Self-electrolyzed sustainable hydrogen energy brushless direct current motor

Abstract

This invention relates to a novel hydrogen-powered brushless DC motor capable of self-electrolysis-powered operation. The brushless DC motor comprises an electrolysis coil, a hydrogen energy coil, an electrolysis battery, a hydrogen storage container, and a hydrogen fuel cell, collectively forming a "self-electrolysis perpetual hydrogen-powered brushless DC motor." The brushless DC motor has an N-pole permanent magnet, a S-pole permanent magnet, and a rotating shaft. The electrolysis coil and the hydrogen energy coil are located inside the brushless DC motor, while the electrolysis battery, the hydrogen storage container, and the hydrogen fuel cell are located outside the motor. An AC-DC converter, a DC-DC converter, and a gas valve are also externally located on the brushless DC motor. This perpetual hydrogen-powered brushless DC motor utilizes external hydrogen, which can be supplied to the hydrogen energy coil in a time-sharing manner via the gas valve, the hydrogen storage container, and the hydrogen fuel cell. The electromagnetic interaction between the hydrogen energy coil and the N-pole and S-pole permanent magnets drives the N-pole and S-pole permanent magnets to rotate, thereby driving a load via the rotating shaft. This perpetual hydrogen-powered brushless DC motor generates a high voltage in its electrolysis coil through the rotation of the N-pole and S-pole permanent magnets. This high voltage then powers the electrolysis battery, which uses external water to electrolyze and produce hydrogen. The electrolyzed hydrogen, via a hydrogen storage container and a hydrogen fuel cell, can continuously supply power to the hydrogen energy coil in a time-sharing manner (self-electrolysis power supply). The electrolysis coil, the electrolysis battery, the hydrogen storage container, the hydrogen fuel cell, and the hydrogen energy coil constitute a "self-electrolysis hydrogen power supply structure," allowing the hydrogen fuel cell to supply power to the hydrogen energy coil in a time-sharing manner for motor operation. Furthermore, the electrolysis coil, the electrolysis battery, and the hydrogen storage container can supply hydrogen to the hydrogen fuel cell for continuous motor operation without affecting the load operation of the perpetual hydrogen-powered brushless DC motor. Thus, by utilizing the "self-electrolysis sustainable hydrogen energy brushless DC motor" constructed in this invention, which consists of an electrolysis coil, a hydrogen energy coil, an electrolysis battery, a hydrogen storage container, and a hydrogen fuel cell, the electrolysis coil, the hydrogen energy coil, the electrolysis battery, and the hydrogen fuel cell can operate the motor using hydrogen energy. By utilizing the novel self-electrolysis hydrogen energy power supply structure of this invention, the power consumption characteristics of the brushless DC motor can be achieved by self-electrolysis hydrogen energy for time-sharing power supply, realizing the goals of energy conservation, carbon reduction, and sustainable development.

Description

Self-electrolyzed perpetual hydrogen energy brushless DC motor This invention relates to a "self-electrolysis perpetual hydrogen energy brushless DC motor", and more particularly to a brushless DC motor that utilizes an electrolysis coil, a hydrogen energy coil, an electrolysis battery, and a hydrogen fuel cell to drive a brushless DC motor, enabling the electrolysis coil, the hydrogen energy coil, the electrolysis battery, and the hydrogen fuel cell to self-electrolyze and provide time-sharing power for the motor's hydrogen energy operation. Note that in today's era of unstable oil supply and fluctuating oil prices, the cost of using oil-related energy sources may increase. Simultaneously, for environmental considerations, and to avoid drastic environmental changes caused by excessive carbon dioxide emissions from oil use, various parties are advocating for energy conservation, carbon reduction, and sustainable development practices, such as the development and use of hydrogen energy. Effectively utilizing hydrogen energy to power motors (such as brushless DC motors) and improving the long-term sustainability of hydrogen energy use are concrete examples of energy conservation, carbon reduction, and sustainable development. The conventional method of using a brushless DC motor to drive a load using electrical power is shown in Figure 1. A brushless DC motor 01 is connected to a load 02. The brushless DC motor 01 internally consists of an N-pole permanent magnet 011, a S-pole permanent magnet 012, a coil 013, and a coil 014. The brushless DC motor 01 uses a DC power supply to power the coils 013 and 014, and utilizes a Hall effect sensor to drive the N-pole permanent magnet 011 and the S-pole permanent magnet 012 to rotate, thus driving the load 02. However, this DC