JP5554865B1 - Energy generator that produces mechanical power energy and electrical energy using ion binding energy - Google Patents

Abstract

A technology for producing energy is provided.
[MEANS FOR SOLVING PROBLEMS] Not only using a weakly alkaline aqueous solution or a weakly acidic aqueous solution that is relatively harmless to humans, naturally in any country, but also mechanical power without discharging these aqueous solutions Energy and electric energy can be produced, energy can be procured by not only the industry but also general households, and the power of the electric vehicle can be charged, and surplus electricity can be stored in the capacitor. Particularly in the industrial production world, there is an advantage that a huge amount of mechanical power energy and electric energy can be provided by oneself. This also reduces production costs. It is safest and most safe for humans to use harmless substances that are normally found in nature.
[Selection] Figure 3

Description

A machine that produces mechanical power energy and electrical energy in a manner that is harmless to the environment.

There are methods for producing mechanical power energy and electric energy that are harmless to the environment, but more than that, more types of materials and methods for producing mechanical power energy and electric energy in many ways.

Mechanical power energy and electric energy can be produced more efficiently than in the prior art by the methods shown in FIGS. 1, 2, 4, and 5.

1 Japanese Patent No. 4444151 2 Japanese Patent No. 4604274 3 Japanese Patent No. 5110335 4 Japanese Patent No. 5196284

  From the standpoint of harmless to the environment, the present invention uses various ion-binding compounds and uses various mechanical devices to produce mechanical power energy and electrical energy, and then does not discharge any substances and is harmful to the environment. A machine that can produce a large amount of energy without giving any energy.

Means to solve the problem

  Ion binding energy of an aqueous ionic bond compound solution in a device capable of converting thermal energy, pressure energy into mechanical power energy, electrical energy, or mechanical power energy into electrical energy and electrical energy into mechanical power energy. -Is converted into thermal energy gas molecules, thermal pressure energy gas molecules, thermal energy gas molecules, thermal pressure energy gas mechanical molecules energy, electric energy is produced from thermal energy gas molecules, Pressure energy-gas molecules are discharged outside the device, and thermal energy-gas molecules, heat pressure energy-gas molecules are used as mere power, or are not discharged outside the device and work through the entire device process and then ion bond Return it to the compound aqueous solution tank and use it again as fuel for power. Enegi - electrical energy - or producing, either, mechanical power energy, characterized in that with equipped with a power storage function - electrical energy - mechanical apparatus having productivity and power storage function.

  The produced gaseous mixture of gaseous hydrogen and gaseous oxygen is explosive, and this mixed gas is exploded in a combustion explosion chamber to generate a high-temperature and high-pressure product gas stream. Rotate the rotating body that can rotate around the rotation center axis at the fixed position with the high-temperature and high-pressure gas flow, and rotate the rotation center axis by rotating the rotation body, or rotate the rotation center axis at the fixed position. An annular tube fixed at a fixed position outside the outer periphery of the rotating body that can rotate at the center is provided, and the pressure receiving device that is a part of the rotating body is pressurized with a high-temperature and high-pressure gas flow without gas leakage in the annular tube. Rotating and moving inside the annular tube and rotating the rotation center axis of the rotating body, or providing an auxiliary annular tube outside the annular tube, and the pressure receiving device which is a part of the rotating body rotating without gas leakage inside the annular tube Still higher temperature and pressure than the auxiliary annular tube The mechanical power energy is applied by applying a pressure of the gas flow and applying a larger force to the rotational motion of the rotational center axis of the rotating body, or by utilizing the rotational motion of the rotational center axis of the rotating body using at least one of them. Electric energy is produced and the high-temperature high-pressure product gas stream is used as mere power for the heat engine and then discharged out of the device, or the high-temperature high-pressure product gas stream is not discharged out of the device and used again as power fuel. A mechanical device that repeatedly circulates all the processes in the entire mechanical device, compensates for heat loss by refueling, produces mechanical power energy and electric energy, and has a power storage function.

