Generator adopting gyro inertia force auxiliary power generation technology
By designing a gyro with gears and a generator that produces a motor, using the lever principle and a dual-drive motor driving system, the energy conversion of the gyro inertia force and the motor production is optimized, the problem of low efficiency of the existing generator is solved, and efficient Energy conversion and output power increase.
Patent Information
- Application Number
- CN202411434888.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-15
- Publication Date
- 2025-02-07
AI Technical Summary
The existing generators are inefficient and it is difficult to effectively use gyro inertia forces to assist in power generation, resulting in low energy conversion efficiency.
A generator using a gyro with gears and a motor-generating motor is designed. Through the lever principle and the dual-drive motor driving system, the energy conversion of the gyro inertia force and the motor-generating energy is optimized.
By optimizing the equipment proportion and force arm design, efficient energy conversion of gyro inertia force assisted power generation is achieved, and the output power and efficiency of the generator are improved.
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Figure CN119401780A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the field of energy and power engineering, and in particular to a generator using gyroscopic inertial force assisted power generation technology. Background Art
[0002] Normally, after an object transfers energy to other objects in nature, the other objects will generate an equal amount of power that is conserved. Intuitively speaking, it is like when an airplane takes off. It is impossible for the airplane engine to lift such a heavy airplane into the sky. The engine pulls the airplane to move at high speed, and transfers energy to the wings in nature that have special functions and can generate lift, completing the normal energy conservation conversion. However, the movement of the wings also generates lift, which is much greater than the engine power. At this time, the lift can lift the airplane off the ground. The greater the lift of the wings, the greater the take-off weight of the airplane. This is how humans adapt to the secondary energy conservation of nature. Driven by this kind of thinking, the applicant made a special application of the inertial force generated by the free rotation of the gyroscope as an auxiliary power, and designed a "gyro inertial force auxiliary power generation technology generator" to achieve the expected purpose of external power supply.
[0003] With the continuous reduction of oil and natural gas, and the need for China's high-quality development of productivity, this machine is designed to be used in transportation vehicles such as automobiles to replace internal combustion engines, and can also be used for civilian power supply. Summary of the invention
[0004] This generator has been tested and verified. The generator and drive motor used in the test process are all products of the technology in the 1980s and 1990s, with very poor performance. In addition, some of the test equipment are handmade, with low precision and stability, so the effect is not ideal. If modern equipment is used for testing, the effect may be better and the efficiency will be higher. It is expected that 50% of the power can be output for external work.
[0005] The technical solution adopted by the present invention to solve the technical problem is as follows:
[0006] Use motor a to drive motor b; use gyroscope h with gears, and the second one drives motor e; according to the lever principle, motor a uses large-diameter gear c as the lever gear, and drives motor b using small-diameter gear d; gyroscope h with gears uses large-diameter gear c1, and the second one drives motor e using small-diameter gear d1; the diameter of c is g times the diameter of d; if d rotates g circles, c rotates one circle; the diameter of c1 is g1 times the diameter of d1; if d rotates g1 circles, c1 rotates one circle; b and e are high-speed motors;
[0007] The gyro inertia force is used to assist the power generation technology to generate electricity; the machine structure is simple, the key lies in the special gyro and the special application of the gyro inertia force and the matching ratio of other equipment;
[0008] Configuration ratio: the specifications of the motor b that drives the generator a and the motor e that drives the gyroscope h have strict ratio requirements, and the weight of the gyroscope itself and the power of the generator a also have strict ratio requirements;
[0009] The power is transferred to the electrical appliances, that is, the voltage reduction power supply is manually operated, and the generator output voltage fluctuation control and the two forces are successfully separated and overlapped;
[0010] The battery is used to convert 220V AC power into electricity to start the motor, and after the conversion, the motor is driven by self-generated electricity. It can also be started by a low-voltage DC motor or a small internal combustion engine, and after the conversion, the motor is driven by self-generated electricity.