power supply is usually provided by rectifying mains electricity. Currently, mains electricity is not entirely generated from renewable energy sources, meaning it cannot provide DC power to the brushless DC motor 01 in a completely carbon-reduced or even carbon-free manner. On the other hand, Taiwan's current electricity supply method using renewable energy is to connect renewable energy to the grid for unified power supply. However, when a power outage occurs, the grid cannot provide DC power to the brushless DC motor 01, meaning the renewable energy cannot provide DC power to the motor. This grid outage causes the motor to be unable to use renewable energy, and more importantly, it indirectly reduces the goals of energy conservation, carbon reduction, and sustainable development. Therefore, innovating brushless DC motors to effectively and sustainably utilize renewable energy, especially hydrogen energy, has become an important research direction for Taiwan's power development and motor manufacturers. In view of the disadvantages of brushless DC motors using mains power (carbon reduction and power outages) derived from the aforementioned prior technologies, the inventors of this project were eager to improve and innovate. After many days of painstaking research, they finally successfully developed a "self-electrolysis sustainable hydrogen energy brushless DC motor" that solves the carbon reduction and power outage problems of existing motors using mains power. The purpose of this invention is to provide a brushless DC motor that can operate on hydrogen energy by self-electrolysis and time-sharing power supply. The concept is to install an electrolysis coil and a hydrogen energy coil inside the brushless DC motor, and to install an electrolysis battery, a hydrogen storage container and a hydrogen fuel cell outside the brushless DC motor. The electrolysis coil, the hydrogen energy coil, the electrolysis battery and the hydrogen fuel cell can operate on hydrogen energy by self-electrolysis and time-sharing power supply to the brushless DC motor, thereby achieving the power consumption characteristic of the brushless DC motor being able to self-electrolyze hydrogen energy and time-sharing power supply, realizing the purpose of energy conservation, carbon reduction and sustainable development. To achieve the aforementioned objectives, the technical means of this invention lies in incorporating an electrolytic coil and a hydrogen energy coil inside a brushless DC motor, and an electrolytic battery, a hydrogen storage container, and a hydrogen fuel cell outside the brushless DC motor, collectively forming a "self-electrolytic perpetual hydrogen energy brushless DC motor," which is a hydrogen energy DC motor. The perpetual hydrogen energy brushless DC motor consists of an electromagnet stator formed by the electrolytic coil and the hydrogen energy coil, and a permanent magnet rotor formed by an N-pole permanent magnet and a S-pole permanent magnet. The electromagnet stator is indirectly electrically connected to the electrolytic battery and the hydrogen fuel cell outside the perpetual hydrogen energy brushless DC motor, while the permanent magnet rotor is mechanically connected to a load outside the perpetual hydrogen energy brushless DC motor via a rotating shaft. The perpetual hydrogen energy brushless DC motor also includes an AC-DC converter, a DC-DC converter, and a gas valve outside the motor. This perpetual hydrogen-powered brushless DC motor initially utilizes external hydrogen, which is supplied to the motor's electromagnet stator equipped with the hydrogen energy coil via a gas valve, a hydrogen storage container, and a hydrogen fuel cell (initial hydrogen power supply). Through the electromagnetic interaction between the hydrogen energy coil and the motor's permanent magnet rotor, which has N-pole and S-pole permanent magnets, the permanent magnet rotor rotates, driving the load via the rotating shaft. Furthermore, the rotation of the permanent magnet rotor generates a high voltage in the electrolysis coil of the motor's electromagnet stator. This high voltage then powers the electrolysis battery, which uses external water to electrolyze and produce hydrogen. This electrolyzed hydrogen is then continuously supplied to the motor's electromagnet stator's hydrogen energy coil via the hydrogen storage container and the hydrogen fuel cell (self-electrolysis power supply). Thus, the electrolysis coil, electrolysis battery, hydrogen storage container, hydrogen fuel cell, and hydrogen energy coil of the motor electromagnet stator together constitute a "self-electrolysis hydrogen energy power supply structure," which allows the hydrogen fuel cell to supply power to the hydrogen energy coil of the motor electromagnet stator in a time-sharing manner for motor operation (hydrogen energy power supply). Furthermore, the electrolysis coil, electrolysis battery, and hydrogen storage