Y and Z are connected to two diodes. The cathode of one diode is connected to the negative pole of batteries Y and Z, and the anode of the other diode is connected to the positive pole of batteries W and X. One switch connects each diode. It is connected in parallel with batteries Y and Z.

[0099] Figure 2.a shows an infinite automatic generator 5 using an AC generator.

[0100] (47) is one terminal of (ceramic, .....) capacitor 1. (50) is the other pole of (ceramic, .....) capacitor 1. (48) is one pole of (ceramic, .....) capacitor 2. (51) is the other pole of (ceramic, .....) capacitor 2. (49) is one pole of (ceramic, .....) capacitor 3. (52) is the other pole of (ceramic, .....) capacitor 3. (53) is the output terminal of an infinite self-generating device that uses a capacitor to generate AC power without the need for an external power source, and continuously generates high or low frequency AC. (54) is another output terminal of an infinite automatic generator that uses a capacitor to generate AC power without the need for an external power source.

[0101] for example: Three ceramic capacitors can be used: Capacitor 1 has a voltage of 100 volts and a capacitance of 100 picofarads.

[0102] Capacitor 2 has a voltage of 100 volts and a capacitance of 1000 picofarads.

[0103] Capacitor 3 has a voltage of 100 volts and a capacitance of 10,000 picofarads.

[0104] Low-value (piezoelectric) capacitors can generate (very) high-frequency AC voltages (possibly high voltages) that increase continuously without the need for additional external power sources and have the ability to ionize air without an initial power supply. High-value capacitors (e.g., MKP) can generate low-frequency AC when three or more capacitors are connected in parallel and are on or within a high-voltage insulator. The larger the capacitance (higher in farads) and voltage (higher in volts) of the capacitors, the greater the power generated. However, with lower capacitance, the frequency and voltage can be higher. These three or more parallel capacitors can continuously generate an alternating current (ionized air, electrons, etc.) without the need for an external power source. At a voltage of 220V, more AC power can be generated by connecting three capacitors in parallel with capacities (e.g.,) 50MKP, 25MKP, and 100MKP. In theory: A maximum output of 0.0001*44,000=4W / h can be produced continuously without the application of external power when these three capacitors are surrounded by high voltage anti-static insulation.

[0105] The alternating current generated by at least three capacitors connected in parallel can be amplified through one or more novel types of transformers or circuits, as shown in Figure 3.b. All capacitors used in this infinite automatic generator must have similar voltages (V) and at least two or three different capacitances (F).

[0106] Figure 2.b shows an infinite automatic generator 4, which functions as a DC power source and storage device, utilizing high- or ultra-high-capacity storage electrolytic capacitors or polarized capacitors.

[0107] It generates a continuous DC current without the need for an external power source.

[0108] This is constructed as follows:

[0109] (55) is the negative terminal of capacitor 1 (58) is the positive terminal of capacitor 1 (56) is the negative terminal of capacitor 2 (59) is the positive terminal of capacitor 2 (57) is the negative terminal of the capacitor -. (60) is the positive terminal of capacitor 3 (61) is the negative terminal and is the output of a self-charging capacitor that can generate direct current continuously without the need for an external power source. (62) is the positive terminal + of the output of a continuous self-charging capacitor that generates DC current continuously without the need for an external power source.

[0110] Like a battery, all the capacitors in this infinite automatic generator must have the same voltage (V) and at least two or three different capacities (F).

[0111] For example, electrolytic capacitor 1 has a voltage of 10V and a capacitance of 10μF.

[0112] Capacitor 2 has a voltage of 10V and a capacitance of 100μF.

[0113] Capacitor 3 has a voltage of 10V and a capacitance of 1000μF.

[0114] This infinite automatic generator uses (high) storage, electrolytic, and hyperpolar capacitors to continuously generate DC power without the need for an external power source.

[0115] This will generate approximately 0.001*(10*2)=0.1W, and to avoid discharge, a circuit like Figure 1.d, Figure 1.e, or Figure 1.f is required between (59) and (60) (Figure 2.b).

[0116] (The leakage current of the capacitors limits the power that can be generated continuously.) By using three capacitors (for example, 50 μF, 25 μF, and 100 μF) with a voltage of 220 V, it is possible to generate DC power continuously without the need for an additional external power source. In theory: A maximum power output of 0.0001*44,000=4W is produced when these three capacitors are isolated with high voltage (anti-static) insulation.

[0117] Figure 2.c shows an infinite automatic generator 4 (using a polarized capacitor) used as a DC power generator and storage device. It produces DC power continuously without the need for an external power source to charge or recharge the capacitor.

[0118] This is constructed as follows:

[0119] (102) is the negative electrode of (storage, electrolytic...) capacitor 1. (100) is the positive + of capacitor 1 (storage, electrolytic, etc.). (103) is the negative electrode of (storage, electrolytic...) capacitor 2. 5(101) is the positive + of capacitor 2 (storage, electrolytic, etc.). (104) is connected to the positive + of the capacitor V that needs to be charged, and is also connected to the positive, anode + of the autocharger. (105) is connected to the negative terminal of the capacitor V that needs to be recharged, and is also connected to the negative terminal, or cathode, of the autocharger. As an example, here are two electrolytic capacitors acting as a charger: Capacitor 1 has a voltage of 10V and a capacitance of 10μF.Capacitor 2 has a voltage of 10V and a capacitance of 100μF. The capacitor V that must be charged (or recharged) is, for example: Similar to a battery charger with a 10V voltage and a 1000µF capacitor V, all capacitors in the charger and the capacitors being charged must have the same voltage (V) and at least two or three different capacitances (F).

[0120] Similar to a battery charger, when recharging capacitor V from the charger in Figure 2.c, it must be disconnected from the charger as soon as recharging is complete, or it may discharge. An automatic switch, or equivalent circuit, can be disconnected from the charger by connecting one of the three circuits detailed in Figure 1.d, Figure 1.e, or Figure 1.f between (104) in Figure 2.c and the anode of capacitor V.

[0121] For example, this new continuous DC automatic power generation charger is made of (high) storage electrolytic capacitors, polarized capacitors, ultracapacitors, etc., and does not require external power, and can generate continuously without adding external power, at least about 0.001*(10*2)=0.1W (to charge the capacitor).

[0122] The charger and capacitor must be placed on a high-voltage insulator while charging (usually the capacitor's leakage current limits the power generated continuously). The charger requires one or two capacitors of different capacitance (F) but the same voltage. This depends on whether the capacitor you are charging has a different capacitance than the two capacitors in the charger; all three capacitors must have approximately the same voltage (V).

[0123] Figure 2.d shows an infinite generator 12 used as a high-voltage generator of AC and DC power. It is constructed using an asymmetric capacitor that generates power continuously without the need for external power. It is constructed as follows: (126) is the largest electrode. The negatively charged cathode can be made of metal foil or a metal conductor. (130) is the wire connected to the cathode, the largest electrode, and has the negative electrode, which can be made from metal foil. (127) is the smallest electrode, a positively charged anode made of metal foil. (129) is the wire connected to the smallest electrode, the anode, which is the positive electrode +. (128) is a high-voltage insulator, such as air, oily paper, or paraffin.

[0124] This infinite automatic generator is an asymmetric capacitor with two unequal-sized electrodes (126) and (127) separated by a high-voltage insulator (128). It generates direct current (DC) and alternating current (AC) power. It generates both DC and AC power simultaneously and continuously without an external power source when enclosed and insulated by a high-voltage insulator (for example, high-voltage insulators can be oil, paraffin, or mica-containing paper). When enclosed in a casing or enclosed with a high-voltage insulator, this asymmetric capacitor generates power continuously without an external power source. The cathode (126), connected to a wire, is formed by applying an increasing negative charge to the electrode with the largest surface area and volume (130), and the anode (127) is formed by applying an increasing positive charge to the smallest electrode (127).

[0125] The asymmetry in the size of the two asymmetric electrodes (126) and (127), and the asymmetry in the amount of charge on the two electrodes of this asymmetric capacitor, continuously generates DC power (and AC power) (in the form of ionized air). This is because the asymmetric capacitor has a capacitance value of about ~pF and a surface area of ​​about several cm. 2, when the high voltage insulator is ~<0.1mm thick.

[0126] This is more easily achieved by using a very high voltage insulator to hold the asymmetric capacitor completely isolated, and by using a very high voltage insulator between two electrodes of different sizes, for example by using paper as a casing, such as oil, paraffin, mica, glass, or quartz, to surround the asymmetric capacitor.

[0127] The higher the value of capacitance (F) of an asymmetric capacitor (electrodes with very different large surface areas or volumes), the lower the frequency and the greater the power generated by the asymmetric capacitor.

[0128] The greater the difference in surface area and volume between the two electrodes, the greater the DC voltage generated by the asymmetric capacitor in this infinite automatic generator of AC and DC currents and voltages. Both the cathode and anode of this asymmetric capacitor can be covered with high-voltage anti-static insulators.

[0129] By increasing the negative charge on the electrode with the largest surface area and volume, a cathode (126) is formed, connected to the wire. (130) Then, by generating an increasing positive charge on the smallest electrode (127), it forms the anode (127).

[0130] The asymmetry in the size of the two asymmetric electrodes (126) and (127), and the asymmetry in the amount of charge on the two electrodes of this asymmetric capacitor, continuously generates DC power (and AC power) (in the form of ionized air).

[0131] This is because the asymmetric capacitor has a capacitance of about ~pF and a surface area of ​​about several cm 2 , when the high voltage insulator is ~<0.1mm thick.

[0132] This is more easily achieved by using a very high voltage insulator between two electrodes of different sizes, keeping the asymmetric capacitor perfectly isolated.

[0133] For example, by using paper as a casing for oil, paraffin, mica, glass, quartz, etc. to surround the asymmetric capacitor.

[0134] The higher the value of capacitance (F) of an asymmetric capacitor (electrodes with very different large surface areas or volumes), the lower the frequency and the greater the power generated by the asymmetric capacitor.

[0135] The greater the difference in surface area and volume between the two electrodes, the greater the DC voltage generated by the asymmetric capacitor in this infinite automatic generator of AC and DC currents and voltages.

[0136] Both the cathode and anode of this asymmetric capacitor can be covered with high voltage anti-static insulator.

[0137] Figure 2.e shows an infinite self-powered device 14 used as an ion thrust generator and electron / ion beam generator. It is made using a modified asymmetric capacitor with at least one hole, which produces a continuous thrust without the application of external power in the form of a beam of electrons (or ions).

[0138] This is constructed as follows:

[0139] (131) is the cathode, negatively charged. This is the largest electrode, and the negative electrode, a metal foil, has at least one (small) hole. (This cathode can be connected to a wire if necessary and can be covered with a high-voltage insulator with a hole leading to the cathode hole.) (133) is the anode, the positively charged electrode, the smallest electrode, and the electrode with at least one (tiny) hole. It may be a metal foil. (This anode can be connected to a (a) wire if necessary and covered with a high-voltage insulator with a hole pointing toward the anode hole.) (132) is a high-voltage (HV) insulator with at least one (small) hole. (134) shows two holes in two electrodes facing each other and a hole in the high-voltage insulator, which together form at least one (small) hole (in this example). Through this hole, a beam of ions and / or electrons is generated by the negative charge on the largest electrode (131), attracted and pushed by the positive charge on the smallest electrode (133), passing through the holes in the two electrodes and the hole in the thin high-voltage insulator (132) of the asymmetric capacitor. These three holes form a single hole (134) with asymmetrically sized electrodes of the asymmetric capacitor. This can be created by using aluminum foil of different dimensions with paper separated by oil, paraffin, or mica. Avoiding contact between the two foils of different sizes and insulating this device with high-voltage (HV) insulators allows free flow of electrons / ions from the cathode to the anode. (For example, a large piece of paper coated with paraffin or other high-voltage (HV) insulator can be used to hold or surround this infinite self-generating device.)

[0140] You can also use two pieces of paper of different sizes as electrodes, with cellophane (plastic) tape separating them as an insulator, and a thin hole between the two pieces of paper - in this case the electron / ion beam will be generated slower, but will still continue to grow.

[0141] Figure 2.f shows an infinite automatic generator 16 made of insulated wire and high voltage insulators, which can be used as a DC and AC high voltage (HV) generator without any additional external power source.

[0142] This is constructed as follows:

[0143] (135) is (136), the insulated ends of one of the two conductors. (wire; conductorA (138) and (139) are the other two uninsulated ends of the other conductor B. (140) is a paper case containing paraffin, oil, etc. (137) is a (very) high voltage insulator; paraffinized paper, oil, PET, etc. Then, both insulated conductors (of the same or different length and thickness) are held together with a (thin) high voltage anti-static insulator (137) between them. Then, one insulated end of insulated conductor B is twisted or turned through a portion of the end of the other conductor A. The ends (138) and (135) of the two insulated conductors A and B generate a continuously increasing AC electric field, voltage, and current at a high frequency. This occurs when: ---A high voltage insulator (137) is located between two insulated wires bundled together.