[0011] To lock the generated power, install a timer switch that automatically switches on and off every 15 minutes on the line that drives the motor, and use a dual-line power supply switching switch to control the operation of the supercharger; because the power of the generator and the motor will decay after running steadily for a long time, so it is necessary to activate the machine and keep the motor at an accelerated speed for a certain period of time. The voltage of the generator will also change cyclically to achieve the purpose of not decaying. BRIEF DESCRIPTION OF THE DRAWINGS
[0012] The features and technical effects of the present invention will be described below with reference to the accompanying drawings;
[0013] Figure 1 This is the horizontal installation diagram of the motor and gyroscope;
[0014] Figure 2 It is the plane diagram of the gyro and the force arm;
[0015] Figure 3 It is a side view of the motor extension shaft, driving motor, gyroscope, gyroscope center shaft, bracket, gear structure and force transmission structure of the force arm;
[0016] Figure 4 This is a top view of the structure of the production motor, drive motor, gear and extended shaft;
[0017] Figure 5 This is a step-down power supply circuit diagram. DETAILED DESCRIPTION
[0018] like Figures 1 to 4 As shown, the features and technical effects of the present invention are described in detail;
[0019] Use gear levers and high speed to drive the electric motor;
[0020] Use motor a to drive motor b; use gyro h with gears, and the second one drives motor e; according to the lever principle, motor a uses large-diameter gear c for lever gear, and drives motor b using small-diameter gear d; gyro h with gears uses large-diameter gear c1, and the second one drives motor e using small-diameter gear d1; the diameter of c is g times the diameter of d; if d rotates g circles, c rotates one circle; the diameter of c1 is g1 times the diameter of d1; if d rotates g1 circles, c1 rotates one circle; b and e are high-speed motors; g = c diameter / d diameter, g1 = c1 diameter / d1 diameter;
[0021] The gyro inertia force is used to assist the power generation technology to generate electricity; the machine structure is simple, the key lies in the special gyro and the special application of the gyro inertia force and the matching ratio of other equipment;
[0022] A large diameter gear c is installed near the extended shaft x of the motor a; the gyroscope h with gear uses a large diameter gear c1, and the gyroscope is installed on the outer top of the extended shaft of the motor a. The motor a and the gyroscope h are installed on the same plane bracket with different rotating shafts; the extended shaft is extended to the front of the gyroscope axis, and a bearing p is installed at the end of the extended shaft, and a vertical force arm y is installed at the end of the extended shaft, and a force hook f is provided at the end of the vertical force arm y; the diameter of the second gear d1 that drives the motor e is smaller than the diameter of the gear d that drives the motor b; the diameter of the gear c1 of the gyroscope h is larger than the diameter of the gear c of the motor a;
[0023] Gyro structure and installation: The central axis v of the gyro h gear passes through the center of the gear. The upper side of the gear is a plane, and the lower side of the gear is a gyro surface. The motor end of the central axis v is a certain distance away from the upper plane of the gear c1. The vertical force arms i, q, and r are installed in a connected manner, and the 360-degree space circumference is divided into three equal parts. i is the main force arm, q is the secondary force arm, and r is the spare force arm. The structures of i, q, and r are consistent, and the force arm distribution is optional. The three force arms are balanced, and the gyro can be kept stable during operation; c1, i, q, r, and v are integrated together and collectively called gyro h. The weight of the gyro includes c1, i, q, r, and v. The other end of the central axis v is made into a round head o; the round head o of the central axis is pushed onto a bracket s, and the force is all on the bracket during rotation. The gyro must rotate clockwise. Only when it rotates clockwise will the force be concentrated on the bracket, and it cannot rotate counterclockwise;
[0024] The generator is driven by a double-drive motor. Motor b drives motor a and is installed on the side or above motor a. Motor e drives gyroscope h and is installed on or on the side of gyroscope h. The gyroscope is made of all steel and is very heavy. When it rotates, the inertia force is very large. The power and speed of motor b are greater than those of motor e.
[0025] The principle of the process of the gyro's inertial force acting on the generator is that the gyro strikes the vertical force arm force hook f through the vertical force arm i, and at the same time transmits the power of the motor e and the inertial force of the gyro to the vertical force arm force hook f;
[0026] The main function of the gyro's vertical force arms i, q, and r, which divide the 360-degree space circumference into three equal parts, is that during the generator's startup phase, i impacts f, f's speed becomes faster, f impacts q, the gyro's speed becomes faster, and generator a's speed becomes faster at the same time. In this way, the generator reaches the best startup and power generation state with extremely high voltage and frequency. Generator a's speed is very fast, which is the direct cause of high voltage and high frequency. If the gyro has only one force arm, there will be no cyclic impact, and generator a's speed will not be in place during the generator's startup phase, and the voltage will only be about 250 volts.