  Either a high-temperature high-pressure product gas flow is injected into the thermal reciprocating engine to cause piston motion, or the explosive gas mixture molecules described above are directly exploded in the thermal reciprocating engine to cause piston motion. The rotation center axis of the rotating body that rotates around the rotation center axis at the fixed position of the slider crank mechanism becomes the rotation power axis, and the outer periphery of the rotation power axis and the rotation body is from the circular outer periphery. After obtaining mechanical power energy and electrical energy, the high-temperature and high-pressure gas flow is discharged as a mere power to the outside of the device after work, or not discharged to the outside of the device. A mechanical device that is used as a fuel for heat and either compensates for heat loss by supplementing the fuel, or in any case produces mechanical power energy or electrical energy and has a storage function.

  The high-temperature and high-pressure generated gas flow that is not discharged outside the device after rotating the rotating body flows into the Laval nozzle pipe, and the high-speed and high-speed generated gas flow is generated in the Laval nozzle pipe, which is in various combinations of Laval nozzle pipes. Electric power is generated in the gas turbine, and the high-temperature high-velocity product gas stream that has passed through the gas turbine is discharged into the ion-binding compound aqueous solution water tank for electrolysis, or the high-temperature high-speed product gas stream that has passed through the gas turbine is air-conditioned After passing through the machine and used for cooling and heating, it is discharged into an electrolytic ion binding compound aqueous solution tank, the gas obtained by electrolysis is exploded again in the combustion explosion chamber, and the same process is repeatedly circulated to mechanical power energy and electric energy. -A machine that continuously produces and has a power storage function.

  Mechanical equipment for producing mechanical power energy and electric energy having a storage function for charging the power source of the electric vehicle when the electricity is produced and used as described above, and storing the surplus electricity.

Effect of the invention

  The ion-bonded compound aqueous solution does not have radiation performance, the decomposed gas is harmless to the environment, and a large amount of energy is released during the continuous explosion, and this thermal energy and pressure energy are used as mechanical power energy and electrical energy. The energy that is converted into energy, and the unused energy can be stored as electric energy. The production capacity is large, but the operation is safe for the environment and safe for repairs.

  There is no radioactive danger of exhaust gas or radioactive effluent, such as nuclear power generators, and mechanical power energy and electrical energy are obtained using materials that are familiar to humans and are available to the public. Can be produced without the need for time, weather conditions. However, if it is a large-scale power plant, the conditions of the place are necessary, but the condition for danger like nuclear power generation is not necessary. Energy production is large relative to scale. In addition, the cost of raw materials for energy production is incomparably smaller than other equipment. The biggest advantage is that mechanical power energy and electrical energy can be covered by the factory at the factory, and unused electricity can be stored and sold, and can be used at home if it is of a very small scale. If a new energy production system using the binding energy of an ion binding compound aqueous solution occurs, a corresponding new importance will arise. It will stimulate demand for the production of demand materials, especially materials science, metal materials science, seawater desalination, and contribute to other industrial fields.

  If a new energy production system using the binding energy of the ion binding compound aqueous solution occurs, a new demand corresponding to it will arise. It will stimulate the production of demand substances, especially material science, metal materials science, desalination of seawater, and contribute to various industrial fields.