[0144] ---And if these two insulated conductors are held together with a high voltage insulator between them, completely insulated on top of the high voltage insulator, this is what will happen.

[0145] For example, case (140) is a paper case covered with paraffin. If two insulated conductors are of different sizes and lengths and have high-voltage insulation sandwiched between them, the longest or thickest insulated conductor will have an oscillating negative voltage at its end. The smallest / shortest insulated conductor will have an oscillating positive voltage. A series of such (asymmetric) capacitors consists of two insulated conductors with high-voltage insulation sandwiched between them, and can be connected in series to increase DC and / or AC voltages. All asymmetric capacitors are stored in an insulated case with high-voltage insulation, for example, they are enclosed in a case such as paraffin or oil that surrounds all asymmetric capacitors.

[0146] Figure 7.a shows an infinite automatic generator 17 made using at least two or three similar electric (rechargeable) batteries (minimum 1.2 volts) and any power storage device. It is constructed as follows: The negative terminal of Battery 1 (208) is connected to the cathode of at least one or two diodes (210) and (211). This is connected to the negative terminal of a 1000 μF (electrolytic) capacitor (212) (with a higher voltage than Battery 1 and Battery 2), which is in turn connected to the emitter of an NPN transistor (BC547). The positive terminal of Battery 2 (209) is connected to at least one or two diodes (210) and (211) in parallel, which are connected to the positive terminal of the 1000 μF (212) electrolytic capacitor. The anodes of at least one or two diodes (210) and (211) are connected to the positive terminal of Battery 2. (209) --And it is connected to the collector of NPN transistor (BC547). (213), the base of transistor (312) is connected to resistor (47K ohm) (214). --And the other end of the resistor is connected to the positive terminal of battery 2 (209). The positive terminal of battery 1 (208) is connected to the positive terminal of battery 3 (207) for charging. --And the negative terminal of battery 2 (209) is connected to the negative terminal of battery 3 (207) for charging.

[0147] Battery 1 (208) and Battery 2 (209) must first be charged to charge electric (rechargeable) Battery 3 (207). If only Battery 1 (208) and Battery 2 (209) are used, the circuit functions as a battery charger; Battery 3 (207) can be removed or replaced when charged and used to charge an empty battery. If only Battery 1 (208) and Battery 2 (209) are used, the circuit functions as a battery charger. Batteries 1, 2, and 3 (207 or 208 or 209) can be configured by connecting many batteries in parallel or series to charge them, provided their combined power is approximately the same as Battery 1 and Battery 2. Battery 1 (208) and Battery 2 (209) can also be configured by connecting several batteries in parallel or series with similar power and voltage. If at least three batteries are used, the circuit functions as an independent power source, operating when Battery 3 is being charged.

[0148] Figure 7.b shows an infinite automatic generator 18. It is constructed as follows: at least two HV insulating (219) anti-parallel diodes (215) and (216) - the anode has a ring (217), and the cathode has a needle-like tip (218). If at least three batteries are used, this circuit acts as an independent power source and operates when battery 3 is charged.

[0149] Figure 2.g shows another structure of the infinite automatic generator 13. It can be used as a high-frequency or low-frequency transformer (with capacity) and as an AC and DC power source. It is constructed using at least two insulated wires separated by a high-voltage (anti-static) insulator to continuously generate and convert electrical (static) energy without the need for external power. It is constructed as follows: (141) and (142) are two conductors of similar length and thickness. (143) and (149) are high-voltage (anti-static) insulators (HV). (144) and (145) are the ends of the insulated conductor. (141), (146), and (147) are the ends of the insulated conductor. (142) and (148) are paper cases made of paper containing paraffin as a high-voltage insulator. (Example) Conductors (e.g., wires) (141) and (142) of similar length and thickness are held together at their center. And between these two conductors, in the middle of their length, there is a very thin, very high voltage (HV) insulator (143).

[0150] for example: Both insulated conductors are separated mid-length by high-voltage insulators, twisted, glued, or spun together through part of their length. Two insulated wires (141) and (142) are held together by, for example, spun high-voltage insulators (143) and (149), which are located in the center of the two spun conductors. This allows for the construction of transformers (and capacitors) capable of increasing voltages and currents when used in conjunction with complete high-voltage insulation. For example, a paper case (148) containing paper filled with paraffin... If one of the two insulated conductors (141 or 142) is of a different size or length and has a high-voltage insulator sandwiched between them, the following occurs: the longest or largest insulated conductor produces an oscillating negative voltage, which increases or decreases; and the smallest or shortest insulated conductor produces an oscillating positive voltage, which increases or decreases depending on the number of spirals in conductors (141) and (142).

[0151] Two insulated conductors (141) and (142) are twisted around each other with a high voltage insulator (143) between them separating them. These two conductors have two ends, the input (144) and (145). The two other terminals (146) and (147) are the outputs of the transformer, which produces increasing AC voltages and currents at high or low frequencies and is used when a fully insulated case (148) is filled with high voltage insulators.

[0152] A series of such transformers (insulated conductors held together by high-voltage insulators), shown in Figure 2.g, can be added, connected in parallel or loops, or connected in series. This can be done to increase or decrease the AC and DC voltages and currents that can be generated continuously without the need for additional external power sources. The devices can be connected in parallel and / or in series to generate very high alternating voltages (HV) and very high frequency electrostatic fields, currents, and voltages. The devices generate ionized air.

[0153] Figure 2.h shows an infinite automatic generator 15 used as an HVAC and DC power generator and as an HV electrostatic power amplifier, made using four insulated conductors. HV (anti-static) insulators in a high-voltage insulating case. These devices continuously amplify and generate AC and electrostatic power without externally adding power in the form of electron or ion beams. It can be used to ionize air or gas, or as a space engine or high-voltage generator using ion beams, or to charge high-voltage capacitors.

[0154] This is built as follows: At least four (insulated) conductors (161), (150), (152), and (154) are bundled together (of different lengths and / or thicknesses) at one end of each insulated conductor length. Between each conductor there is a (very) thin high voltage (HV) anti-static insulation (158). and (151) and (153). Conductor (161) is longer and / or thicker than conductor (150), Conductor (150) is longer and / or thicker than conductor (152). Conductor (152) is longer and / or thicker than conductor (154), The insulated conductor (150) is spun or twisted around a high voltage (anti-static) insulator (158), which covers one end of the insulated conductor (161). The insulated conductor (152) is wrapped and twisted around the high voltage static insulator (151), which covers one end of the insulated conductor (150). The insulated conductor (154) is wrapped around a high voltage (anti-static) insulator (153), which covers one end of the insulated conductor (152). These four conductors form three asymmetric capacitors that increase and reverse the polarity of the charge.These four conductors form three asymmetric capacitors that increase and reverse the polarity of the charge. If conductor (161) initially has a negative (-) charge, conductor (150) will gain an increased positive (+) charge. This will cause conductor (152) to gain an increased negative (-) charge that is higher than the conductor's negative (-) charge. When conductor (152) (which now has an increased negative charge) is connected to conductor (161) (which has a negative charge), a circuit is formed in a loop. This will continually increase the negative charge on conductor (161). This increase will then appear again on conductor (152), further increasing the positive charge on conductors (154) and (155) and on ring (156). Conductor (155) has a very high positive (+) charge, which is connected to ring (156), which acts as an anode (for example). A high negative charge is emitted from the tip of the needle (for example, 159), which is then attracted and passes through the positively charged ring (156). This ring is connected to a positively charged conductor (155), which produces a beam of negatively charged particles in air or vacuum.

[0155] Here is an example of conductors (161), (150), and (152) creating two asymmetrical capacitors in a loop. By using, say, four, six, or more asymmetrical capacitors in the loop, we can amplify the negative charge in the circuit. By using more asymmetrical capacitors in the loop, say, three, five, or more, we can increase the positive charge in the loop. This increase further increases the voltage and strength of the device, and thus the power, beam,... or high voltage generator.

[0156] This device has no mechanical parts and can be connected in series (positive to negative) or parallel with other similar devices. It is intended to continuously generate more powerful electron or charged particle beams without an external power source. This can be used to generate thrust for engines used in space or vacuum, or to ionize air, gas, or plasma.

[0157] It generates continuous higher voltage (HV) power without the need for an additional external power source. For best results, this equipment should be housed in a case or box (157) filled with a very good (anti-static) insulating material (e.g., paraffin or oil).

[0158] Figure 3.a shows an infinite automatic generator 6 used as an AC power generator and AC power amplifier made using at least three or four common transformers.

[0159] This transformer has internal capacitance (which also acts as a capacitor) and requires an external AC power source initially, but subsequently does not.

[0160] This was constructed as follows (110) is the secondary (output) coil of transformer 1. (111) is the core of transformer 1. (112) is the primary (input) coil of transformer 1. (113) is the secondary (output) coil of transformer 2. (114)(115) are the primary (input) coils of transformer 2. (116) is the secondary (output) coil of transformer 3. (117) is the core of Transformers 3. (118) is the main input coil of transformer 3. (108) and (109) are the outputs of the three secondary (output) coils of transformers 1, 2, and 3 connected in parallel. (106) and (107) are the inputs to the primary coils of transformers 1, 2, and 3 connected in parallel. The secondary (output) coil of transformer 1 is connected in parallel with the secondary (output) coil of transformer 2. The secondary (output) coil of transformer 1 is connected in parallel to the secondary (output) coil of transformer 3. The primary (input) coil of transformer 1 is connected in parallel with the primary (input) coil of transformer 2 and the primary (input) coil of transformer 3.

[0161] For example: The output (secondary) voltage of Transformer 1 is 12V and the power is 6W / h. The output (secondary) voltage of Transformer 2 is 12V and the power is 3W / h. The output (secondary) voltage of Transformer 3 is 12V and the power output is 1W / h. The input (primary) voltage of transformer 1 is 220V and the output is 6W / h. Transformer 2 has an input (primary) voltage of 220V and an output of 3W / h. Transformer 3 has an input (primary) voltage of 220V and an output of 1W / h.

[0162] For example: The terminal outputs (108) and (109) of the continuous automatic charging transformer produce an AC high-frequency current. This AC current can be transformed again. This is done by connecting the secondary outputs (108) and (109) to the inputs of a fourth transformer. This is done as follows: Transformer 4 has an input (primary) voltage of 12V and an output power of approximately 10W. Transformer 4 has an output (secondary) voltage of 220V and an output power of approximately 10W.

[0163] The outputs of (108) and (109) are connected in phase or out of phase (90° + 90° = 180°) to the input of transformer 4. The output of transformer 4 is connected to a circuit made up of diodes (for example) so that AC current flows only to the inputs (106) and (107) of the three transformers connected in parallel.

[0164] The principle used for these three (or four) transformers is similar to that used for (rechargeable) batteries and capacitors in DC power supplies, as shown in Figure 1.a. However, it is adapted to AC power supplies by using transformers with different output powers, and a different input power for each of the three or four transformers, while using the same input voltage.

[0165] By the same principle, a circuit can use four, five, or even more ordinary transformers.

[0166] Figure 3.b shows an infinite automatic generator 7 used as an AC power generator and AC power amplifier. It is built with a combination of at least two new models / types of transformers that amplify alternating current (AC) current more than a normal transformer. These new types of transformers are looped together in a circuit to produce continuous AC power without the need for an external power source.

[0167] This is constructed as follows:

[0168] (26) and (27) are the inputs of primary transformer A. (28) and (29) are the outputs of primary transformer A. (30) and (31) are the inputs of secondary transformer B. (32) and (33) are the outputs of secondary transformer B. (34) is the input coil of primary transformer A made of insulated magnetic alloy wire. For example: insulated silicon steel wire (95% iron with silicon (approximately 5%)) or insulated iron (30%-70%)-nickel (70%-30%) alloy wire... (These magnetic alloy wires amplify the alternating magnetic field around the insulated magnetic alloy wire. (35) is the output coil of primary transformer A made of insulated non-magnetic wire. For example, the insulated copper wire (36) is the input coil of the secondary transformer B (made of insulated magnetic alloy wire), such as insulated silicon steel wire or insulated iron-nickel alloy wire, which amplifies the alternating magnetic field around the insulated magnetic alloy wire. (37) shows that the output coil of secondary transformer B is made of copper or other non-magnetic alloy. (38) is the core of the primary transformer (made of silicon steel, ferrite, etc.). (39) is the core (silicon steel, ferrite, etc.) of secondary transformer B.

[0169] These two new models / types of transformers, A and B, amplify the AC current from the input (26) and (27). They are made using insulated magnetic alloy wire for the input coil (34) of the primary transformer, A. They are made using insulated magnetic alloy wire for the input coil (36) of the secondary transformer, B.

[0170] The insulated magnetic alloy wire forming the coils (34) and (36) can be, for example: insulated silicon steel wire, or insulated iron-nickel alloy wire, ... (rather than insulated copper wire).