[0027] In the best power generation state of the generator, the generator a and the motor b have the same speed D, and the gyroscope h and the motor e have the same speed E. D is in front and E follows behind. The two do not restrict each other at the moment, and each goes its own way without generating any reaction force.
[0028] The only reason why generator A can generate electricity is because of the power. Energy conservation is the basis, and power is the key. Only with power can there be inertia. Only with inertia can the motor run at high speed and generate power. To maintain a strong inertia, the output power of generator A can be gradually increased within the range allowed by power, and the speed of generator A can be gradually reduced to complete the power generation task.
[0029] Energy conversion; of course, the effects vary in size and are interdependent. For example, when an airplane takes off, the airplane engine cannot lift such a heavy airplane into the sky. Instead, the engine pulls the airplane to move at high speed, converting energy to the wings in nature that have special functions to generate lift, completing the usual energy conservation conversion. However, the movement of the wings also generates lift, which is much greater than the engine power. At this time, the lift can lift the airplane off the ground. The greater the lift of the wings, the greater the weight of the airplane at takeoff. This is the result of human adaptation to the energy conversion of nature.
[0030] Motor b drives generator a to work; motor e drives the gyroscope to rotate, and the gyroscope rotates freely, because motor e transfers all the energy to the gyroscope in an instant, which is a manifestation of the normal law of conservation of energy; the heavy gyroscope is placed on bearings m and n to rotate, and the friction resistance is very small, and only a small force is needed to rotate it. The power of motor e is very small, but when motor e drives the gyroscope to rotate at high speed, the gyroscope generates a large inertial force, and the gyroscope is continuously acted on by the power of motor e, so this inertial force is much greater than the power of motor e. This inertial force is a natural phenomenon in nature, and the inertial force generated by the high-speed rotation of the gyroscope is much greater than the inertial force generated by other heavy objects of the same weight when rotating, which is also a natural phenomenon in nature. Human beings create conditions to utilize these natural phenomena in nature. This machine uses the inertial force generated by the high-speed operation of the gyroscope to act on generator a to assist in power generation. This is the gyroscope inertial force-assisted power generation technology;
[0031] The application of gyroscopic inertial force assisted power generation technology requires corresponding technical conditions:
[0032] First, the motor b drives the motor a to rotate at a speed D, and the motor e drives the gyroscope to rotate at a speed E. The speed D is much greater than the speed E.
[0033] Secondly, during the power generation process, after the generator rotor passes the highest power generation force point, the force used by motor b to drive the generator a and the force used by motor e to drive the gyroscope must have a separation space, that is, the vertical force arm i and the vertical force arm force hook f must have a separation space; the adjustment of these two forces to achieve separation is completed by adjusting the speed and adjusting the weight of the gyroscope;
[0034] Third, during the power generation process, the vertical force arm i and the vertical force arm hook f must have a moment of overlap after they separate. At the moment when the generator rotor passes the highest power generation force point, that is, the moment of overlap, three forces act at the same time: (1) the power of motor b, (2) the power of motor e, and (3) the inertial force of the gyro. Forces (1) and (2) are the main forces, and force (3) is the auxiliary force. Forces (2) and (3) are the combined impact forces. After the generator rotor passes the highest power generation force point, there is a certain distance where there is no force or less force. In addition, there is a difference in the speed of the two driving motors and the diameter of the gears. The vertical force arm hook f with a faster speed always walks in front of the vertical force arm i with a slower speed, maintaining the distance, forming a separation of the two forces. At this time, motor b drives generator a to accelerate, and motor e only drives the gyro to accelerate. The speed of the gyro increases, and the gyro energy and impulse are restored, and a second repeated cycle of impact is performed. How much energy can be restored and how much impulse the gyro has is the main factor that determines how much electricity can be generated.