container of the motor electromagnet stator can supply hydrogen to the hydrogen fuel cell for continuous motor operation (electrolysis hydrogen supply) without affecting the load operation of the perpetual hydrogen energy brushless DC motor. Thus, by utilizing the "self-electrolysis sustainable hydrogen energy brushless DC motor" constructed in this invention, which consists of an electrolysis coil, a hydrogen energy coil, an electrolysis battery, a hydrogen storage container, and a hydrogen fuel cell, the electrolysis coil, the hydrogen energy coil, the electrolysis battery, and the hydrogen fuel cell can operate the motor using hydrogen energy. By utilizing the novel self-electrolysis hydrogen energy power supply structure of this invention, the power consumption characteristics of the brushless DC motor can be achieved by self-electrolysis hydrogen energy for time-sharing power supply, realizing the goals of energy conservation, carbon reduction, and sustainable development. Please refer to the following detailed description and accompanying drawings of a preferred embodiment of the "Self-Electrolyzed Perpetual Hydrogen Energy Brushless DC Motor" to further understand the technical content, purpose, and effects of this invention: 11: Sustainable hydrogen-powered brushless DC motor 111: N-pole permanent magnet 112: S-pole permanent magnet 113: Rotating shaft 1141: Tri-electrode electrolytic coil 1142: Tri-electrode electrolytic coil 1151: Triple-pole hydrogen energy coil 1152: Triple-pole hydrogen coil 12: Load 13: Electrolytic Battery 14: Hydrogen storage container 15: Hydrogen fuel cells 16: AC / DC converter 17: DC-DC converter 18: Air valve Figure 1 shows the structure of a conventional brushless DC motor power supply. Figure 2 shows a block diagram and connection diagram of the electrolysis coil, hydrogen energy coil, electrolysis battery, hydrogen storage container, and hydrogen fuel cell in a preferred embodiment of the "self-electrolysis perpetual hydrogen energy brushless DC motor" of this invention, when the external hydrogen is initially input. Figure 3 is a schematic diagram and connection diagram of the power flow of the hydrogen coil, hydrogen fuel cell and hydrogen storage container when the input of external hydrogen is stopped in a preferred embodiment of the "self-electrolysis sustainable hydrogen energy brushless DC motor" of this invention. Figure 4 is a schematic diagram and connection diagram of the power flow of the electrolysis coil, electrolysis battery and hydrogen storage container when external water is initially input in a preferred embodiment of the "self-electrolysis sustainable hydrogen energy brushless DC motor" of this invention. Figure 5 is a schematic diagram and connection diagram of the power flow of the electrolysis coil, electrolysis battery, hydrogen storage container, hydrogen energy coil, and hydrogen fuel cell when external water is continuously input in a preferred embodiment of the "self-electrolysis sustainable hydrogen energy brushless DC motor" of this invention. The invention provides a "self-electrolytic perpetual hydrogen energy brushless DC motor", as shown in Figure 2. The self-electrolytic perpetual hydrogen energy brushless DC motor is equipped with a perpetual hydrogen energy brushless DC motor 11. The perpetual hydrogen energy brushless DC motor 11 has a motor permanent magnet rotor composed of an N-pole permanent magnet 111 and an S-pole permanent magnet 112. The motor permanent magnet rotor is mechanically connected to a load 12 outside the perpetual hydrogen energy brushless DC motor 11 via a rotating shaft 113. The perpetual hydrogen energy brushless DC motor 11 also has a motor electromagnet stator composed of a tri-pole electrolysis coil 1141, a tri-pole electrolysis coil 1142, a tri-pole hydrogen energy coil 1151, and a tri-pole hydrogen energy coil 1152. The perpetual hydrogen-powered brushless DC motor 11 is externally equipped with an electrolytic battery 13, a hydrogen storage container 14, and a hydrogen fuel cell 15. Additionally, the perpetual hydrogen-powered brushless DC motor 11 is externally equipped with an AC-DC converter 16, a DC-DC converter 17, and a gas valve 18. The three-pole electrolytic coils 1141 and 1142 of the motor's electromagnet stator are electrically connected to the AC-DC converter 16, which is electrically connected to the electrolytic battery 13. The three-pole hydrogen energy coils 1151 and 1152 of the motor's electromagnet stator are electrically connected to the DC-DC converter 17, which is electrically connected to the hydrogen fuel cell 15. The electrolytic battery 13, the hydrogen storage container 14, and the hydrogen fuel cell 15 are mechanically connected to each other, and the gas valve 18 is mechanically connected to the hydrogen storage container 14. The three-electrode electrolysis coil 1141, three-electrode electrolysis coil 1142, three-electrode hydrogen energy coil 