[0171] These insulated silicon steel coils are located in the input coils (34) of primary transformer A. These insulated silicon steel coils are located in the input coils (36) of secondary transformer B. This insulated magnetic coil further amplifies the magnetic field generated by the AC current from the input primary coils (34) and (36) in the core (38). (39) Again, it amplifies the output coils (35) and (37) of transformers A and B; this generates amplified alternating induced AC current and AC power in the output coils. The output coils are made of copper (35) and (37) in the new type transformers of type A and B. This output is available at the outputs (28) and (29) of the coil (35) of primary transformer A. It is made of insulated copper wire. This output is available at the outputs (32) and (33) of the output coil (37) of secondary transformer B.

[0172] The amplified output from transformer A is amplified again in transformer B. This power can be further amplified by using further transformers designed as transformers A and B as shown in Figure 3.b.

[0173] Both transformer A and transformer B reverse the phase of their input currents by 180 degrees. The phase of the current outputs (32) and (33) is reversed by 90 degrees at transformer B and again by 90 degrees at transformer A's outputs (28) and (29). This creates a 180-degree phase reversal with the new type transformers A and B. The outputs (32) and (33) of secondary transformer B can be looped back to the inputs (26) and (27) of primary transformer A with a diode or other electrical circuit. This further amplifies the outputs of secondary transformers A and B. The circuit in Figure 3.a can also use three or four of these new type transformers.

[0174] Figure 4.a shows an infinite automatic generator 8 used as an AC power generator and charger. It consists of a coil, at least two diodes, a rod or bar-shaped magnet, and high-voltage (anti-static) insulators. It is used as an AC power generator.

[0175] This is constructed as follows: (40) is a magnet. (41) is a high voltage anti-static insulator. (42) and (43) are the coil outputs. (44) is a coil. (45) and (46) are two (fast switching) diodes. (47) and (48) are HV (anti-static) insulators between the magnet and the coil, and also insulate the diode.

[0176] The insulated magnet (40) is a bar (or rod) shaped magnet that generates an infinitely continuous oscillating (AC) current by connecting two isolated, oppositely facing diodes (45) and (46) in parallel on either side of the magnet's longest end, and by placing a very thin, high voltage (HV) anti-static insulator (41) in the very narrow space between the oscillating magnet and the coil.

[0177] Insulated magnets contract and uncontract by using a very low AC voltage across a large magnet (preferably made of a metal or alloy) to cause magnetic contraction and uncontraction. This low AC current repeatedly shorts two (or more) insulated diodes (or Zener diodes and diodes) together. The diodes in the insulated magnet (40) are insulated by high-voltage anti-static insulators (41) and (47), creating a short circuit (48).

[0178] The magnet vibrating at its longest part generates an oscillating magnetic field around the magnet (40), which causes an oscillating or alternating current at the outputs (42) and (43) of the coils (44).

[0179] The coil (44) must have the proper impedance to resonate with the frequency of the vibrating magnet, increasing the induced current in the coil (44). This means that the coil (44) must have the proper dimensions and number of turns.

[0180] The AC power generated continuously without the need for an external power source can be increased by connecting it to a new type of transformer detailed in Figure 3.b, or it can be converted to DC power using diodes. By using Zener diodes instead of diodes (45) and (46), pulsating DC power can be generated continuously without the need for an external power source.

[0181] Figure 4.b shows the two-dimensional structure of the infinite automatic generator 8 used as an AC power generator and AC charger.

[0182] It consists of a tubular magnet, a coil with a core made of a magnetic alloy (such as ferrite, silicon steel, or iron-nickel alloy), a high-voltage (anti-static) insulator, and two diodes. It is constructed as follows:

[0183] (52) is a tube-shaped magnet. (50), (53), (54), and (55) are high voltage anti-static insulators. (51) is a coil. (49) is the coil core. (56) and (57) are two (fast switching) diodes. (58) and (59) are the AC current and AC power outputs generated by the coil.

[0184] The core (49) is insulated from the coil (51) by a thin high voltage (HV) antistatic insulator and is placed and held inside a metallic magnet (52), which is in the form of a tube insulated by HV (antistatic) insulators (53), (54), and (55).

[0185] The insulated magnet (52) oscillates, generating an infinite alternating current (AC) current within the coil (51). This is accomplished by connecting the longest end of the magnet to a tube (52) and connecting it to at least two insulated diodes (56) (57). This allows the magnet within the tube to repeatedly contract and expand using magnetic contraction. This is caused by repeatedly shorting a very low AC current across the large insulated magnet (52). There are two (or more) insulated diodes (56) (57).

[0186] The vibrating insulating magnet (52) generates an oscillating magnetic field within a core (49) made of a magnetic alloy.

[0187] (Silicon steel, ferrite, iron-nickel alloy...).

[0188] This core amplifies the oscillating magnetic induction field from the oscillating magnet (52) in the coil (51), resulting in a higher oscillating (AC) induced current and AC power at the outputs (58) and (59) of the coil (51).

[0189] The coil (51) is made of insulated copper wire (for example). The coil (51) and core (49) must have the appropriate impedance to resonate with the frequency of the vibrating magnet. This increases the induced current in the coil (51). This means that the coil (51) must have the appropriate dimensions and number of spirals. This means that the core (49) must have the appropriate dimensions and shape to resonate with the frequency of the vibrating magnet (52). The magnet (52) is vibrated by repeatedly shorting a low AC voltage across both ends of the magnet (51). This causes the insulated magnet to repeatedly contract and de-contract.

[0190] The AC power generated continuously without the addition of external power can be increased by connecting it to the input of a new type of transformer detailed in Figure 3.b. This AC power can be converted to DC power using diodes. By using Zener diodes instead of diodes (45) and (46), a continuously pulsating DC power can be generated without the addition of an external power source.

[0191] Figure 4.c shows a third structure of the infinite automatic generator 8 used as an AC power generator. It consists of a C-shaped magnet and a coil with a core made of a magnetic alloy (such as ferrite, silicon steel, or iron-nickel alloy), plus two diodes and a high-voltage anti-static insulator.

[0192] This build is as follows: (60) and (61) are the outputs of the coil generator. (AC current (64) is a coil. (63) is the coil core (made of ferrite, silicon steel, supermalloy, etc.). (65) is a C-shaped (metal, alloy, ferrite, ...) magnet. (66) and (67) and (68) and (71) are anti-static insulators for high voltage. (69) and (70) are two (fast switching) diodes. By combining these, you can create an infinite automatic generator.

[0193] The coil (64) and core (63) (which could be replaced by a transformer) are located near a vibrating C-shaped magnet (65) surrounded by HV electrostatic insulators (66), (67), and (71). The magnet is continuously vibrated by connecting at least two (back-to-back) diodes (69) and (70) in parallel on either side of the magnet's longest end. The ends of the magnet (65) are then placed in a C-shape very close to the surfaces of both sides of the core (63) and coil (64). The core and coil are separated by a (very) thin high-voltage anti-static insulator (68). This high-voltage insulator is placed in the very narrow gap separating the two sides of the magnet (65) from the two sides of the core (63). The core is surrounded by the coil (64).

[0194] By connecting the ends of an insulated magnet (65) in parallel with at least two reverse-biased diodes (69) and (70) (for example), the magnet (65) can contract and expand by itself using magnetic contraction and de-contraction. This is caused by a very low AC voltage across the large magnet (65) being repeatedly shorted by the isolated diodes (69) and (70). HV insulators (66)&(67)&(68)&(71) allow the AC voltage to be generated.

[0195] A C-shaped vibrating magnet (65) generates an oscillating magnetic induction field, which is amplified in the core (63) (made of ferrite, silicon steel, iron-nickel alloy, etc.), which generates an alternating current in the coil (64) at the outputs (60) and (61).

[0196] The coil (64) and core (63) must have the proper impedance to resonate with the frequency of the vibrating magnet (65), which increases the induced current in the coil (64). This means that the coil (64) and core (63) must have the proper dimensions, number of spires, shape, etc., so that they can resonate with the frequency of the vibrating magnet.

[0197] The AC power generated by this infinite automatic generator is continuous without the need for additional external power sources and can be converted to DC power using diodes. By connecting it to a new type of transformer detailed in Figure 3.b, the AC power can be continuously generated without the need for additional power sources. The AC power generated can be increased by using two Zener diodes instead of diodes (69) and (70), which allows for the generation of continuously pulsating DC power without the need for an additional external power source.

[0198] Figure 4.d shows a fourth structure of the Infinite Automatic Generator 8, used as an AC generator and / or AC charger. It is constructed using a transformer with two coils with a magnetic alloy core made of silicon steel, ferrite, iron-nickel alloy, etc. It also contains high-voltage (HV) insulation (PET, oil, polyethylene film, etc.), two diodes, and a powerful rod-shaped magnet.

[0199] This is constructed as follows:

[0200] (72) is a magnet that can be made of iron, nickel, and cobalt alloys, or other metal alloys (or ferrite magnets, etc.), and is shaped (for example) like a rod. (However, it can be a C or U shape or any other shape...) (74) and (75) are two reverse-connected (fast-switching) diodes. (79) and (80) are one of the two outputs of the transformer output coil (77). (AC) (81) and (82) are the other two outputs of the transformer output coil (78). (AC) (77) is one of the transformer coils. (78) is another coil of the transformer. (72) is a rod-shaped magnet. (73) is a high voltage (anti-static) insulator. (74) and (75) are two reverse-connected (fast switching) diodes. (76) is the core of the transformer.

[0201] An infinite series of alternating (AC) currents are generated in coils (77) and (78) by placing the longest side of the magnet very close to the transformer core (76) and by placing a very thin, high-voltage static insulator (73) (e.g., PET or oil) in a very narrow gap between one side of the magnet (72) and the other side of the transformer core (76). This magnetic contraction and deconstriction is caused by a very low current AC voltage across the large, insulated magnet (72), repeatedly shorting out two (or more) diodes (74 and 75). This magnetic contraction and deconstriction is caused by a very low current AC voltage across the large, insulated magnet (72), repeatedly shorting out two (or more) diodes (74 and 75). The vibrating magnet (72) creates a magnetic induction field that is amplified in the transformer core (76) (made of ferrite, silicon steel, iron-nickel-cobalt alloy, or other magnetic alloys, etc.), which generates AC current in the coils (77) and (78), resulting in AC power at outputs (81) and (82). This in turn generates AC power at the transformer outputs (79) and (80) used in the infinite automatic generator.

[0202] The coils (77) and (78) and the core (76) must have the appropriate impedance to resonate with the frequency of the vibrating magnet (72). This resonance increases the induced current in the coils (77) and (78). This means that the coils (77) and (78) must have the appropriate dimensions and number of turns. The core (76) should also have the appropriate dimensions and shape to resonate with the frequency of the vibrating magnet (72). The generated AC power can be further increased by connecting the outputs (81) and (82) or the outputs (79) and (80) to the input of a new type of transformer detailed in Figure 3.b. This AC output power can be converted to DC power using a diode. If a Zener diode replaces the diode (74), DC pulsed power may appear at the output (75).

[0203] Figure 5.a shows a top view and Figure 5.b shows a side view of the infinite automatic generator 9 as a mechanical generator; a motor. It consists of at least one circular magnet and one or more other magnets. When connected to a dynamo, it continuously generates mechanical and electrical energy without an external power source. This build is shown below.

[0204] (83) and (87) are examples of motors. (84) is an external bar magnet with its axis (164) and a circular magnet showing the south magnetic pole with its south pole located below the rotor. (85) is the shaft of the rotor (90) connected to the circular magnet. (86) (86) is a circular magnet connected to the rotor. (90) (88) is a second external bar magnet fixed to its own axis (163) with its north pole above the circular magnet (86), which has its magnetic north pole on its upper side. (165) is an adjustment knob for manually changing the position and angle of the magnet. (88) (163) is the axis that allows the magnet (88) to rotate and change its position and angle relative to the circular magnet (86). (166) is a knob for manually adjusting the position and angle of the magnet. (84) (164) is the axis that allows the magnet (84) to rotate and change its position and angle relative to the circular magnet (86). (89) is the free space between the magnets, which can be air or vacuum. (90) is a rotor connected to a circular magnet (91) is the hole around which the rotor shaft rotates, and that hole is in the case (83) and (87) that surrounds the motor (possibly a magnetic gear). (93) is the side of the inner circular magnet with the south pole below the rotor and the north pole above the rotor, The circular magnet (92) has its north pole on the rotor and together with the circular magnet 10 creates an infinite automatic generator.

[0205] An example is a motor.

[0206] ---A circular magnet (86) is connected to the rotor (90) and is free to rotate around its axis (85), with a south pole (93) below the circular magnet (86) and a north pole (92) above the circular magnet (86); ---One (or more) bar-shaped (or C-shaped, U-shaped, or other shaped) magnets (84) are positioned below the circular magnet (86) so that the south pole is visible below the circular magnet (86).

[0207] ---And on top of the circular magnet (86) there is another magnet in the shape of a rod (other shapes like C or U are also acceptable) with its north pole pointing above the circular magnet (86). (The two bar magnets (84) and (88) can also be replaced by one or more bar magnets bent into a U or C shape or other shape.)