  Plan view of the mechanism that produces mechanical power   FIG. 1 is a plan view in which the position of the B annular tube is changed.   A perspective view of a three-dimensional assembly of the mechanism that produces mechanical power   Horizontal plan view of piston motion mechanism due to combustion explosion in thermal reciprocating engine   Cross-sectional view of machine that produces mechanical power by piston motion by high-temperature and high-pressure generated gas flow   Mechanism cross-sectional view for producing mechanical power and power for generators by piston motion   Cross-sectional view of the mechanism that produces mechanical power and generator power with the power transmission device of play in the piston motion   Mechanism assembly perspective view when power is produced only with the A ring pipe   Part enlarged perspective view of power transmission part   Cross section of water cooling device for heat engine   Mechanical assembly perspective view when power is produced only with the A ring pipe   Enlarged view of mechanical power, transmission of power for generator, receiving part   Perspective view of the inside of the Laval nozzle tube   Cross-sectional view of the inside of the Laval nozzle tube   Laval nozzle tube assembly cross section   Laval nozzle tube assembly perspective view   Water tank cross section of electrolysis equipment   Enlarged view of cracked gas reservoir during electrolysis   Assembly drawing of decomposition gas reservoir during electrolysis   Electric vehicle power supply charging circuit and electricity storage circuit after power generation   Example of wind receiving device or turbine blade attached to large circumference of rotating body   Electric vehicle power supply charging circuit diagram

BEST MODE FOR CARRYING OUT THE INVENTION

There are various ion binding compound aqueous solutions that electrolyze and emit gas molecules that are harmless to the environment. Examples include weak aqueous solutions such as NaOH, KOH, H ₂ O ₂ , HNO ₃ , H ₂ SO ₄ , Na ₂ SO ₄ , These ion-binding compound aqueous solutions are decomposed to some extent by heat, but are decisively decomposed by electrolysis. The aqueous solution produces gaseous oxygen at the anode and gaseous hydrogen at the cathode by electrolysis. Except for special oxygen, both hydrogen gas and oxygen gas are harmless gases in general environments. The product ion binding energy of these substances is used. The safest substance of the produced ion-binding compound is water, but it is difficult to decompose by itself, but it is eventually electrolysis of water, and the above-described aqueous solution of ion-binding compound serves as a catalyst. A thermal energy gas molecule is a gas molecule having thermal energy, which is a collection of many molecules, that is, a thermal pressure energy gas molecule. When starting to work, liquid hydrogen or liquid oxygen may be vaporized to send gaseous hydrogen or gaseous oxygen to the combustion explosion chamber, or hydrogen gas or oxygen gas generated by electrolysis may be used from the beginning. good. These gases are exploded in a combustion explosion chamber, and a rotating body at a fixed position is rotated by a high-temperature and high-pressure generated gas flow to obtain rotating mechanical power and rotating power for power generation by rotation of the rotating central shaft of the rotating body, or heat. Inject a flow of high-temperature and high-pressure gas into the reciprocating engine or explode an explosive gas mixture in the thermal reciprocating engine to cause piston movement. There is a method for obtaining rotating machine power and power for generating power by rotation of a rotation center shaft of an existing rotating body. Even if the combustion energy is discharged from the device immediately after acting in the internal combustion engine to produce mechanical power, the conventional way of producing fuel is different and the structure of the internal combustion engine is also different. I think that the method of using all the fuel and exhaust gas produced by the new method without exhausting exhaust gas from the entire system without going out of business is an epoch-making method. Rotational mechanical power that will appear in the detailed statement in the future means mechanical power energy, rotational power generation and power generation power generation energy, high-temperature high-pressure generated gas flow means high-temperature high-pressure steam gas flow, and the like.