1151, three-electrode hydrogen energy coil 1152 of the motor electromagnet stator, together with the electrolysis battery 13, the hydrogen storage container 14, and the hydrogen fuel cell 15, constitute a "self-electrolysis hydrogen energy power supply structure" to form a brushless DC motor that can self-electrolyze and time-sharingly power the motor with hydrogen energy for operation. Please refer to Figures 2 and 3. The perpetual hydrogen-powered brushless DC motor 11 initially utilizes external hydrogen input via the gas valve 18 to supply hydrogen to the hydrogen storage container 14. The hydrogen storage container 14 then supplies this external hydrogen to the hydrogen fuel cell 15 for initial power generation (an initial DC current). The perpetual hydrogen-powered brushless DC motor 11 converts this initial DC current supplied by the hydrogen fuel cell 15 into another initial DC current using the DC-DC converter 17. The perpetual hydrogen-powered brushless DC motor 11 then supplies this other initial DC current to the three poles of the motor's electromagnet stator in a time-sharing manner. The hydrogen energy coil 1151 and the tripolar hydrogen energy coil 1152, through the electromagnetic interaction between the tripolar hydrogen energy coil 1151 and the N-pole permanent magnet 111 and the S-pole permanent magnet 112, can initially drive the permanent magnet rotor of the motor, which has the N-pole permanent magnet 111 and the S-pole permanent magnet 112, to rotate, thereby driving the load 12 to work using the rotating shaft 113 (motor initial operation). When the perpetual hydrogen energy brushless DC motor 11 is in its initial motor operation, the input of external hydrogen can be stopped. In this way, the perpetual hydrogen energy brushless DC motor 11 can initially use the external hydrogen and the hydrogen fuel cell 15 to convert into another initial DC power supply to the motor electromagnet stator (external initial hydrogen power supply) for the initial motor operation. Please refer to Figures 3 and 4. When the perpetual hydrogen energy brushless DC motor 11 starts operating, the motor permanent magnet rotor with the N-pole permanent magnet 111 and the S-pole permanent magnet 112 rotates, causing the three-pole electrolytic coils 1141 and 1142 of the motor electromagnet stator to generate a high voltage due to magnetoelectric effect. The perpetual hydrogen energy brushless DC motor 11 converts this high voltage into electrolytic DC current through the AC-DC converter 16. At this time, the perpetual hydrogen energy brushless DC motor 11 initially uses external water to supply water to the electrolytic battery 13. The electrolytic battery 13 uses the electrolytic DC current to electrolyze the external water to generate internal hydrogen (self-electrolysis hydrogen supply). The internal hydrogen can continue to supply hydrogen to the hydrogen storage container 14, and the hydrogen storage container 14 then supplies the internal hydrogen to the hydrogen fuel cell 15 for continuous power generation (hydrogen-powered DC current). Please refer to Figure 5. The perpetual hydrogen-powered brushless DC motor 11 converts the hydrogen-powered DC power supplied by the hydrogen fuel cell 15 into another hydrogen-powered DC power using the DC-DC converter 17. The perpetual hydrogen-powered brushless DC motor 11 then supplies the other hydrogen-powered DC power to the three-pole hydrogen coils 1151 and 1152 of the motor electromagnet stator in a time-sharing manner. Through the electromagnetic interaction between the three-pole hydrogen coils 1151 and 1152 and the N-pole permanent magnet 111 and the S-pole permanent magnet 112, the motor permanent magnet rotor with the N-pole permanent magnet 111 and the S-pole permanent magnet 112 can be continuously driven to rotate, so that the load 12 can be continuously driven to work using the rotating shaft 113 (the motor runs continuously). Furthermore, when the perpetual hydrogen energy brushless DC motor 11 is continuously operating, the rotation of the motor permanent magnet rotor, which has the N-pole permanent magnet 111 and the S-pole permanent magnet 112, causes the three-pole electrolytic coils 1141 and 1142 of the motor electromagnet stator to continuously generate high voltage due to magnetoelectric effect. The perpetual hydrogen energy brushless DC motor 11 then continuously converts this high voltage into electrolytic DC current via the AC-DC converter 16; at this time, the perpetual hydrogen energy... The brushless DC motor 11 continuously uses the input external water to supply water to the electrolytic battery 13. The electrolytic battery 13 uses the electrolytic DC power to continuously electrolyze the external water to produce internal hydrogen (self-electrolysis hydrogen supply). The internal hydrogen can continue to supply hydrogen to the hydrogen storage container 14, which in turn supplies the internal hydrogen to