[0208] --And below the circular magnet (86) is the south pole of this other magnet (similar to (84)), shaped like a C or U or some other shape. The underside of the circular magnet (86) also shows a south pole.

[0209] --And the two bar magnets (84) and (88) can be replaced by one or more bar magnets bent into a U-shape, C-shape, or other shape. The top of the circular magnet (86) marks its magnetic north pole. And above the circular magnet (86) is the north pole of another magnet (like (88)), C-shaped, U-shaped, or other shape. The top of the circular magnet (86) marks its magnetic north pole.

[0210] Magnets (84) and (88) are fixed around their axes (164) and (163) at a variable angle. This variable angle is maintained using adjustment knobs (165) and (166) located near the circular magnet (86), allowing the circular magnet (86) and rotor (90) to rotate around the axis (85). This variable angle is maintained using adjustment knobs (165) and (166) located near the circular magnet (86). U-shaped, C-shaped, or other shaped bar magnets (84) and (88) are positioned above and below the circular magnet at an angle that creates a magnetic repulsion force. (86) The circular magnet is connected to the rotor at its center, allowing it to rotate freely around its axis. (85) This rotation is caused by the combined repulsive magnetic forces of the two (or more) bar magnets (84) and (88) acting as a repulsive couple against the magnetic force of the circular magnet (86). This results in the rotor (90) moving in a circular motion about its axis (85), allowing the motor to rotate freely and continuously without the application of external power.

[0211] A combination of C-shaped, U-shaped, or other shaped magnets can be used to create a simultaneous repulsive magnetic force against a circular magnet. (86) This combined repulsive magnetic force is located above and below the circular magnet (86), with one or more C-shaped, U-shaped, or similarly shaped magnets.

[0212] This is achieved by using two rod-shaped magnets (84) and (88), and two U-shaped, C-shaped, or other shaped magnets, positioned or fixed at an optimal angle around the axes (163) and (164). This allows the magnetic repulsion forces above and below the circular magnet (86) to rotate around the rotor (90) connected to the center of the circular magnet (85). This is done as follows: -One (or more) magnets bent into a U-shape, C-shape, or other shape are shown with their south poles below a circular magnet, while the north pole of the same magnets is above the circular magnet (86) in a C-shape or U-shape. -U-shaped or C-shaped magnets are positioned at the optimum angle / orientation using the adjustment knobs (165) and (166). This magnet combination allows magnetic repulsion above and below the circular magnet (86), which rotates freely around the axis (85) and rotor (90).

[0213] Adding other combinations of magnets in rod or C- or U-shape (or other) shapes can simultaneously create repulsive and attractive forces to the circular magnet (86). These C- or U-shaped additional magnets act as additional magnetic force couples to generate more mechanical energy from this Infinite Automatic Power 25 generator motor. This creates magnetic attraction by adding one or more additional magnets arranged in a U- or C-shape at an optimal angle / orientation around the rotating circular magnet (86) and the rotor (90) connected to its shaft (85). --This construction is achieved by placing one or two (or more) magnets arranged in a C- or U-shape with their north poles below a circular magnet (86), the underside of which shows its magnetic south pole. --In a C-shaped or U-shaped magnet, its south pole is located at the top of the circular magnet (86). The top surface of the circular magnet (86) shows its magnetic north pole.

[0214] When two, four, or more magnets (bar, C-, U-shaped, or other shapes) interact with each other, the attractive and repulsive forces between them cause the circular magnet (86) to rotate freely around its axis (85) with increasing force. This infinite, automatic generator or motor can continuously generate more mechanical energy (which can be converted into electrical energy, etc.) without the need for an external power source. Each bar, C-, U-shaped, or other shaped magnet can be fixed at its midpoint to the axis (163) and (164), generating magnetic forces that repel and / or attract the circular magnet (86). These C- or U-shaped magnets can rotate approximately 90 degrees around their axis. By adjusting the knobs (165) and (166) remotely or manually, the circular magnet (86) and rotor (90) rotate clockwise or counterclockwise around the axis (85).

[0215] A bar, C, U, or other shaped magnet can be moved around its axis remotely or manually from 0 to 180 degrees. This generates a variable repulsive (and / or attractive) magnetic force relative to the circular magnet. As a result, the circular magnet (86) and rotor (90) can rotate freely around the shaft (85) with increased or decreased force, increased or decreased speed, reversed direction, or stopped completely. This is accomplished by using a bar, C, or U shaped magnet to decrease, increase, reverse, or stop the repulsive or attractive force relative to the circular magnet (86). This is done by varying the angle or distance of the magnetic repulsion (and / or attraction) near the circular magnet (86) as it rotates around its (85) axis.

[0216] By using a fixed magnet in the shape of a C or U, without the need for adjustment knob (166) or shafts (164) and (163), a simplified version of a perpetual motion infinite generator can be made.

[0217] The circular magnet (86) rotates freely around its axis, continuously generating mechanical energy without external power (85). This mechanical energy can be converted into electricity by connecting the axis (85) of the circular magnet (86) to the axis of a dynamo that generates AC and DC power. The output of this can be connected to the input of a new type of transformer, shown in Figure 3.b, and amplified AC power can be obtained from the output of the new type of transformer.

[0218] Figure 5.c shows a top view, and Figure 5.d a side view, showing how this infinite automatic generator 10 can be used simultaneously as a mechanical and alternating current generator by connecting a circular magnet (86) to a rotor and shaft (85). It consists of a circular magnet (86) with a row of holes (182) along its periphery, separated by a non-hole section (183) of the same diameter. This is connected to the rotor and shaft (85). At its four ends (184), (185), (186), and (187) (the size of the hole diameter), are adjacent two identical, series-connected, counter-wound coils (188) and (189) with C-shaped cores (191) (192). These two counter-wound coils simultaneously face the holes and non-holes (repeatedly) as the circular magnet (86) rotates. (190).The rotation of a circular magnet with a hole creates an AC induction in two coils made of C-shaped cores (191) and (192).

[0219] The AC output generated can be connected to the input of a new transformer (A) detailed in Figure 3.b, allowing for further enhancement of the power from an infinite self-generating motor. The electrical output of the new transformer (A) shown in Figure 3 can be increased by the new transformer detailed in Figure 3. This increase in output can be repeated as many times as required.

[0220] Figure 6 shows the infinite automatic generator 11. It uses a standard electric motor and utilizes AC and DC currents. Inside is a rotor (122) shaped like the capital letter "I," typically made of silicon steel (or other magnetic alloy). These silicon steel plates are joined together to form an I-shaped three-dimensional rotor. This is composed of the following: (120) is the static magnet of the electric motor, showing its magnetic pole in front of one of the two ends of the rotor. (121) is another static magnet of the electric motor, showing its magnetic pole on the opposite side of the rotor. (122) is the type I rotor of the electric motor. (123) and (124) are coils made of insulated magnetic alloy wire wound around the rotor branches of the new electric motor. (122) and (125) are the shafts located in the center of the rotor of the new electric motor. (122) The coils (123) and (124) are made of insulated magnetic alloy wire, which amplify the alternating magnetic field generated by the DC and / or AC current in the coils. Coils (123) and (124) are wound on two branches of rotor (122), which is I-shaped with two branches separated by axis (125) on rotor (122).

[0221] Each end of the I-shaped rotor generates an alternating magnetic field (near and in front of) the constant magnetic field of the magnet (120) (121). The alternating magnetic forces from the rotor (122) and the magnets (120) and (121) cause the rotor to rotate when current flows through the coil (123) (124).

[0222] Conventional DC and AC electric motors use coils of insulated copper wire. However, this infinite self-generating motor utilizes DC and / or AC currents in its coils, which are made of insulated magnetic alloy wire. These insulated magnetic wires include, for example, insulated silicon steel wire or insulated iron-nickel alloy wire. Alternating current in the insulated silicon steel [Fe (95%) & Si (~5%)] wire (or insulated iron-nickel alloy [Fe (25%-75%) & Ni (75%-25%)] wire) generates an amplified alternating magnetic field in the coils (123) and (124). This amplified alternating magnetic field in the coils (123) and (124) made of insulated magnetic wire is stronger than that in the coils made of insulated copper (Cu (~99%)) wire used in conventional electric motors. This amplified alternating magnetic field in the coils (123) and (124) made of insulated magnetic wire is again amplified in the core of the rotor (122), made of silicon steel.

[0223] This strong alternating magnetic field at both ends of the rotor (122) opposes the magnetic field of the (electric) or static magnets (120) and (121) placed around the rotor (122). This increases the magnetic force between the ends of the rotor (122) and the opposing static magnets (120) and (121) (and / or electromagnets). The result is an infinite automatic generator that provides more mechanical power than a normal electric motor using insulated copper. (This is an electric motor using insulated magnetic alloy wire) looks similar to this: - Electric motors with insulated copper wires -With an electric motor using insulated magnetic alloy wire.

[0224] If the infinite automatic generator is an electric motor made of magnetic alloy wire and connected to the shaft of a generator to generate power, some of the power from the generator can be supplied to the electric motor using a coil made of magnetic alloy wire that drives the generator.

[0225] This invention is applicable to electric motors of any type, genre, or model that use a core made of a magnetic alloy and a coil made of insulated copper wire. These motors made with insulated copper wire can be replaced with coils made with insulated magnetic alloy wire, such as insulated silicon steel wire or insulated iron-nickel wire, in electric motors using DC and / or AC current and with rotors of any shape. For example, with a rotor: a geometry with two branches and two coils separated by the rotor axis, or Y-shaped, with three branches and three coils separated by the rotor axis, Or an X-shape with four branches and four coils separated by the rotor axis. Or by using other rotor shapes in electric motors.

[0226] This invention also applies to electric motors with rotors without coils, where the copper wire forming the coils is in the stator (where the stator is made of a magnetic alloy and has insulated copper wire inserted on the outside of the rotor) (on the stator arranged around the rotor). The insulated copper coils used in the stator can be replaced with coils of insulated magnetic alloy wire. For example, using insulated silicon steel wire or insulated iron-nickel alloy wire, it is possible to make an infinite self-generating motor, which can continuously generate more mechanical energy without adding external power.

[0227] By connecting this new type of electric motor by its shaft to a dynamo, and by using a portion of the dynamo's electrical output to power an infinite automatic generator, this new type of electric motor (made from magnetic alloy wire) can produce more and more electrical and mechanical power continuously without the addition of any external electrical power.

[0228] To increase the power output, the electrical output of the dynamo (which is connected by a shaft to the new-type motor) is distributed to the input of at least one new-type transformer, as detailed in Figure 3.b. Its amplified AC output is connected to the electrical input of an infinite automatic generator (which is a new-type electric motor made of insulated magnetic alloy wire). This provides more power to the new-type motor, which produces more mechanical and electrical power. (This can be used in vehicles, cars, trucks, trains, airplanes, spacecraft, etc., or even power drills, washing machines, etc.) Combinations of some devices from my inventions (mentioned above) that can be used together include (for example): Combination 1: Generate more power from the circuit shown in Figure 3.a using the three new transformers detailed in Figure 3.b. Combination 2: Use the new type of transformer detailed in Figure 3.b to amplify power from one or more of the infinite devices detailed in Figures 4.a, 4.b, 4.c, and 4.d. Combination 3: Use one or more of the new types of transformers detailed in Figure 3.b to amplify the power produced by the device shown in Figure 2.a. Combination 4: Combinations 1, 2, and 3 can be used to store or charge the generated power, or to charge a large capacitor or a high-power (rechargeable) battery, as shown in Figure 1.a through Figure 1.g. (1;a,b,c,d,e,f,g) Combination 5: The new motor shown in Figure 6 can be used with the dynamo and transformer detailed in 3.b and / or 3.a to generate more power. This power can be shared with the new motor in Figure 6 to produce more mechanical and electrical power. Combination 6: Many of the devices detailed in Figure 2.f are connected in series, parallel, or loops, and combined with the devices detailed in Figure 2.e to generate more powerful electron beams, ion beams, and more powerful high-voltage electrostatic power for use in ion beam propulsion engines. Combination 7: Use a combination of the other devices shown in Figures 1.a through 6, along with the infinite automatic power generation device detailed in Figures 1.a through 6.

[0229] Figure 7.c shows an infinite automatic generator 19. It is made from the two circuits used in Figure 7.a. One circuit, when activated, causes voltage and current to flow in one direction, and then the other circuit is activated, causing current to flow in the opposite direction.