The combustion explosion chamber should be circular or elliptical where the explosion pressure is not concentrated in one place. Because the combustion explosion gas is high temperature and pressure, the combustion explosion chamber uses a heat-insulating material or a heat-treated material inside. For ignition, an electric spark like a plug is good. The high-temperature high-pressure generated gas flow generated by the combustion explosion is utilized because the high-temperature high-pressure steam gas flow has the highest safety. Hereinafter, the high-temperature high-pressure product gas stream means a high-temperature high-pressure steam gas stream. An injection outlet is provided on the opposite side of the ignition point of the combustion explosion chamber, and the combustion explosion chamber and the pipe are connected to an annular pipe and an auxiliary annular pipe surrounding the outer circumference of the annular pipe. The auxiliary annular tube is in close contact with the outside of the annular tube, and holes are opened at regular intervals, and this hole has a valve with a structure in which the high-temperature and high-pressure generated gas flows only from the auxiliary annular tube to the annular tube and no backflow occurs. Yes. In the case of only the annular tube, the high-temperature and high-pressure gas flow flows directly from the combustion explosion chamber into the annular tube, and the rotor is rotated by pushing and moving the blade without gas leakage in the annular tube. Rotate to obtain rotating machine power and generator rotating power. When the annular pipe and the auxiliary annular pipe are in close contact, the two pipes are connected directly from the combustion explosion chamber to the annular pipe and the auxiliary annular publication pipe, respectively, and the high-temperature high-pressure product gas flows into the annular pipe. Performs the same work as above, and the end of the auxiliary annular pipe is closed, so in the auxiliary annular pipe, the direct high-temperature high-pressure generated gas flow in the combustion explosion chamber flows, so the pressure in the annular pipe is less than the pressure in the auxiliary annular pipe. the hole in the annular tube to the annular pipe flows into high temperature and high pressure product gas stream, vanes relocating the apply pressure to the blade to move annular tube is provided to further acceleration and force. Multiple layers of the annular tube or ring-shaped tube in which the auxiliary annular tube are in close contact, or if they are next to a plurality of stages into the annular pipe annular tube, the auxiliary annular tube upper hot pressure product gas stream in the guide tube to the auxiliary annular tube Or it leads to the next step. Even if the rotation center axis of the rotating body is inclined in an arbitrary direction, the annular tube and the auxiliary annular tube are also inclined in the same direction so that they do not contact each other.

  The vanes of the pressure receiving device in the annular tube subjected to the pressure of the high-temperature high-pressure product gas flow move in the annular tube. There are one or more blades of the pressure receiving device in the annular tube, it can rotate without gas leakage between the annular tube, the rotating body also rotates, the rotating center axis of the rotating body also rotates, and the end of the rotating center axis And the rotating machine power and the generator rotating power are obtained from the power branching part of the middle part. Injecting a high-temperature and high-pressure product gas flow into the thermal reciprocating engine or causing an explosive gas mixture to explode directly in the thermal reciprocating engine to cause piston movement, rotation of the center axis of the rotating body of the slider crank mechanism and rotation of the outer circumference Rotational mechanical power and generator rotational power are obtained.

The shape of the rotating body is a disk type, a circular frame type (a donut shape with a rotation center axis and a donut shape circle connected by a shaft), a sphere, and a longitudinal ellipsoid (the X and Y axes are the same) Ellipsoid with long length and Z axis), short ellipsoid with vertical axis (X and Y axes are the same length and Z axis is short), cylinder, polygonal cylinder, hemisphere, semi-ellipsoid, semi-long ellipse Body, semi-longitudinal short ellipsoid, and the like.
A rotary machine power having a large moment is obtained by combining a large-diameter rotary machine power transmission device and a large-diameter rotary machine power receiving device at the end of the rotary center shaft on the side of the rotary center shaft not attached to the rotary body. When rotating machine power is not required, the large-diameter rotating machine power receiving device is automatically removed from the large-diameter rotating machine power transmission device, and the small diameter of the large and small diameter power transmission device of the concentric shaft for the idle generator is rotated. Connect to the large-diameter rotating machine power transmission equipment at the end of the rotation center shaft, and connect the large-diameter power transmission equipment of the concentric shaft of the play to the small-diameter power receiving equipment of the generator rotor. Rotate at high speed. Furthermore, it is possible to produce a large amount of electricity by connecting the small diameter of the rotors of a plurality of generators to a large-diameter power transmission device. The generator used at this time is a generator that is used only when rotary machine power is unnecessary. Build a power branching part or a plurality of power branching parts in the middle part of the rotation center shaft of the rotating body, install a large-diameter power transmission device for each branch point part, When a small-diameter power transmission device is sandwiched and used as rotating machine power, a large-diameter power transmission device and a large-diameter rotating machine power receiving device are connected, and when used as a generator, a large branching point of power is required. A small-diameter power transmission device is connected to a radial power transmission device, and a large-diameter power transmission device is connected to a small-diameter rotor of a plurality of generators to produce a large amount of electricity. The generator used here is a generator that is used only when the branching of power is used.