the hydrogen fuel cell 15 for continuous power generation (hydrogen-powered DC power). When the perpetual hydrogen-powered brushless DC motor 11 is operating continuously, it can continuously receive external water. In this way, the perpetual hydrogen-powered brushless DC motor 11 can continuously use the external water and the hydrogen fuel cell 15 to convert hydrogen-powered DC power to supply the motor electromagnet stator in a time-sharing manner (internal continuous hydrogen power supply) for continuous motor operation. In the "Self-Electrolysis Perpetual Hydrogen Energy Brushless DC Motor" of this invention, the perpetual hydrogen energy brushless DC motor 11 can continuously supply power (hydrogen-powered) to the motor electromagnet stator with hydrogen energy coil by the hydrogen storage container 14 and the hydrogen fuel cell 15 in a time-sharing manner. The hydrogen energy coil continuously drives the permanent magnet rotor of the motor to rotate to drive the load. The perpetual hydrogen energy brushless DC motor 11 can also use the rotation of the permanent magnet rotor of the motor to continuously supply hydrogen to the hydrogen storage container 14 and the hydrogen fuel cell 15 (electrolysis hydrogen supply) through the electrolysis coil of the motor electromagnet stator, so as to enable the motor to operate continuously without affecting the load operation of the perpetual hydrogen energy brushless DC motor 11. Thus, by utilizing the "self-electrolytic sustainable hydrogen energy brushless DC motor" of this invention, which consists of an electrolysis coil, a hydrogen energy coil, an electrolysis battery, a hydrogen storage container, and a hydrogen fuel cell, the electrolysis coil, the hydrogen energy coil, the electrolysis battery, and the hydrogen fuel cell can operate the motor using hydrogen energy. By utilizing the novel self-electrolytic hydrogen energy power supply structure of this invention, the brushless DC motor can achieve the characteristic of self-electrolytic hydrogen energy power supply in a time-sharing manner, without the problem of grid power outages causing the motor to be unable to use renewable energy, and without the situation where grid power outages reduce the goals of energy conservation, carbon reduction, and sustainable development. The above detailed description is a specific description of feasible embodiments of the present invention. However, the embodiments are not intended to limit the patent scope of the present invention. All equivalent implementations or modifications that do not depart from the spirit of the present invention, such as equivalent embodiments with changes, should be included in the patent scope of this case. 11: Sustainable hydrogen-powered brushless DC motor 111: N-pole permanent magnet 112: S-pole permanent magnet 113: Rotating shaft 1141: Tri-electrode electrolytic coil 1142: Tri-electrode electrolytic coil 1151: Triple-pole hydrogen energy coil 1152: Triple-pole hydrogen coil 12: Load 13: Electrolytic Battery 14: Hydrogen storage container 15: Hydrogen fuel cells 16: AC / DC converter 17: DC-DC converter 18: Air valve

Claims

1. A self-electrolyzing perpetual hydrogen energy brushless DC motor, comprising: A perpetual hydrogen-powered brushless DC motor, which is a load drive device; A permanent magnet with an N pole is located inside the perpetual hydrogen-powered brushless DC motor. A permanent magnet with an S pole is located inside the perpetual hydrogen-powered brushless DC motor. A rotating shaft is located inside the perpetual hydrogen energy brushless DC motor. A load is located outside the perpetual hydrogen-powered brushless DC motor; The N-pole permanent magnet and the S-pole permanent magnet constitute a motor permanent magnet rotor, which is mechanically connected to the load via the rotating shaft; A three-pole electrolytic coil is located inside the perpetual hydrogen energy brushless DC motor; A three-pole hydrogen energy coil is located inside the perpetual hydrogen energy brushless DC motor. The three-pole electrolytic coil and the three-pole hydrogen energy coil constitute a motor electromagnet stator; An electrolytic battery is located outside the perpetual hydrogen-powered brushless DC motor; A hydrogen storage container is located outside the perpetual hydrogen energy brushless DC motor; A hydrogen fuel cell is located outside the perpetual hydrogen energy brushless DC motor; An AC / DC converter is located outside the perpetual hydrogen-powered brushless DC motor; A DC-DC converter is located outside the perpetual hydrogen-powered brushless DC motor; A gas valve is located outside the perpetual hydrogen-powered brushless DC motor. The three-electrode electrolysis coil is electrically connected to the AC-DC converter, and the AC-DC converter is electrically connected to the electrolysis battery; the three-electrode hydrogen energy coil is electrically connected to the DC-DC converter, and