[0230] The entire circuit in Figure 7.b acts as an inverter that turns both circuits on and off in the following way: ----Resistors of the following values: Components (247), (248), and (249) in Figure 7.b are 1K ohms. Components (250) and (251) in Figure 7.b are 47 kilohms. Component (252) is 160 kilohms. Component (253) is 2.2 kilohms. Components (254) and (260) are 1.2 kilohms. That part (255) is 120 kilohms. The sum of components (256), (257), and (261) is 470 kilohms. ---Capacitors with the following values: Components (245) and (246) are 1000µF, and component (258) is 47pF. ---Fast switching diodes 1N4148 are found in the following components: (234) & (235), (236), (237), (238), (239), (240), (241), (242), (243), (244) ---NPN transistors (BC547) are found in the following components: (227), (228), (229), (230) ---NPN transistor (2N6052) is included in the components: (224) ---PNP transistors (2N4001) are included in components: (231), (232), (233) ---PNP transistor (2N6059) is included in the components: (263) --- and the (rechargeable) battery for the two circuits are included in the components. Su: (220), (221), (222), (223) ---This circuit uses two circuits to alternately charge component batteries (225) and (226). The frequency with which the two circuits alternate on and off is controlled by an electric oscillator that generates sine or square wave voltages at points (259) and (262). This circuit is an example of generating continuous alternating current at (263) and (264) without an external power source.

Claims

1. Apparatus for a power system, including: Power supply output The device that generates electricity is made from the following materials: At least one module, or any combination thereof, is composed of multiple modules; The first module includes at least one infinite automatic power generation device belonging to the following group: Infinite automatic power generator 1; Infinite automatic power generator 3; Infinite automatic power generator 4; Infinite automatic power generator 5; and combinations thereof; The third module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 9; Infinite automatic power generation device 10; and combinations thereof; The fourth module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generator 12; Infinite automatic power generator 13; Infinite automatic power generator 14; Infinite automatic power generator 15; Infinite automatic power generator 16; and combinations thereof; Module 5 includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 17; Infinite automatic power generation 19; and combinations thereof; The sixth module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 18; and The combination; It is a device for storing electricity and is made from the following materials: At least one module, or any combination thereof, is composed of multiple modules; The first module includes at least one infinite automatic power generator, which is part of the following group: Infinite automatic power generator 1; Infinite automatic power generator 3; Infinite automatic power generator 4; Infinite automatic power generator 5; and combinations thereof; the fifth module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 17; Infinite automatic power generation 19; and combinations thereof; The combination; It is a power amplification device and is made from the following materials: At least one module, or any combination thereof, is composed of multiple modules; The second module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 7; Infinite automatic power generation device 11; and combinations thereof; The fourth module includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 12; Infinite automatic power generation device 13; Infinite automatic power generation device 14; Infinite automatic power generation device 15; Infinite automatic power generation device 16; and combinations thereof; Module 5 includes at least one infinite automatic power generator belonging to the following group: Infinite automatic power generation device 17; Infinite automatic power generation device 19; and combinations thereof; and combinations thereof; The six modules can be characterized as follows: The first module consists of at least one infinite automatic power generator comprising the following: It is a set of at least three power storage devices, each with the same voltage but three different power storages, connected in parallel by a switch that enables DC power generation without the need for continuous external power. The second module consists of at least one infinite automatic power generation device comprising the following: At least one insulated magnetic alloy wire coil is used in a set that includes a set containing at least one conventional electric motor and a set containing at least one electric transformer or a combination thereof. The increased magnetic field from the insulated magnetic alloy wires generated within the new electric motor, and the new electric transformer or a combination thereof, amplify AC power generation and mechanical force generation. The third module consists of at least one infinite automatic power generation device comprising the following: A set of at least one circular magnet rotates freely due to the magnetic force generated by the set of at least one magnet, and is positioned at an angle and distance from the set of at least one circular magnet, causing the set of at least one circular magnet to rotate, generate mechanical electricity, and generate alternating current. The fourth module consists of at least one infinite automatic power generation device comprising the following: A set of at least two insulated conductors, separated by a group consisting of at least one insulator and a high-voltage insulator, and insulated together by the high-voltage insulator, to generate continuous spontaneous DC and AC electrostatic power without the application of external power. The fifth module consists of at least one infinite automatic power generation device comprising the following: The sixth module consists of at least one infinite automatic power generator made of the following materials: at least two sets of similar rechargeable batteries for power generation, combined with at least a third set of rechargeable batteries for charging, and further combined with at least one set of capacitors, resistors, transistors, and optionally one or two diodes, to generate, store, and amplify continuous DC and AC power without adding external power. At least two sets of high-speed switching diodes are connected in reverse parallel, with a ring connected to one end of the set and a pin point connected to the other end, and they are insulated together with a high-voltage insulator for DC electrostatic generation without the application of external power. At least one of several modules in a power system device must use one of the following groups: a power generating device; a power storage device; a power amplification device; and any combination thereof. Multiple modules consist of at least one infinite automatic power generation device selected from the first, second, third, fourth, fifth, and sixth modules, and these combinations are used as devices in a power system along with the output of the power supply. The power system device is configured as a device to be attached to a manufactured product that uses at least one application selected from a group including power generation applications, energy storage applications, power amplification applications, and combinations thereof.

2. The apparatus according to Claim 1, comprising a plurality of modules, each consisting of a first module that includes at least one of the following four infinite automatic power generation devices. The infinite automatic power generation device 1 further includes the following: A set consisting of at least three rechargeable batteries: rechargeable battery 1; rechargeable battery 2; rechargeable battery 3, having the same voltage but at least three different storage capacities. In one non-limiting embodiment, the rechargeable battery includes rechargeable battery 1 (1.2 volts, 0.25 Ah), rechargeable battery 2 (1.2 volts, 0.5 Ah), and rechargeable battery 3 (1.2 volts, 1 Ah). One of the switches; and The infinite automatic power generator 3 further includes: a set consisting of at least three rechargeable batteries, rechargeable battery 1; rechargeable battery 2; rechargeable battery 3, having the same voltage but at least three different storage capacities. In one non-limiting embodiment, the rechargeable battery includes rechargeable battery 1 (1.2 volts, 0.25 Ah), rechargeable battery 2 (1.2 volts, 0.5 Ah), and rechargeable battery 3 (1.2 volts, 1 Ah). One of the switches; and The infinite automatic power generation device 4 further includes the following: A set consisting of at least three polarized capacitors: polarized capacitor 1, polarized capacitor 2, polarized capacitor 3, In one non-restrictive embodiment, polarized capacitor 1 is a 10 μF, 10-volt electrolytic capacitor, polarized capacitor 2 is a 100 μF, 10-volt electrolytic capacitor, and polarized capacitor 3 is a 1000 μF, 10-volt electrolytic capacitor. One of the switches; and The infinite automatic power generation device 5 further includes the following: At least three AC capacitors of the same voltage, One non-limiting embodiment of a high-voltage insulator includes a 0.5 mm thick insulator known as polyethylene terephthalate (PET), while another non-limiting embodiment includes paraffin-containing paper for insulation of at least 1 kV. The insulator has the size of a set of at least three AC capacitors to enable continuous power generation without the need for additional external power. The four infinite automatic power generators from Module 1 are characterized as follows: In Infinite Auto Power Generation 1, A set of at least three rechargeable batteries consists of rechargeable battery 1, rechargeable battery 2, and rechargeable battery 3, all manufactured at the same voltage. At least three capacitors in this set store three different powers and are connected in parallel. The positive terminal of rechargeable battery 1 is connected to the positive terminal of rechargeable battery 2, and further connected to the positive terminal of rechargeable battery 3. The terminals of rechargeable battery 1 are connected to the terminals of rechargeable battery 2, and further connected to the terminals of rechargeable battery 3. The optional switch is for disconnecting rechargeable battery 3, which is fully charged and has the highest stored power, from rechargeable battery 1, which is connected in parallel with rechargeable battery 2. The power output that continuously generates DC without the need for an external power source consists of the positive and negative terminals of battery 3. In Infinite Auto Power Generation 3, A set of at least three rechargeable batteries consists of rechargeable battery 1, rechargeable battery 2, and rechargeable battery 3, all manufactured at the same voltage. At least three capacitors in this set store three different powers and are connected in parallel. The positive terminal of rechargeable battery 1 is connected to the positive terminal of rechargeable battery 2, and further connected to the positive terminal of rechargeable battery 3. The terminals of rechargeable battery 1 are connected to the terminals of rechargeable battery 2, and further connected to the terminals of rechargeable battery 3. The optional switch is for physically removing the rechargeable battery 3 once it has finished charging and has the highest power reserve. The power output is formed by the positive and negative terminals of the rechargeable battery 3, which continuously generates DC power without adding any additional power. This rechargeable battery 3 is replaced by another rechargeable battery 3' for charging. In Infinite Auto Power Generation 4 The set consists of at least three polarized capacitors: polarized capacitor 1, polarized capacitor 2, and polarized capacitor 3, which have the same voltage, but the at least three polarized capacitors have at least three different sets of energy storage capacities, and they are connected in parallel. The positive terminals of at least three polarized capacitors are connected together. The negative terminals of at least three polarized capacitors are connected together. The optional switch is for disconnecting the fully charged, maximum-capacity polarized capacitor 3 from polarized capacitor 2, which is connected in parallel to polarized capacitor 1. The output power at the positive and negative terminals of at least the third polarized capacitor allows capacitor 3 to continuously generate DC power without the need for additional external power. In Infinite Auto Power Generation 5 You will need a set of at least three capacitors with the same voltage for AC; These at least three capacitors have at least three different sets of capacitances connected in parallel, and as an example of a non-limiting embodiment, this includes a 100-volt Mika capacitor with a capacitance of 100 pF, another 100-volt Mika capacitor with a capacitance of 1000 pF, and a third 100-volt Mika capacitor with a capacitance of 10,000 pF. High-voltage insulators are placed around at least three different sets of capacitors for AC, positioned away from the surroundings to avoid electrical discharge and to allow for the continuous spontaneous generation of the AC electrostatic voltage generated across them without the application of external power. The power output consists of two wires from three parallel-connected capacitors that continuously generate AC power without the need for external power. The first module consists of at least one infinite automatic power generator 1, one infinite automatic power generator 3, one infinite automatic power generator 4, one infinite automatic power generator 5, and combinations thereof, and is made of the following materials: A set of at least three power storage devices consists of the following selected groups: a set including at least three rechargeable batteries; a set including at least three polar capacitors; a set including at least three capacitors for AC; and, if multiple modules include at least one first module, a group consisting of any of the following: infinite automatic power generator 1; infinite automatic power generator 3; infinite automatic power generator 4 and infinite automatic power generator 5; and combinations thereof. These multiple modules comprise at least one first module and are configured as a device with a power output, which replaces or installs a manufactured product and uses at least one of the following selection groups: DC power generation applications; AC power generation applications; DC energy storage applications; and AC energy storage applications.

3. The apparatus according to Claim 1, comprising a plurality of modules, each comprising a second module which includes at least one of the following two infinite automatic power generation devices. The infinite automatic power generation device 7 further includes the following: A set of at least one electrical transformer, connected in a non-limiting embodiment; At least two sets of electrical transformers b are connected in parallel to form a loop circuit; and The infinite automatic power generation device 11 further includes the following: A set including at least one electric motor; A set including at least one rotor; and The two infinite automatic power generators from the second module are characterized as follows: In Infinite Auto Power Generation 7, A set of at least one new type of Transformers is made by including at least one set. Air transformer a; including at least one set; Electrical transformer b includes, along with, at least the following: A set containing at least one coil; A set of input coils for a new type of transformer, consisting of at least one coil; Insulated magnetic alloy wire is used to construct the input coil. In one non-limiting embodiment, the insulated magnetic alloy wire is an insulated silicon steel wire containing about 95% iron and 5% silicon, while in another non-limiting embodiment, the insulated magnetic alloy wire is an insulated iron-nickel alloy wire containing about 30% to 70% iron and 30% to 70% nickel. The output coil of transformer A is made of copper, as in one non-restrictive embodiment, and generates increased AC power. In one non-limiting embodiment, the output coil of transformer A is connected in parallel with at least the input coil of transformer B. The input coil of Transformer B is made of at least the insulated magnetic alloy wire of the new Transformer B. The output coil of the new transformer b, made of insulated copper wire, generates further increased AC power with a power output consisting of at least one output coil. In the infinite auto-power generation 11, A set containing at least one coil; In one non-limiting embodiment, the insulated magnetic alloy wire includes an insulated silicon steel wire containing about 95% iron and 5% silicon, while in another non-limiting embodiment, an insulated iron-nickel wire containing about 30% to 70% iron and 30% to 70% nickel is wound into a coil. Insulated magnetic alloy wires are wrapped around the rotor branches of the new electric motor. The rotor rotates around its axis. A new type of electric motor uses an increased alternating magnetic field in at least one coil within the rotor. In one non-restrictive embodiment, the new type of electric motor uses an increased alternating magnetic field from at least one coil made of an insulated magnetic alloy, and is used in the stator. In another non-limiting embodiment of the new type of motor, the stator includes at least two sets of magnets. In one non-restrictive embodiment, continuous power generation is achieved by connecting the devices. The shaft of the new electric motor is connected; On the dynamo's axis; The dynamo's output powers the new electric motor, allowing it to continuously generate mechanical and electrical power without the need for additional external power. The second module consists of at least an infinite automatic power generator 7, an infinite automatic power generator 11, and combinations thereof, and is made of the following materials: A set consisting of at least one coil; In one non-limiting embodiment, the insulated magnetic alloy wire coil includes an insulated silicon steel wire containing about 95% iron and 5% silicon, and in another non-limiting embodiment, it includes an insulated iron-nickel alloy wire containing about 30% to 70% iron and 30% to 70% nickel. Multiple modules, including at least a second mode module, are comprised of groups including at least one of the following: an infinite automatic power generator 7; an infinite automatic power generator 11; and combinations thereof. Multiple modules, including at least a second-mode module, are configured with power outputs and used as devices in power systems incorporated into manufactured products. These products include applications using at least one of the selected groups: AC power generation applications, AC power amplification applications, mechanical power applications, and mechanical power amplification applications.