[0035] According to simple and intuitive experimental data calculation, for example: g = c diameter / d diameter = 26 cm / 3.5 cm = 7.4 times, the driving motor power is 140 watts, which should be able to drive the generator to generate electricity: 140 watts × 7.4 = 1036 watts, but the actual output is about 80 watts. After adding a certain amount of gravity inertia on the same axis, the output is 60 watts; after adding gyroscopic inertia, g1 = c1 diameter / d1 diameter = 28 cm / 2.8 cm = 10 times; g + g1 = 7.4 + 10 = 17.4 times, an average of 17.4 ÷ 2 = 8.7 times, the total power of the two driving motors is 240 watts, which can be intuitively and simply understood to drive the generator to generate electricity: 240 × 8.7 = 2088 watts, but the actual experiment can only generate 400 watts of electricity; the difference: 2088-400 = 1688 watts, can be intuitively and simply understood as the natural loss of the motor;
[0036] Before adding the gyro inertial force, according to the comparison between the theoretical power multiple ratio and the lever multiple ratio, the double-drive motor driving the generator can drive the generator to generate a lot of electricity normally. However, due to the natural loss of motor energy, the amount of electricity generated by the generator does not exceed the power of the drive motor. If a rotating weight is added coaxially with the generator, the burden on the drive motor will increase, and the generator will generate less electricity. In this actual situation, a continuous external force must be used to supplement it in order to overcome these natural losses. After using the gyro inertial force to assist in power generation technology, the inertial force generated by the free rotation of the gyroscope is added to assist. This inertial force can supplement the part of the natural loss of its own motor energy, and also generate excess power that can do work to the outside, forming a circular perpetual rotation. The output power of the generator a is also increased. After removing the power consumed by the drive motor itself, the power output that can do work to the outside is about 40%-50%, that is, the efficiency is equal to 400 watts-240 watts=160 watts, which is 160 / 400, or 40%-50%.
[0037] Configuration ratio;
[0038] There are strict ratio requirements for the specifications of the motor b that drives the generator a and the motor e that drives the gyroscope h, and there are also strict ratio requirements for the weight of the gyroscope itself and the power of the generator a;
[0039] The technical effect is described in detail with the data of successful power generation in actual experiments. Power generation cannot be achieved without such proportional data. For example, the power ratio of the motor B that drives the generator and the motor E that drives the gyroscope is 140 watts: about 100 watts, the speed ratio is 14,000 rpm: 10,000 rpm, the gear diameter ratio is 3.5 cm for the motor B gear: 26 cm for the generator A gear, 2.8 cm for the motor E gear: 28 cm for the gyroscope H gear, and the ratio of the generator power to the weight of the gyroscope itself is 400 watts: 40-45 catties.
[0040] According to the above data, the speed of the motor is much faster than that of the gyroscope. If the ratio is not right, the motor will be burned. Because of the wrong ratio, one motor will be subjected to a large force when passing through the highest point of force, and the motor will overheat and burn. The two motors must be subjected to maximum force at the same time at the highest point of force to operate normally; the two force points of the vertical force arm force hook f and the vertical force arm i must be able to separate, that is, separate instantly when there is no force, and overlap, that is, overlap instantly when there is force; if the motor speed is too fast or too slow, the two force points cannot be separated and overlapped; the inertia force generated by the gyroscope is limited, not infinite, and is limited by its own weight and speed. If the weight is too heavy, it will accelerate instantly If it cannot, the vertical force arm i cannot catch up with the vertical force arm force hook f, the vertical force arm force hook f and the two force points of the vertical force arm i are separated for too long, the gyro that cannot accelerate instantly cannot impact the force hook f, the vertical force arm force hook f and the motor b are overloaded and pass through the highest force point, and the motor b is quickly burned; the weight is too light and the instantaneous acceleration is too fast, the vertical force arm force hook f and the two force points of the vertical force arm i cannot be separated, the gyro penetration force becomes thrust, the gyro has no impact force, causing the motor a to be heavily stressed, and the gyro penetration force becomes smaller. At this time, the force on the motor e is aggravated, and the motor e is burned; the power ratio of the driven motors must be appropriate, and if the ratio is not appropriate, there will be similar burning situations as mentioned above;
[0041] The configuration ratio is matched as above. If the motor speed is still fast, the large gear can be larger and the small gear can be smaller. In this way, a smaller power motor can be used to drive it, which will have a better effect. Gears with more teeth and smaller teeth are the best choice, and there will be no gear jamming.
[0042] To increase or decrease the generator power, the equipment is configured according to this numerical ratio.