the DC-DC converter is electrically connected to the hydrogen fuel cell; the electrolysis battery, the hydrogen storage container, and the hydrogen fuel cell are mechanically connected to each other, and the gas valve is mechanically connected to the hydrogen storage container; The three-electrode electrolysis coil of the motor electromagnet stator, the electrolysis battery, the hydrogen storage container, the hydrogen fuel cell, and the three-electrode hydrogen energy coil of the motor electromagnet stator together constitute a self-electrolysis hydrogen energy power supply structure to form a self-electrolysis perpetual hydrogen energy brushless DC motor that can self-electrolyze and provide time-sharing power for motor hydrogen energy operation. As described in claim 1, the self-electrolyzed perpetual hydrogen energy brushless DC motor initially utilizes an external hydrogen input via a gas valve to supply hydrogen to the hydrogen storage container. The hydrogen storage container then supplies this external hydrogen to the hydrogen fuel cell for initial power generation, which is an initial DC power. The perpetual hydrogen energy brushless DC motor converts this initial DC power supplied by the hydrogen fuel cell into another initial DC power using a DC-DC converter. This other initial DC power is then supplied to the three-pole hydrogen energy coil of the motor's electromagnet stator in a time-sharing manner. Through the electromagnetic interaction between the three-pole hydrogen energy coil and the N-pole and S-pole permanent magnets, the motor's permanent magnet rotor, equipped with the N-pole and S-pole permanent magnets, can initially rotate, thereby driving the load through the rotating shaft for initial motor operation. When the perpetual hydrogen energy... When the brushless DC motor starts operating, the input of external hydrogen can be stopped. Furthermore, during initial operation, the motor's permanent magnet rotor, equipped with N-pole and S-pole permanent magnets, rotates, causing the three-pole electrolytic coil of the motor's electromagnet stator to generate a high voltage due to magnetoelectric effect. This high voltage is then converted into electrolytic DC power by the AC / DC converter. Initially, the motor uses external water to supply the electrolytic battery. The battery uses this electrolytic DC power to electrolyze the water, producing internal hydrogen. This internal hydrogen is then supplied to the hydrogen storage container, which in turn supplies it to the hydrogen fuel cell for continuous power generation. The generated electricity is hydrogen-powered DC power. As described in claim 2, the self-electrolytic perpetual hydrogen energy brushless DC motor converts the hydrogen-powered DC power supplied by the hydrogen fuel cell into another type of hydrogen-powered DC power using a DC-DC converter. This second type of hydrogen-powered DC power is then supplied to the three-pole hydrogen coil of the motor's electromagnet stator in a time-sharing manner. Through the electromagnetic interaction between the three-pole hydrogen coil and the N-pole and S-pole permanent magnets, the motor's permanent magnet rotor, equipped with the N-pole and S-pole permanent magnets, continuously rotates, thereby continuously driving the load and ensuring continuous motor operation. Furthermore, when the perpetual hydrogen energy brushless DC motor is operating continuously, the rotation of the permanent magnet rotor, equipped with the N-pole and S-pole permanent magnets, causes the three-pole electrolytic coil of the motor's electromagnet stator to rotate due to magnetic flux. The high voltage is continuously generated by electrical action. The perpetual hydrogen-powered brushless DC motor then continuously converts this high voltage into electrolytic DC power via the AC-DC converter. At this time, the perpetual hydrogen-powered brushless DC motor continuously uses the input external water to supply water to the electrolytic battery. The electrolytic battery uses the electrolytic DC power to continuously electrolyze the external water to produce internal hydrogen. The internal hydrogen can continue to supply hydrogen to the hydrogen storage container. The hydrogen storage container then supplies the internal hydrogen to the hydrogen fuel cell for continuous power generation. The generated power is hydrogen-powered DC power. When the perpetual hydrogen-powered brushless DC motor is running continuously, the external water can be continuously input. In this way, the perpetual hydrogen-powered brushless DC motor can continuously use the external water and the hydrogen fuel cell to convert into hydrogen-powered DC power to supply the motor electromagnet stator in a time-sharing manner, so as to run the motor continuously by means of self-electrolytic hydrogen supply and internal continuous hydrogen power supply.

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