4. The apparatus according to claim 1, comprising a plurality of modules, each consisting of a third module that includes at least one of the following two infinite automatic power generation devices. The infinite automatic power generator 9 further includes the following: A set of at least one circular magnet, in one non-limiting embodiment, the surfaces of the circular magnets are connected with their north poles facing upwards and their south poles facing downwards. Axis 1 rotates freely; and The infinite automatic power generation device 10 further includes the following: A set of at least one circular magnet, in one non-limiting embodiment, the surfaces of the circular magnets are connected with their north poles facing upwards and their south poles facing downwards. Axis 1a rotates freely; and The two infinite automatic power generators from the third module are characterized as follows: The infinite automatic power generator 9 further includes the following: At least one circular magnet is connected to the frame by shaft 1. Shaft 1 is connected to a rotor, which in turn is connected to a circular magnet. At least one circular magnet rotates due to the magnetic force between the circular magnet and at least one set of magnets. This set of magnets may include a C-shaped magnet in one non-limiting embodiment, or a U-shaped magnet in another non-limiting embodiment. At least one set of U-shaped magnets is positioned at a distance and at an angle from at least one set of circular magnets, allowing the set of circular magnets to rotate around axis 1 due to repulsive magnetic forces. In a non-limiting embodiment, these repulsive magnetic forces are generated by a set of at least one circular magnet and a C-shaped magnet with the North Pole facing the upper surface of the set of at least one circular magnet. In an unrestricted embodiment, the rotation of at least one set of circular magnets is caused by the magnetic attraction between the set of at least one set of circular magnets and a C-shaped magnet with the South Pole facing the upper surface of at least one of the circular magnets, and the North Pole facing the upper surface of that circular magnet. In other, less restrictive embodiments, at least two sets of C-shaped magnets are used, utilizing both repulsive and attractive magnetic forces to allow at least one set of circular magnets to rotate around axis 1. In one non-limiting embodiment, the set of magnets is C-shaped, and in another non-limiting embodiment, a U-shaped magnet is connected midway along the length of the set and connected to the at least one C-shaped magnet by axis 2a. At least one set of adjustment knobs is connected to the axis of at least one C-shaped magnet, allowing for a change in the angle of the distance between at least one set of C-shaped magnets and at least one set of circular magnets, thereby changing and controlling the rotational speed of at least one set of circular magnets. In other non-limiting embodiments, a set of at least one circular magnet is pre-fixed at a pre-selected angle a and a pre-selected distance c from the circular magnet, so that at least one circular magnet can maintain a constant rotational speed around its axis 1. The rotor shaft 1 is connected to the generator shaft 2, and the generator produces electricity with its output. This unrestrictive embodiment continuously generates both mechanical and electrical energy without the need for additional external power. The infinite automatic power generation device 10 further includes the following: At least one set of circular magnets has a continuous series of holes of the same size, with a surrounding area separated by a section without holes of the same size. Each hole is the same depth as the thickness of at least one set of circular magnets. The two ends emerge from a C-shaped magnetic alloy core 1 surrounded by a coil 1 made of copper wire, and are directed toward a continuous series of holes and gaps on the circumferential surface of a rotating circular magnet. The two ends of another C-shaped magnetic alloy core 2 are surrounded by a coil 2 made of copper wire, and face a rotating circular magnet whose circumferential surface has a continuous alternating pattern of holes and solid sections. Coil 2 has a C-shaped magnetic alloy core 2 and is positioned next to coil 1. Coil 1 has a C-shaped magnetic alloy core 1. The two ends of core 1 face the hole, while the two ends of core 2 do not face the hole. Coil 2 and coil 1 are connected in reverse order, generating an alternating current induced by the continuous gap between core 1 and core 2. Coil 1 and the electrical output from coil 1 are generated by a rotating circular magnet having a circumference with a series of holes of the same size separated by sections without holes of the same size. At least one circular magnet rotates due to the magnetic force between the circular magnet and at least one set of magnets. This set of magnets may include a C-shaped magnet in one non-limiting embodiment, or a U-shaped magnet in another non-limiting embodiment. At least one set of U-shaped magnets is positioned at a distance and at an angle from at least one set of circular magnets, allowing the set of circular magnets to rotate around axis 1 due to repulsive magnetic forces. In a non-limiting embodiment, these repulsive magnetic forces are generated by a set of at least one circular magnet and a C-shaped magnet with the North Pole facing the upper surface of the set of at least one circular magnet. In an unrestricted embodiment, the rotation of at least one set of circular magnets is caused by the magnetic attraction between the set of at least one set of circular magnets and a C-shaped magnet with the South Pole facing the upper surface of at least one of the circular magnets, and the North Pole facing the upper surface of that circular magnet. In other, less restrictive embodiments, at least two sets of C-shaped magnets are used, utilizing both repulsive and attractive magnetic forces to allow at least one set of circular magnets to rotate around axis 1. The mechanical output is generated by a rotating shaft 1 connected to a rotating circular magnet having a circumference consisting of a series of holes of the same size separated by sections without holes of the same size. The third module consists of at least an infinite automatic power generator 9, an infinite automatic power generator 10, and a combination thereof, and is made of the following materials: The set and at least one to two magnets include, in one non-limiting embodiment, a set of at least C-shaped magnets, but in another non-limiting embodiment, a set of at least U-shaped magnets. A set of at least one circular magnet, for example, a set of at least one circular magnet with a surface where the North Pole is facing upwards and the South Pole is facing downwards; Multiple modules, including at least a third-mode module, constitute a group comprising at least one of the following: infinite automatic generator 9; infinite automatic generator 10; and combinations thereof. Multiple modules, including at least a third-mode module, are configured with power outputs as part of a power system in a product using one of the following applications: alternating power generation, mechanical force, or mechanical force amplification.

5. The apparatus according to claim 1, comprising a plurality of modules, each consisting of a fourth module that includes at least one of the following five infinite automatic power generation devices. The infinite automatic power generation device 12 further includes the following: The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. The infinite automatic power generator 13, which includes at least two insulated conductors, i.e., a set including at least two electrodes of different sizes, further includes: The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. A set including at least two insulated conductors, i.e., a set including at least two different sizes of wires. The infinite automatic power generation device 14 further includes the following: The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. A set including at least two insulated conductors, i.e., a set including at least two electrodes of different sizes. The infinite automatic power generation device 15 further includes the following: The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. At least two sets are included, with two conductors in each set. The two conductors consist of two insulated wires of different sizes. The infinite automatic power generation device 16 further includes the following: The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. At least one set is required, and each set contains two conductors. The two conductors consist of two insulated wires of different sizes. The five infinite automatic power generators from the fourth module are characterized as follows: The infinite automatic power generation device 12 further includes the following: The two insulating conductors, which include at least one set of two insulating conductors, are two insulating metal foils of different sizes. One of its non-limiting embodiments includes a 4 cm² section of 0.05 mm thick aluminum foil and a 2 x 4 cm² section of 0.05 mm thick aluminum foil. Two metal foils of different sizes are separated by a high-voltage insulator of at least 100 volts. The largest electrode is held against the insulator, and the smallest electrode is held on the opposite side; these are held together. In one non-limiting embodiment, the high-voltage insulator is a 0.5 mm thick material known as polyethylene terephthalate (PET), while in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. The two insulating conductors, which include at least one set of two insulating conductors, are two insulating metal foils of different sizes. One of the non-limiting embodiments includes a 4 cm² section of 0.05 mm thick aluminum foil and a 2 x 4 cm² section of 0.05 mm thick aluminum foil. Two metal foils of different sizes are separated by a high-voltage insulator of at least 100 volts. The largest electrode is held against the insulator, and the smallest electrode is held on the opposite side; these are held together. In one non-limiting embodiment, the high-voltage insulator is a 0.5 mm thick material known as polyethylene terephthalate (PET), while in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. The high-voltage insulator must continue to insulate the infinite automatic power generator 12 in order to enable continuous power generation without the need for additional external power. The insulator, having two foils of different sizes, enables continuous power generation without the need for additional external power. Output created with two wires, One wire is connected to a large foil, and the other wire is connected to a small foil. Two wires extend to the outside of the high-voltage insulator. The output generates power output including DC and AC power. The infinite automatic power generation device 13 further includes the following: A set including at least two insulated conductors, i.e., a set including at least two different sizes of wires. In one non-limiting embodiment, two insulated wires with a diameter of 1 mm and a length of 10 cm are included, while in another non-limiting embodiment, one insulated wire with a diameter of 1 mm and a length of 10 cm and another insulated wire with a diameter of 1 mm and a length of 20 cm are included, separated by; The wires are separated by a high-voltage insulator, and they rotate and twist together at the midpoint of their length. The transformer's input is formed by the two ends of one wire, and the transformer's output is formed by the two ends of another wire. When isolated by a single high-voltage insulator, a transformer continuously and spontaneously generates an alternating current voltage. The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. In one non-restrictive embodiment, to increase power generation, at least two sets of transformers are connected in parallel to spontaneously generate a continuous AC voltage without the need for additional external power. The output of at least one transformer is connected in parallel to the input of another transformer, forming two asymmetrical capacitors. Their output is formed by the two terminals of the output wire from the last transformer. When at least two transformers are connected in parallel, they are isolated by high voltage, allowing them to generate power continuously without the need for additional external power. The infinite automatic power generation device 14 further includes the following: A set including at least two insulated conductors, i.e., a set including at least two electrodes of different sizes. In one non-limiting embodiment, this includes aluminum foil with a diameter of 1 cm and a thickness of 0.05 mm, and aluminum foil with a diameter of 0.5 mm and a thickness of 0.05 mm. Each of these two different sized electrodes has at least one hole. In one non-limiting embodiment, each electrode has at least one hole with a diameter of 1 mm. The two electrodes, each with at least one hole, are separated by an insulator. In one non-limiting embodiment, the insulator is known as polyethylene terephthalate (PET) with a thickness of 0.5 mm, while in another non-limiting embodiment, it includes mica with a thickness of 0.5 mm. The insulator has at least one hole, which in one non-limiting embodiment is a hole with a diameter of 1 mm. Each hole in the insulator is oriented towards each hole in at least two sets of electrodes of different sizes. A set of two or more electrodes, each having at least one hole, is separated by an insulator having at least one hole, forming an improved asymmetric capacitor, which is then mounted and insulated by a high-voltage insulator. In one non-limiting embodiment, the high-voltage insulator of at least 100 volts includes a material known as polyethylene terephthalate (PET) with a thickness of 1 mm, while in another non-limiting embodiment, a 1 mm thick paraffin-containing paper is used to isolate the perforated modified symmetric capacitor from its surroundings. The high-voltage insulator allows the largest electrode with a hole in a set of at least two different sized electrodes to spontaneously and continuously become negatively charged without the application of external power. High-voltage insulators allow even the smallest electrodes to spontaneously and continuously acquire a positive charge without the need for external power. Electrons accompanied by ions flow from the hole in the largest electrode with a negative charge, through the hole in the insulator, through the hole in the smallest electrode with a positive charge, and beyond the smallest electrode. The power output is generated by a direct electrostatic current formed by electron and ion beams generated from the holes of the infinite self-generating device 13. The infinite automatic power generation device 15 further includes the following: At least two sets are included, with two conductors in each set. The two conductors consist of two insulated wires of different sizes. In one non-limiting embodiment, the system includes at least two sets of insulated wires, each set consisting of an insulated wire 1 mm thick and 10 cm long, and an insulated wire 1 mm thick and 20 cm long. Each asymmetrical capacitor consists of at least two different sizes of insulated wires, separated by a high-voltage insulator. It is an electrical high-voltage insulator with a capacity of at least 100 volts, and in one non-limiting embodiment, it is made of a 0.5 mm thick material known as polyethylene terephthalate (PET), but in another non-limiting embodiment, paraffin-containing paper is used, and these together form each asymmetric capacitor. One end of the longest insulating wire of the first asymmetric capacitor was wrapped around one of the two ends of the shortest insulating wire of the first asymmetric capacitor, which were surrounded by high-voltage insulators. Each asymmetrical capacitor functions as an inverter and amplifier of electrical polarity. An asymmetric capacitor is connected in series with at least two other asymmetric capacitors. In another, less restrictive embodiment, at least two asymmetric capacitors are connected in a loop. The longest insulating wire of the first asymmetrical capacitor is connected to the shortest insulating wire of the second asymmetrical capacitor. The longest insulating wire of the second asymmetrical capacitor is connected to the shortest insulating wire of the third asymmetrical capacitor. The longest and largest wire of the third asymmetric capacitor is connected to the shortest wire of the first asymmetric capacitor. The output power is the longest wire of the third asymmetric capacitor, which generates AC and DC electrostatic currents. This can be further increased by mounting at least two asymmetric capacitors to a high-voltage insulator to keep them isolated. The infinite automatic power generation device 15 consists of at least two infinite automatic power generation devices 16 connected in series. The infinite automatic power generation device 16 further includes the following: At least one set is required, and each set contains two conductors. The two conductors consist of two insulated wires of different sizes. In one non-limiting embodiment, this includes an insulated wire 7 cm long and 1 mm thick, and another insulated wire 15 cm long and 1 mm thick. Two insulated wires of different sizes are separated by a high-voltage insulator. A high-voltage insulator is wrapped around one end of the shortest insulated wire. The longest wire is wound around a high-voltage insulator that is wound around one end of the shortest insulated wire. The longest wire is stored with high-voltage insulation, and the shortest wire is stored together with high-voltage insulation. The output is located at the end of the longest wire and the end of the shortest wire. The shortest wire continuously generates a positive charge without any external power, and its pole is +; the longest wire continuously generates a negative charge without any external power, and its pole is -; The shortest and longest wires extend sufficiently outside the high-voltage insulator. The high-voltage insulator is, in one non-limiting embodiment, 0.5 mm thick polyethylene terephthalate (PET), but in another non-limiting embodiment, it is paraffin-containing paper for insulation of at least 1 kV. The fourth module consists of at least an infinite automatic power generator 12, an infinite automatic power generator 13, an infinite automatic power generator 14, an infinite automatic power generator 15, an infinite automatic power generator 16, and combinations thereof. A set of at least two insulated conductors, selected in other non-limiting embodiments from the following groups: a set of at least two electrodes; a set of two electrodes of different sizes; a set of two insulated metal wires of different sizes; a set of at least two insulated wires; a set of at least two different sets of insulated wires. In one non-limiting embodiment, the high-voltage insulator provides at least 1 kvolt of insulation using 1 mm thick polyethylene terephthalate (PET), while in another non-limiting embodiment, it provides at least 1 kvolt of insulation using 1 mm thick paraffin paper. Multiple modules, including at least the fourth module, are comprised of groups including one or more of the following: infinite automatic power generator 12; infinite automatic power generator 13; infinite automatic power generator 14; infinite automatic power generator 15; infinite automatic power generator 16; and combinations thereof. Multiple modules, including at least a fourth-mode module, are configured with power outputs as part of a power system device installed in a product using either DC or AC power generation applications.