[0043] like Figure 1 , Figure 3 , Figure 5 As shown, the invention describes the transfer of electricity to electrical appliances, that is, manual operation of step-down power supply, and the control of generator output voltage fluctuation and the design of successful separation and coincidence of the two forces;
[0044] Use the physical method of series and parallel connection to reduce the high voltage and convert it to electrical appliances. The number of watts that can be supplied to the electrical appliances for normal operation is the total output of the generator; after reducing the voltage to 220 volts, timely switch to the voltage stabilizer and frequency stabilizer, and the power supply voltage will be normal; the combined impact of the power of the motor e and the inertial force of the gyroscope is the direct cause of the unstable voltage and the swing of the voltmeter pointer. When the two force points of the vertical force arm force hook f and the vertical force arm i are separated, the generator a will circulate again and gradually turn to the highest force point. f needs thrust again and the speed slows down. i speeds up when it is not under force or is less under force. i catches up with f. At this time, f is suddenly impacted by i and there is a knocking sound. The speed of the generator a will increase instantly, and the voltage will increase instantly. It is inevitable that the voltage will recover instantly after separation.
[0045] The technical operation of this generator starting and power supply example is described as follows:
[0046] k stands for switch, L stands for electrical appliances, i.e. light bulbs, L1 to L19 are 2 watts, L20 to L26 are 5 watts, L27 and above are 15 watts or 25 watts; the wattage of the same group must be the same; line 0 is a unified shared line; all control switches must be connected to the live wire, except for the two-light switch;
[0047] The first group is k1, k2; the second group is k11, k12; the third group and beyond are k..., k...;
[0048] Before starting the machine, all switches k are turned off. Kk is the main power supply control switch. When starting the machine, turn on Kk first. After starting the machine, wait for the machine speed to reach the highest value, and then turn on the first group k1 to power on. After a while, turn on k3, and turn on k4 to k10 in sequence. Turn on all the lights from L1 to L19. Then turn off k1 at the same time, turn on k2, and transfer the power to the light of k2. At this time, the motor power is not affected. Then adjust k3 to k10 to the off state, turn on k11 to power on, and turn on k3 to k10 in sequence. All lights from 1 to L19 are on; then turn off k11 at the same time, turn on k12, and transfer the power to the light of k12; and so on...; k0 is used only when it is necessary to use the zero, and k0 is in the off state before the zero is used; the voltage stabilizer and frequency stabilizer are connected at the right time. Before the power is connected, the control switch is always open. When the power is connected, the control switch is turned off at the same time, and the live line switch is turned on, and the two devices are operated separately; the supercharger automatically runs after the power lock switch is turned on. It is in a non-working state before the power lock switch is turned on, and the supercharger 0 line is connected for a long time;
[0049] The last conversion switch M: in the open state when starting, operate this switch to start; the last conversion switch N: in the open state when starting; the last conversion switch H: in the closed state during the starting process; the battery live line starting switch G, the battery zero line starting switch F: in the open state when starting, and in the closed state after the conversion operation;
[0050] The final transfer switch M, final transfer switch N, final transfer switch H, battery live line start switch G, battery zero line start switch F must be installed together in sequence; after the battery inverter 220V AC power is started, when the self-generated power is used for conversion, M must be turned off, N must be turned off, and H must be turned on at the same time. After normal operation, G must be turned off and F must be turned off;
[0051] When the machine is turned on, the power lock switch A is in the on state and the power lock switch B is in the off state. After the machine is powered on normally, the power lock switch A is turned off and the power lock switch B is turned on at the same time;
[0052] When starting, if the voltage exceeds 440 volts, turn on the three light switches; if the voltage is below 440 volts, turn on two light switches and turn off the three light switches; whether the second group (time) needs to turn on the three light switches depends on the voltage; each time 15 watts or 20 watts is converted and transmitted to the electrical appliances, the operation continues until the voltage and frequency meet the national standards;
[0053] The power is different, the circuit structure is different, but the principle is the same.
[0054] like Figure 5 As shown, the battery is used to convert 220V AC power to start the motor, and after conversion, the motor is driven by self-generated power. It can also be started by a low-voltage DC motor or a small internal combustion engine, and after conversion, the motor is driven by self-generated power.