  A high-temperature high-pressure product gas flow, that is, a high-temperature high-pressure steam gas flow, flows into the thermal reciprocating engine to cause piston motion, or directly injects gaseous hydrogen or gaseous oxygen into the inner chamber of the thermal reciprocating engine to burn and explode the piston motion. There are two ways to make it happen. Both have a slider crank structure, and the reciprocating motion of the piston is changed to the rotational motion of the rotating body, and rotational mechanical power and generator power are obtained from the rotation of the central axis of the rotating body and the rotation of the large circumference of the rotating body. There is a thermal reciprocating engine room on both sides of the piston, injecting a high-temperature high-pressure product gas flow into one space, moving the piston to the full, and then injecting a high-temperature high-pressure product gas flow into the opposite space Alternatively, the gas hydrogen and gaseous oxygen are injected into one space at a ratio of 2: 1 and burned and exploded, and then the hydrogen and gaseous oxygen are injected into the opposite space at a ratio of 2: 1 and continuously exploded. The reciprocating motions of the thermal reciprocating engine shafts on both sides of the two are symmetrically reciprocated to obtain rotating machine power and generator power. A rotary body of a slider crank mechanism is provided on the left and right sides of the thermal reciprocating engine, and a large and small diameter power transmission device is connected to the outer periphery of the rotary body with a concentric shaft of play. When used as rotating machine power, connect the rotating machine power transmission device to the large diameter power transmission device of the concentric shaft of the play, and when using it for the generator, transmit the small diameter power of the concentric shaft of the play to the outer periphery of the rotating body. A large amount of electricity is produced by connecting devices and connecting a small-diameter power receiving device of a plurality of generator rotors to a large-diameter power transmission device of a concentric shaft of play. This thermal reciprocating engine can have many layers, has many reciprocating engine shafts, and produces more rotating mechanical energy and electrical energy than many rotating machine power transmission devices and many generator transmission devices. It is done. The high-temperature and high-pressure product gas flow that has passed through the thermal reciprocating engine chamber can be discharged out of the apparatus, but in this case, it is just power. The main lines are gathered together in one thick tube and connected to the Laval nozzle tube.

  Rotating machinery power transmission device, rotating machinery power receiving device, idle high-speed rotating machinery transmission device, idle high-speed rotating machinery power device, etc. are `` gear '', `` chain '', `` belt '', `` toothed belt '', `` Friction wheel, Spur gear, Slanting bevel gear, Helical bevel gear, Spiral bevel gear, Worm gear, Hypoid gear, Internal gear, Screw gear The “spur gear” can reduce the efficiency loss of “force” for large rotating machine power transmission. Any gear may be used for the portion having almost no resistance.

  The high-temperature and high-pressure product gas flow after working in the annular pipe on the outer periphery of the rotating body or in the thermal reciprocating engine is once collected in a pipe that is thicker than the discharge pipe of the annular pipe or the thermal reciprocating engine. The Laval nozzle effect results in a high-temperature, high-velocity product gas stream. A wind turbine device for the generator, that is, a generator turbine, is provided in the Laval nozzle pipe, and this generator turbine receives the high-temperature, high-velocity generated gas flow without contacting the inner wall of the Laval nozzle pipe. Rotate around. Even when there are multiple generator turbines in the Laval nozzle tube, the rotation center shafts rotate without touching each other, and the rotation center shafts are not attached to the end of the rotation center shaft. A large-diameter rotary power transmission device for a generator is applied, and a small-diameter power transmission device with a concentric shaft for play is connected to the large-diameter power transmission device for a concentric shaft. A large amount of electricity is produced by connecting power receiving devices. The generator used here is a generator that constantly generates power. A plurality of Laval nozzle pipes are connected in series to create a step, parallel and parallel to each other, or a plurality of series are arranged in parallel with a step to create a large number of rotation center shafts, as described above. If the generator connection method is used, a large amount of electricity is produced by a large number of generators. The high-temperature, high-velocity product gas stream that has worked in each Laval nozzle tube is collected in a thick tube and released into the electrolyzed ion-binding compound aqueous solution tank to raise the temperature of the ion-binding compound aqueous solution water. If the temperature of the decomposition solution is high during electrolysis, less power is consumed.