6. The apparatus according to claim 1, comprising a plurality of modules, each consisting of a fifth module that includes at least one of the following two infinite automatic power generation devices. The infinite automatic power generation device 17 further includes the following: At least two sets of similar rechargeable batteries; Output; and the infinite automatic power generator 19 further includes: The two sets of circuits combine to form an infinite automatic power generation device 17. Two sets of two similar rechargeable batteries (220), (221), (222), (223), they are from the Infinite Automatic Power Generation 17. One non-limiting embodiment includes a 1.2-volt, 1Ah rechargeable battery 1, a 1.2-volt, 1Ah rechargeable battery 2, a 1.2-volt, 1Ah rechargeable battery 3, and a 1.2-volt, 1Ah rechargeable battery 4. The two infinite automatic power generators from Module 5 are characterized as follows: The infinite automatic power generation device 17 further includes the following: The set includes at least two similar rechargeable batteries, consisting of rechargeable battery 1 and rechargeable battery 2. In one non-limiting embodiment, the rechargeable battery 1 (1.2 volts, 1 Ah) and the rechargeable battery 2 (1.2 volts, 1 Ah) are included. The set, which includes at least one rechargeable battery 3, must be charged. In one non-limiting embodiment, a 1.2-volt, 1Ah rechargeable battery 3 is included. A set of at least one transistor, which in a non-restrictive embodiment includes an NPN transistor BC547. A set of at least one transistor, which in a non-restrictive embodiment includes an NPN transistor BC547. The emitter of transistor BC547 is connected to the negative terminal of battery 1, and that negative terminal is connected to the negative terminal of at least one capacitor. In one non-limiting embodiment, an electrolytic capacitor with a capacitance of 1000 μF and a voltage of 10 volts is included. Optionally, the negative terminal of the capacitor is connected to the cathode of at least one diode. In one non-restrictive embodiment, this includes diode 1N4148. Optionally, the positive terminal of battery 2 is connected to the anode of at least one diode. The positive terminal of battery 2 is connected to the positive terminal of at least one capacitor. The positive terminal of at least one capacitor is connected to the collector of at least one transistor. The base of at least one transistor is connected to the terminal of at least one resistor. The other end of the resistor is connected to the positive terminal of battery 2. In one non-restrictive embodiment, a resistor of 47 kΩ = 47,000 Ω is included. The positive terminal (+) of rechargeable battery 1 is connected to the positive terminal (+) of rechargeable battery 3 to begin charging. The negative terminal of rechargeable battery 2 is connected to the negative terminal of rechargeable battery 3 to charge it. The output generates current directly from the positive and negative terminals of battery 3, providing continuous power generation without the need for an external power source. When the infinite automatic power generator 17 is used as a battery charger, a fully charged rechargeable battery 3 is replaced with another rechargeable battery 3b that needs charging. The infinite automatic power generation device 19 further includes the following: The electronic circuit uses two infinite automatic power generators 17, each generating DC, to alternately generate current in two directions (AC). The two infinite automatic power generators 17 of the electronic circuit are connected in antiparallel to generate alternating current. AC power is supplied from outputs (263) and (264) to form the power output. The electronic circuit uses two infinite automatic power generators 17, each generating DC, to alternately generate current in two directions (AC). The two infinite automatic power generators 17 of the electronic circuit are connected in antiparallel to generate alternating current. AC power is supplied from outputs (263) and (264) to form the power output. A set of one NPN transistor and one PNP transistor (reference numbers 224, 263) is used in the electronic circuit to alternately switch the output of two infinite automatic power generators 17. An electronic oscillator that generates a sinusoidal voltage is connected to the base and emitter of one NPN transistor and one PNP transistor (reference numbers 224, 263). In other non-limiting embodiments, alternating current can be generated by generating a square wave voltage connected to the inputs (262) and (259) of the electronic circuit. A set containing at least two rechargeable batteries (reference numbers (225), (226)) will be charged by at least 2 x 2 = 4 similar rechargeable batteries ((220), (221), (222), (223)). In one non-limiting embodiment, two rechargeable batteries are included for charging. These consist of a 1.2-volt, 1Ah rechargeable battery 5 and a 1.2-volt, 1Ah rechargeable battery 6. The two rechargeable batteries 5 and 6 are charged without discharging at least two similar rechargeable batteries 1, 2, 3, and 4 (reference numbers (220), (221), (222), and (223)). In one non-limiting embodiment, the infinite automatic power generation device 19 includes the following components: The set of five NPN transistors consists of four BC547 NPN transistors (reference numbers 227, 228, 229, 230) and one 2N6052 NPN transistor (reference number 224). The set of four PNP transistors consists of three PNP transistors 2N4001 (reference numbers 231, 232, and 233) and one PNP transistor 2N6059 (reference number 263). The set of three capacitors consists of two 1000μF electrolytic capacitors (reference numbers 245 and 246) and one 47pF capacitor (reference number 258). The set of 11 high-speed switching diodes 1N4148 consists of reference numbers 234, 235, 236, 237, 238, 239, 240, 241, 242, 243, and 244. The set of 13 resistors consists of three 1.6kΩ resistors (reference numbers 247, 248, and 249), two 47kΩ resistors (reference numbers 250 and 251), one 160kΩ resistor (reference number 252), one 2.2kΩ resistor (reference number 253), two 1.2kΩ resistors (reference numbers 254 and 260), one 120kΩ resistor (reference number 255), and three 470kΩ resistors (reference numbers 256, 257, and 261). The fifth module consists of at least an infinite automatic power generator 17, an infinite automatic power generator 19, and a combination thereof, and is made of the following materials: A set including at least two similar rechargeable batteries; A set including at least three rechargeable batteries for charging; output; Multiple modules, including at least a fifth module, constitute a group including at least one of the following: an infinite automatic power generator 17; an infinite automatic power generator 19; and a combination thereof. Multiple modules, including at least a fifth-mode module, are configured with power outputs and function as devices for power systems mounted on manufactured products using one of the following selection groups: DC power generation applications; AC power generation applications; DC energy storage applications; AC energy storage applications; DC amplification applications; AC amplification applications.

7. The apparatus according to claim 1, comprising a plurality of modules including a sixth module which includes at least one of the following five infinite automatic power generation devices. The infinite automatic power generation device 18 further includes the following: The set includes at least two high-speed switching diodes, comprising high-speed switching diode 1; high-speed switching diode 2, and in an example of a non-limiting embodiment, high-speed switching diode 1 is 1n4148 and high-speed switching diode 2 is 1n4148. In one non-limiting embodiment, the high-voltage insulator is 1 mm thick, known as polyethylene terephthalate (PET), and has the size of the set of at least two high-speed switching diodes, and in another non-limiting embodiment, it is 1 mm thick paraffin paper, and has the size of the set of at least two high-speed switching diodes for insulation of 1 kV or more. One infinite automatic power generator from module 6 is characterized as follows: The infinite automatic power generator 18 further includes the following: At least one set contains at least two high-speed switching diodes connected in antiparallel; The anode of high-speed switching diode 1 is connected to the cathode of high-speed switching diode 2. The anode of high-speed switching diode 2 is connected to the cathode of high-speed switching diode 1. One end of the cathode of high-speed switching diode 1 is connected to the anode of high-speed switching diode 2. The anode has a positive charge (+) and is connected to a metal ring with a diameter of 1 cm. This metal ring is used as the anode. One end of the cathode of high-speed switching diode 2 is connected to the anode of high-speed switching diode 1, and the negatively charged anode is connected to the pin point used as the cathode. One end of the cathode of high-speed switching diode 2 is connected to the anode of high-speed switching diode 1, and the negatively charged anode is connected to the pin point used as the cathode. In one non-limiting embodiment, the tip of the needle is located at a distance of approximately 0.5 cm in front of the metal ring. At least two reverse-connected high-speed switching diodes 1 and 2 are connected in antiparallel, connected to a ring and a pinpoint, and mounted on a high-voltage insulator to isolate them from the surroundings. The insulated, infinitely automatic power generation device continuously generates electron and ion beams between the needle tip and the ring, and the electron beam gradually extends beyond the metal ring without the need for external power. The sixth module consists of at least an infinite automatic power generation device 18 and a combination thereof, and is made of the following materials: A set of at least two high-speed switching diodes connected in antiparallel; High-voltage insulator; At least several modules, particularly modules including sixth-mode modules, have power outputs and function as devices in power systems incorporated into products manufactured using one of the following selection groups: DC power generation applications; DC amplification applications;

8. The apparatus according to claim 1, wherein a number of modules include at least one infinite automatic power generation device from the following group. Module 1; Module 2; Module 3; Module 4, Module 5, and Module 6, or a combination thereof, further comprising at least one infinite automatic power generation device selected from the following group: Module 1; Module 2; Module 3; Module 4, Module 5, and Module 6 Alternatively, the combination thereof and output power will be configured as a device for a power system to be attached to manufactured products selected into the following groups: manufactured products for power generation applications; manufactured products for power storage applications; and manufactured products for power amplification applications.

9. The apparatus according to claim 1, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. The infinite automatic power generation 7 further includes at least one infinite automatic power generation device 10 selected from the third module. In a non-limiting embodiment, A key feature is that the electrical output of at least one infinite self-generating device 10 is connected in parallel to an insulated magnetic alloy wire coil from at least one input of a novel transformer of at least one infinite self-generating device 7, thereby increasing the power output. In one non-limiting embodiment, the insulated magnetic alloy wire coil includes an insulated silicon steel wire containing about 95% iron and 5% silicon, but in another non-limiting embodiment, It includes insulated iron-nickel alloy wire containing approximately 30% to 70% iron and 30% to 70% nickel. The increased power output of the infinite auto power generator 7 from the new transformer a is further increased by connecting it in parallel with the other input of the second infinite auto power generator 7 of the new 2sd transformer b, which uses at least an isolated magnetic wire coil. In other unrestricted embodiments, The output coil of the new transformer b, made of copper wire coil, is connected in parallel to the input of at least one new transformer c, made of insulated magnetic alloy wire coil, from at least one other infinite automatic power generator 7, thereby increasing power generation again. The electrical output consisting of the output coil is the increased power output generated from at least one set of new transformers b, and is combined with the mechanical output of the shaft of the infinite automatic power generator 10.