[0055] In this example, the inverter is first used to convert the battery into 220 volts AC to start the driven motor. After the startup is completed, the voltage is adjusted to 220 volts. After the machine is running normally, it is converted to self-generated power to drive the motor.
[0056] like Figure 5 As shown, lock the power generation, install a timer switch that automatically switches every 15 minutes on the motor driving line, and use a dual-line power switch to control the operation of the supercharger; because after the generator and the motor run smoothly for a long time, the power will decay, so it is necessary to activate the machine and keep the motor at a faster speed for a certain period of time, and the voltage of the generator will also change cyclically to achieve the purpose of not decaying;
[0057] When the best power generation state is achieved, turn on the power lock system function switch, automatically switch to the supercharger every 15 minutes, adjust the motor voltage to 230-240 volts, speed up the motor for 15 minutes, and then automatically shut down the supercharger for 15 minutes. This cycle ensures stable output power without freezing. The supercharger is controlled by a dual-line power switch, and the voltage is only boosted between the supercharger and the motor, and the entire line voltage is not affected. Connect a 15-minute timer switch above the common power supply of the switch, and connect the supercharger below the boost power supply of the switch for control. Because there is a slight delay in the power supply action when the power supply is automatically switched, the motor speed is instantly accelerated after the automatic switching and boosting, which does not affect the motor speed and provides normal power supply.
Claims
1. A generator using gyroscopic inertial force assisted power generation technology, characterized in that: include: The motor (a), large diameter gear (c), large diameter gear (c1), extended shaft (X), vertical force arm (Y) at the end of the extended shaft, the end bearing (p) of the extended shaft, force hook (f) at the end of the vertical force arm (Y), gyroscope with gear (h), bearing (m), bearing (n), bracket (S), are installed on the same plane bracket, and the motor (a) and gyroscope (h) have different rotating axes; if the motor (a) and the gyroscope with gear (h) are installed vertically, it is the same principle; The gyro structure and installation include: the central axis (v) of the gyro (h) gear passes through the center of the gear, the upper side of the gear is a plane, the lower side of the gear is a gyro surface, the motor end of the central axis (v) is a certain distance away from the upper plane of the gear (c1), and vertical force arms (i), (q), and (r) are respectively installed in a connected manner, dividing the 360-degree space circumference into three equal parts, (i) is the main force arm, (q) is the auxiliary force arm, and (r) is the spare force arm. (i), (q), and (r) have the same structure, and the force arm distribution is optional. The three force arms are balanced, and the gyro can be kept rotating smoothly during operation; (c1), (i), (q), (r), (v) are integrated together and are collectively called a gyroscope (h). The weight of the gyroscope includes (c1), (i), (q), (r), (v). It is made of steel and is very heavy. When it rotates, the inertia force is very large. The other end of the central axis (v) is made into a round head (o); The round head (o) of the central axis is pressed against a bracket (S). When rotating, all the forces are on the bracket. The gyroscope must rotate clockwise. Only when it rotates clockwise, the forces are concentrated on the bracket. It cannot rotate counterclockwise. The diameter of the gear (c1) of the gyroscope (h) is larger than the diameter of the gear (c) of the motor (a). The generator is driven by a double-drive motor, wherein the motor (b) drives the generator (a), and the motor (e) drives the gyroscope (h); the motor (b) is driven by a small-diameter gear (d) installed on the side or top of the generator (a); the motor (e) is driven by a small-diameter gear (d1) installed on the top or side of the gyroscope (h).
2. The gyroscopic inertia force assisted power generation technology generator according to claim 1, characterized in that: Gear lever drives the electric motor at high speed: Use the motor (a) to drive the motor (b); use the gyroscope with gears (h), and the second one drives the motor (e); according to the lever principle, the lever gear of the motor (a) uses a large diameter gear (c), and drives the motor (b) using a small diameter gear (d); the gyroscope with gears (h) uses a large diameter gear (c1), and the second one drives the motor (e) using a small diameter gear (d1); the diameter of (c) is g times the diameter of (d); if (d) rotates g circles, (c) will rotate one circle; the diameter of (c1) is g1 times the diameter of (d1); if (d1) rotates g1 circles, (c1) will rotate one circle; (b) and (e) are high-speed motors.