  When electrolyzing an ion binding compound aqueous solution, the decomposition solution is weakly alkaline or weakly acidic and decomposed. As the electrode for electrolysis, a stainless steel alloy having conductivity which is not corroded by hydrogen, oxygen and their compounds is economical. Originally gold or platinum is good but expensive.

The high-temperature, high-velocity product gas flow after the power generation operation with the Laval nozzle tube is released into the ion-bonded compound aqueous solution tank water, and the score of this work is that the high-temperature high-velocity product gas flow is released into the ion-bonded compound aqueous solution tank water In addition, the temperature of the ion-binding compound aqueous solution can be increased to promote the activation of molecules, and the power consumption during electrolysis can be reduced. When the ionic compound used is alkaline, the high-temperature high-velocity product gas stream is discharged into the weakly alkaline aqueous solution, and when the ionic compound used is dilute sulfuric acid, the electrolysis is facilitated.
During the electrolysis, the water level of the ion-binding compound aqueous solution tank needs to be kept constant at all times, and therefore a device for injecting water is installed if the water level drops. The generated gas is collected on the water, gaseous hydrogen is collected at the time of collection, and gaseous oxygen is one atmospheric pressure at room temperature. In order to store at high pressure when stored in a storage container, high compression equipment is provided during the process. If the reservoir has the same capacity, prepare gaseous hydrogen: gaseous oxygen = 2n; n. Hydrogen gas and oxygen gas storage can be commercialized independently. A piston compression device is provided on the opposite side of the storage container extrusion port, and if necessary, it is extruded from the extrusion port at a pressure higher than the combustion explosion pressure, injected into the combustion explosion chamber, and again exploded. At this time, a cylindrical shape is convenient for the piston compression. It is more economical to use a hydraulic machine to create a high pressure during extrusion. Before injection into the combustion explosion chamber, it is preferable to adjust the injection molar ratio per second so as to be gaseous hydrogen: gaseous oxygen = 2 (mol / s): 1 (mol / s) by computer control again.

  Machines that convert high-pressure heat energy into mechanical kinetic energy and electrical energy have heat, so they are immersed in aquarium water. Cooling. Warm warm water is used as warm water, and when the warm gas is air, it is discharged into warm water and stored as warm water.

  Electricity obtained by the generator is produced by direct current or alternating current, and a part of the production current is applied to charging the electric vehicle. The electric circuit for power supply is different depending on whether the power source of the electric vehicle is a power source having a large voltage or a power source having a large current. It is necessary to determine the power supply circuit in consideration of this point. The alternating current is converted into direct current, and the direct current is used as it is, and is charged through a resistance circuit so as to obtain a voltage and current that match a vehicle storage battery. The surplus current that is also used for electrolysis is stored in a large capacitor. Alternatively, it is stored and stored in a capacitor.