10. The apparatus according to claim 1, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. The infinite automatic power generation device 7 further includes at least one infinite automatic power generation device 9 selected from the third module. In one non-restrictive embodiment, the infinite automatic power generator 9 is connected to the dynamo by shaft, and the output of the dynamo is connected at least. From at least one input of the new transformer, an insulated magnetic alloy wire coil of at least one infinite self-generating device 7 is supplied, thereby increasing the output power. What is being characterized is In one non-limiting embodiment, the insulated magnetic alloy wire coil includes an insulated silicon steel wire containing about 95% iron and 5% silicon, but in another non-limiting embodiment, It includes insulated iron-nickel alloy wire containing approximately 30% to 70% iron and 30% to 70% nickel. The increased power output of the infinite auto power generator 7 from the new transformer a is further increased by connecting it in parallel with the other input of the second infinite auto power generator 7 of the new 2sd transformer b, which uses at least an isolated magnetic wire coil. In other unrestricted embodiments, The output coil of the new transformer b, made of copper wire coil, is connected in parallel to the input of at least one new transformer c, made of insulated magnetic alloy wire coil, from at least one other infinite automatic power generator 7, thereby increasing power generation again. The electrical output consisting of the output coil is the increased power output generated from at least one set of new transformers b, and is combined with the mechanical output of the shaft of the infinite automatic power generator 9.

11. The apparatus according to claim 2, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite Automatic Power Generator 1; Infinite Automatic Power Generator 3; Infinite Automatic Power Generator 4 and Infinite Automatic Power Generator 5; and combinations thereof further include: In other words, it further includes at least three sets of power storage devices connected in parallel, and consists of the following groups: at least three sets of polar capacitors, at least three sets of rechargeable batteries, and at least three sets of capacitors for AC. A set of at least three power storage devices, each power storage device having a power storage capacity ranging from 0.1 Ah to 10,000 Ah, consisting of one or more power storage devices or a combination of multiple power storage devices with voltages ranging from 1 V to 500 V, and connected in one of at least three selected ways: series connection, parallel connection, or hybrid connection.

12. The apparatus according to claim 2, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite automatic power generation device 1; Infinite automatic power generation device 3; Infinite automatic power generation device 4 and Infinite automatic power generation device 5; These combinations are configured as power system devices for outputting voltages from 1.2 volts to 500 volts and 0.3 amperes to 500 amperes, equipped with the input voltages required for the products shown below. Mobile phones, laptops, printers, power drills, flashlights, watches, smartwatches, handheld calculators, computers, translators, cameras, electric bicycles, truck batteries, televisions, electric pumps, toy battery chargers, Chargers for A-size batteries, AA-size batteries, AAA-size batteries, and electric compressors. Android® battery chargers, drone battery chargers, robot battery chargers, electric vehicle battery chargers, electric airplane battery chargers, electric scooter battery chargers, van battery chargers, truck battery chargers, television battery chargers, electric pump battery chargers, wind turbine battery chargers, solar power battery chargers, factory battery chargers, hydrogen power plants. Battery chargers, marine battery chargers, battery chargers used in power plants, battery chargers used in hydrogen production, electric bicycle battery chargers, car battery chargers, van battery chargers, train battery chargers, airplane battery chargers, factory robot battery chargers, power plant generators, power plant battery chargers, laptop battery chargers, flashlight battery chargers, lighting battery chargers, radio battery chargers, battery chargers for batteries, camera battery chargers, vacuum cleaner battery chargers, ventilation fan battery chargers.

13. The apparatus according to claim 2, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite automatic power generation device 1; Infinite automatic power generation device 3; Infinite automatic power generation device 4 and Infinite automatic power generation device 5; These and their combinations are configured as devices for power systems that output voltages from 5 volts to 500 volts and currents from 0.3 amperes to 1000 amperes, and are adapted to replace the products listed below. Van batteries, electric bicycle batteries, truck batteries, television batteries, toy batteries, electric compressor batteries, robot batteries, drone batteries, electric vehicle batteries, electric airplane batteries, electric scooter batteries, solar power generation batteries, factory robot batteries, battery chargers for hydrogen production, car batteries, van batteries, train batteries, airplane batteries, boat batteries, batteries for lights, batteries for radios, batteries for telephones, drone batteries, wind turbine batteries, hydrogen power plant batteries.

14. The apparatus according to claim 3, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite Automatic Power Generator 7; At least one infinite automatic generator 7 and power output are configured to output voltages from 3 volts to 10,000 volts and 1 ampere to 10,000 amperes as devices for power systems attached to the products listed below. Power plant generators, portable AC generators for factories, homes, and buildings, AC generators for electric vehicles, AC generators for electric trucks, AC generators for electric ships, AC generators for electric vans, AC generators for electric airplanes, AC generators for electric spacecraft.

15. The apparatus according to claim 3, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite automatic power generation device 11; At least one infinite automatic generator 11 and power output are configured as a device for a power system to output voltages from 1 volt to 500 volts and 1 ampere to 1000 amperes, and are mounted on the products listed below. AC and DC generators for power plants, factories, homes, automobiles, trucks, airplanes, ships, trains, spacecraft, laundry, robots, androids (registered trademark), electric bicycles, electric drills, electric scooters, and battery chargers.

16. The apparatus according to claim 2, wherein the plurality of modules include at least one infinite automatic power generation device selected from the second module. Infinite automatic power generation device 7; Infinite automatic power generation device 11; The combination includes at least a set of dynamos, the shaft of which is connected to the shaft of a new type of motor of the infinite self-generating device 11, and which consists of insulated magnetic alloy wire coils and obtains power from at least the output of the infinite self-generating device 7. It has the following characteristics. At least one infinite automatic power generator 7 is made from a new type of transformer a and has an input made of an insulated magnetic alloy wire coil connected to the output of a dynamo. Furthermore, the output of the new transformer a of the infinite self-generating device 7 is connected to the input of the new electric motor of the infinite self-generating device 11. In other non-limiting embodiments, the output of a new type of transformer a is increased by connecting in parallel to other inputs using at least one isolated magnetic alloy wire coil of at least one 2sd infinite self-generating device 7. The output of the 2sd infinite automatic power generator 7 is the new transformer b, which is connected to the input of the new electric motor of the infinite automatic power generator 11. This combination of at least the 2sd infinite automatic power generator 7 and the infinite automatic power generator 11 increases both the mechanical output and the power generation output. Other non-limiting embodiments include connecting at least a third infinite automatic power generator 7, which is made of a third novel type of transformer c and has at least an insulated magnetic alloy wire coil as an input, which is connected to the output of a second novel type of transformer b. The output of the third new type of transformer C generates power for input to the infinite automatic power generator 11, which is made of a new type of electric motor made of insulated magnetic alloy wire. This combination of at least three infinite automatic power generators 7 and infinite automatic power generators 11 increases both mechanical output and power generation output.

17. The apparatus according to claim 4, comprising at least one infinite automatic power generation device in which a plurality of modules are selected from a third module: Infinite Automatic Power Generation Device 9, The Infinite Automatic Power Generator 9 and Output are configured as a power system device with mechanical power that is attached to the products listed below. Electromechanical generators for power plants, mechanical generators for factories, buildings, personal use, hydraulic engines, AC power plants, portable AC power plants, automobiles, trucks, airplanes, ships, trains, spacecraft, washing machines, electric scooters, electric bicycles, bicycles, electric drills, drills, electric helicopters, electric drones, drones.

18. The apparatus according to claim 4, comprising at least one infinite automatic power generation device in which a plurality of modules are selected from a third module: Infinite automatic power generation device 10, The Infinite Automatic Power Generator 10 and Power Output are configured as devices for a power system that generates electromechanical energy, which are attached to the following products: Machinery with electric generators, variable speed motors, variable output motors, motors for spacecraft, mechanical generators for hydraulic engines, AC power stations, portable AC power stations, for vehicles, for trucks, for airplanes, for ships, for trains, for spacecraft, for washing machines, for electric scooters, for scooters, for electric bicycles, for bicycles, for electric drills, for drills, for electric helicopters, for electric drones, for drones, power stations, portable AC power stations for factories, for homes, for buildings.

19. The apparatus according to claim 5, wherein a plurality of modules include at least one of five infinite automatic power generation devices selected from the fourth module. Infinite automatic power generator 12; Infinite automatic power generator 13; Infinite automatic power generator 14; Infinite automatic power generator 15; Infinite automatic power generator 16; The combinations thereof, and the output power, are configured as devices for the power system to be installed in the products listed below. Portable AC generators, electron generators, ion generators, air ionizers, ionized gas generators, electrostatic voltage generators, frequency voltage generators, electron beam generators, ion beam generators, space ion propulsion engines, plasma generators, energy pulse lasers, power supplies for camera flashlights, spark generators, electrostatic generators, electrostatic generators for photocopiers.

20. The apparatus according to claim 5, wherein a plurality of modules include at least one of five infinite automatic power generation devices selected from the fourth module. The infinite automatic power generator 14 further includes infinite automatic power generators 15 and infinite automatic power generators 16. In one non-limiting embodiment, this combination is characterized in that the infinite automatic power generator 15 and at least two infinite automatic power generators 16 are connected in any way, either in a series, a loop, or a combination thereof. The shortest and smallest insulating wire of the first asymmetric capacitor of the infinite automatic power generator 15 is connected to a small electrode with at least one hole of the infinite automatic power generator 14. The longest wire of the first asymmetric capacitor of the infinite power generation device 15 is connected to the small wire of the second asymmetric capacitor. The longest wire of the second asymmetrical capacitor is connected to the shortest wire of the third asymmetrical capacitor. The longest wire of the third asymmetric capacitor is connected to the largest electrode with a hole in the infinite self-generating device 14. In the infinite automatic power generation device 14, a large electrode having at least one hole is separated from a small electrode having at least one hole by an insulator having at least one hole. At least one small electrode hole and a large electrode hole face each other, And it faces at least one hole in the insulator. The infinite automatic power generator 15 and infinite automatic power generator 14 must be insulated by a high-voltage insulator, which in some non-limiting embodiments includes a 1 mm thick material known as polyethylene terephthalate (PET), In another non-limiting embodiment, 1 mm thick paraffin paper is included to ensure clearance from the surroundings, enabling continuous spontaneous electrostatic DC power generation. However, in other non-limiting embodiments, paper containing 1 mm thick paraffin is used to ensure a distance from the surroundings, enabling continuous spontaneous electrostatic DC power generation where the electron beam and ion beam extend indefinitely outside the automatic power generation device 14.

21. The apparatus of claim 6, wherein the plurality of modules including the fifth module further comprises at least one infinite automatic power generation device selected from the following group. Infinite automatic power generation device 17; Infinite automatic power generation device 19; A key feature is that at least one of the sets of diodes, capacitors, transistors, and resistors used together in the infinite automatic power generation device 17 is integrated into an integrated circuit containing diodes, capacitors, transistors, and resistors. It is characterized by being connected to the negative and positive terminals of at least two sets of similar rechargeable batteries, continuously generating power without the need for an additional external power source, and charging at least a third rechargeable battery.

22. The apparatus of claim 6, wherein the plurality of modules including the fifth module further comprises at least one infinite automatic power generation device selected from the following group. Infinite automatic power generation device 17; Infinite automatic power generation device 19; Each rechargeable battery consists of at least two sets of similar rechargeable batteries and at least a third set of rechargeable batteries, with at least one rechargeable battery connected in one of the following ways: in series, in parallel, in a hybrid configuration, or a combination thereof. Each of the at least two sets of similar rechargeable batteries and at least a third set of rechargeable batteries stores between 0.1 Ah and 10,000 Ah of power and has a voltage between 1 V and 500 V.

23. The apparatus of claim 6, wherein the plurality of modules including the fifth module further comprises at least one infinite automatic power generation device selected from the following groups: infinite automatic power generation device 17; infinite automatic power generation device 19; These combinations and power outputs are configured as devices for power systems to be attached to the products listed below, outputting voltages from 1 volt to 500 volts and 0.3 amperes to 500 amperes. Mobile phones, laptops, printers, power drills, flashlights, watches, smartwatches, handheld calculators, handheld computers, translators, cameras, electric bicycles, televisions, electric pumps, AA and AAA size battery chargers, electric compressors, battery chargers, Android battery chargers, drone battery chargers, robot battery chargers, electric vehicle battery chargers, electric airplane battery chargers, electric scooter battery chargers, electric bicycle battery chargers, van battery chargers, truck battery chargers, television battery chargers, electric pump battery chargers, toy battery chargers, wind turbine battery chargers, battery chargers used in power plants, hydrogen production battery chargers, solar power plants, factory robot battery chargers, and marine battery chargers. Car batteries, electric bicycle batteries, van batteries, truck batteries, rechargeable A, AA, AAA size batteries, electric pump batteries, toy batteries, robot batteries, drone batteries, electric vehicle batteries, electric airplane batteries, electric scooter batteries, batteries used in power plants, factory robot batteries, electric scooter batteries.

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