3. The gyroscopic inertial force assisted power generation technology generator according to claim 1, characterized in that: The power and speed of the motor (b) are greater than those of the motor (e); the generator (a) and the gyro have different rotating shafts; the principle of the gyro's inertial force acting on the generator is that the gyro strikes the vertical force arm force hook (f) through the vertical force arm (i), and at the same time transmits the power of the motor (e) and the inertial force of the gyro to the vertical force arm force hook (f); during the starting stage of the generator, (i) impacts (f), and the speed of (f) is faster, and (f) impacts (q), and the speed of the gyro is faster, so that the generator reaches the best starting and power generation state through mutual impact in this cycle; at this time, the generator (a) and the motor (b) have the same speed D, and the gyro and the motor (e) have the same speed E, D is in front and E follows behind, and the two do not restrict each other at the moment, each goes its own way, and no reaction force is generated; The only way a motor (a) can generate electricity is by relying on the force of power. Only with inertia can the motor run at high speed and generate power.
4. The gyroscopic inertial force assisted power generation technology generator according to claim 1, characterized in that: The motor (b) drives the generator (a) to work, and the motor (e) drives the gyroscope to rotate. The gyroscope rotates freely, and at the same time, the impact force is the motor (e) that transfers all the energy to the gyroscope in an instant. This is a manifestation of the normal law of conservation of energy. The heavy gyroscope is placed on bearings (m) and bearings (n) to rotate, and the friction resistance is very small. Only a small force is needed to rotate it. The power of the motor (e) is very small, but when the motor (e) drives the gyroscope to rotate at high speed, the gyroscope generates a large inertial force. In addition, the gyroscope is continuously acted on by the power of the motor (e). This inertial force is a natural phenomenon in nature, and the inertial force generated when the gyroscope rotates at high speed is much greater than the inertial force generated when other heavy objects of the same amount rotate. It is also a natural phenomenon in nature. Human beings create conditions to utilize these natural phenomena in nature. This machine uses the inertial force generated by the high-speed operation of the gyroscope to act on the generator (a) to assist in power generation. This is the gyroscope inertial force assisted power generation technology.
5. The gyroscopic inertial force assisted power generation technology generator according to claim 1, characterized in that: Configuration ratios include: strict ratio requirements for the configuration of the motor (b) that drives the generator (a) and the motor (e) that drives the gyroscope (h), as well as strict ratio requirements for the weight of the gyroscope itself and the power configuration of the generator (a); the power ratio of the motor (b) that drives the generator and the motor (e) that drives the gyroscope is 140 watts: about 100 watts, the speed ratio is 14,000 revolutions per minute: 10,000 revolutions per minute, the gear diameter ratio is 3.5 cm for the motor (b) gear diameter: 26 cm for the generator (a) gear diameter, 2.8 cm for the motor (e) gear diameter: 28 cm for the gyroscope (h) gear diameter, and the ratio of the generator power to the weight of the gyroscope itself is 400 watts: 40-45 jin; to expand or reduce the generator power, the equipment is configured according to this numerical ratio.
6. The gyroscopic inertia force assisted power generation technology generator according to claim 1, characterized in that: include: The electricity is transferred to the electrical appliances, that is, the voltage reduction power supply is manually operated, and the generator output voltage fluctuation is controlled and the two forces are successfully separated and overlapped.
7. The gyroscopic inertial force assisted power generation technology generator according to claim 1, characterized in that: The battery is used to convert 220V AC power into electricity to start the motor, and after the conversion, the motor is driven by self-generated electricity. It can also be started by a low-voltage DC motor or a small internal combustion engine, and after the conversion, the motor is driven by self-generated electricity. First, use an inverter to convert the battery into 220 volts AC to start the driven motor. After the startup is completed, the voltage is adjusted to 220 volts. After the machine is running normally, switch to using self-generated electricity to drive the motor.
8. The gyroscopic inertial force assisted power generation technology generator according to claim 1, characterized in that: To lock the generated power, install a timer switch that automatically switches on and off every 15 minutes on the line that drives the motor, and use a dual-line power supply switching switch to control the operation of the supercharger; because the power of the generator and the motor will decay after running steadily for a long time, so it is necessary to activate the machine and keep the motor at an accelerated speed for a certain period of time. The voltage of the generator will also change cyclically to achieve the purpose of not decaying.