  The power storage devices that store the surplus electricity in the above are large-sized capacitors A type and B type having the same structure having many functions of paralleling the capacitors. The A-type capacitor is fixed, and the B-type capacitor is a capacitor on a carriage that moves on the rail. Since the generated current has a direct current and an alternating current, the direct current is used as it is. AC current is converted to DC current for use, A type battery stores electricity directly from the generator, B type battery moves electricity from A type battery, and A type and B type can be charged if B type battery is fully charged. The positive and negative electrodes are disconnected from both capacitors, and simultaneously, the positive electrode of the A-type capacitor and the positive electrode of the B-type capacitor, the negative electrode of the A-type capacitor and the positive electrode of the generator, and the negative electrode of the B-type capacitor and the negative electrode of the generator are connected. If a predetermined amount of electricity can be stored in the B-type battery, all the electrodes of the A-type battery, the B-type battery, and the generator are disconnected, and at the same time, the same operation performed for the first time is performed for the A-type battery, the B-type battery, and the generator. This is repeated several times until the amount of electricity stored in the B-type capacitor reaches a predetermined amount. Gradually increase the amount of electricity in the B-type capacitor, and when the amount of electricity in the B-type capacitor reaches a predetermined amount, the B-type capacitor moves with all electrodes disconnected, and the B-type capacitor with an empty new amount of electricity moves Thus, a large amount of electricity can be stored in many B-type capacitors. When used at home, a fixed small A-type capacitor and several B-type capacitors that do not move are provided, and the operations described above are performed among the three types of small A-type capacitors, B-type capacitors, and small generators. Just do it. If necessary, both AC and DC power can be generated at home, and it can be used to charge electric vehicles. This device can be used with any power generation method.

Charging of the electric vehicle power source takes in an electric current by putting an electric resistance of a × 10 ^−b Ω in parallel with the mainstream in an electric circuit between the generator and the accumulator. However, a and b are real numbers. The calculation method was as follows. There is a device for taking current for charging a car. Let the resistance of this device be XΩ. If a shunt is created in the device, and the current flowing through the device is reduced to 1 / n, then the resistance of the shunt is r and the total resistance is R, (1 / R) = (1 / r) + (1 / X ), R = (rX) / (R + X). If the current i ₁ flowing through the device is i and the total current is i, then i ₁ = i × (R / X) = i × (rX) / (r + X) X = From ir / (r + X), (1 / n) = X / (r + X), nX = r + X, X = r / (n−1). Thus, the necessary current i ₁ can be obtained by determining n.

The following manufacturing method is an example.
Hydrogen gas and oxygen gas, which are vaporized liquid hydrogen and liquid oxygen, are continuously sent to the combustion explosion chamber (1) through a valve, ignited by the plug (4), causing a continuous explosion in the explosion combustion chamber (1). A high-pressure steam gas flow (O _a ) is caused to flow into the first-floor annular pipe (5 ₁ ) of the three-story annular pipes (5 ₁ , 5 ₂ , 5 ₃ ), and each part in the three-story annular pipe There are rotating disks (7 ₁ , 7 ₂ , 7 ₃ ) having rotation center axes (A ₁ , B ₁ , C ₁ ) that do not contact each other, and blades (17 ₁ , 17 ₃ ) around the rotating disks ₂ , 17 ₃ ) with no gas leakage between the blade (17) and the annular pipe (5), and the blade (17 ₁ ) receives the pressure of the high-temperature high-pressure steam gas flow (O _a ). Rotate. Mechanical rotation power is obtained from the gear (A ₃ ) meshed with the end gear (A ₂ ) of the rotation center shaft (A ₁ ) by the rotation of the rotation center shaft (A ₁ ) of the rotating disk (7 ₁ ). The high-temperature and high-pressure steam gas stream (O _a ) is high-temperature and high-pressure, so the induction pipes (6 ₁ , 6 ₂ ) from the high pressure section on the first floor to the low pressure section on the upper second floor to the low pressure section on the second floor from the high pressure section on the second floor. The second and third floor circular pipes are the same in structure as the first floor part, and have the same action as the first part of each of the rotation center axes (B ₁ , C ₁ ) of the second, third and third floors. Mechanical rotation power is obtained from the gears (B ₃ , C ₃ ) meshed with the terminal gears (B ₂ , C ₂ ) by rotation. On each rotation center axis (A ₁ , B ₁ , C ₁ ), the rotation center axis (A ₁ ) of the portion protruding from the rotation axis holder (A ₁ ), the end gear (A ₂ ), and the rotation center axis (B ₁ ) The position of the intermediate portion of the end gear (B ₂ ), the position of the rotation center shaft (B ₁ ), the position of the intermediate portion of the end gear (B ₂ ) and the rotation center shaft (C ₁ ) end gear (C ₂ ), the rotation center shaft (C ₁ ) Gears (X ₁ , Y ₁ , Z ₁ ) on each rotation center shaft (A ₁ , B ₁ , C ₁ ) at each position of the intermediate position between the end gear (C ₂ ) and the rotation shaft holder-end ), And the gears (X ₂ , Y ₂ , Z ₂ ) connected to the rotors of the three generators are meshed with the gears (X ₁ , Y ₁ , Z ₁ ) and rotated. When more electricity is generated and mechanical rotation power is not required, power rotation is performed from each rotation center shaft (A ₁ , B ₁ , C ₁ ) end gear (A ₂ , B ₂ , C ₂ ). The gears (A ₃ , B ₃ , C ₃ ) are removed, the gear (A ₂ ), the generator gear (U _2a ), the gear (B ₂ ), the generator gear (U _2b ), and the gear (C ₂ ). And the generator gear (U _2c ) are meshed with each other, and the gears (U _2a , U _2b , U _2c ) are connected to the rotors of separate generators to rotate the rotor to generate electricity. The pressure of the first floor portion in the annular pipe (5) can be adjusted by the amount of hydrogen gas and oxygen gas supplied to the combustion explosion chamber (1), and the three-axis mechanical rotation power and 3 in one combustion explosion chamber (1). Rotate the generator's rotor and rotate the six generator's rotors when the mechanical rotation power is not needed to turn into an all generator. The amount of hydrogen gas, oxygen gas, and supply time The computer can be controlled, and surplus electricity is stored in a capacitor, and the gas pressure is converted into electrical energy simultaneously with mechanical rotational kinetic energy. A straight Laval nozzle pipe (9) is connected to the tip of the annular pipe (5 ₃ ) on the third floor portion, and the inner diameter of the straight Laval nozzle pipe (9) is made smaller than the inner diameter of the third floor partial annular pipe (5 ₃ ). , A high-temperature high-speed steam gas flow (O _b ) is obtained by the nozzle effect, and three flower-shaped propellers (20, 21, 22) are provided in the linear Laval nozzle pipe (9), and the flower-shaped propellers (20, 21, 22) are provided. ) Linear propeller nozzles even if the flower-shaped propeller (20, 21, 22) rotates at a high speed by receiving a high-temperature high-speed steam gas flow (O _b ) around the rotation center axis (D ₁ , E ₁ , F ₁ ) This structure does not contact the inner wall of the tube. The flower-shaped propeller (20, 21, 22) receives the high-temperature, high-speed steam gas flow (O _b ) and rotates the rotation center axis (D ₁ , E ₁ , F ₁ ) at a high speed, and the rotation center axis (D ₁ , E ₁ , F ₁ ) Rotation of three generators connected to gears (D ₂ , E ₂ , F ₂ ) meshing with the gears (D _1a , E _1a , F _1a ) at the front end and rotating at higher speeds The child has a structure that stores electricity by cutting the magnetic field lines of the generator at high speed to obtain electricity. The combustion explosion chamber (1), the chamber (30) containing the pressure machine rotary power machine, and the linear Laval nozzle tube (9) are all soaked in the first water tank (31) for cooling purposes. The first water tank (31) has a spiral pipe (50, 51) through which both hydrogen gas and liquid oxygen vaporize pass, and the first water tank (31) water is cooled thereby. The water tank (31) is always full and the water surface of the second water tank (32) located below the upper water surface of the first water tank (31) always maintains a constant depth. When the water level of the second water tank (32) is lowered, the cooling water cooled by utilizing a part of the electricity generated by the generator described above by the amount of water is passed through the pipe (52) into the first water tank (31). The fresh water is also fed into the first water tank (31) through the pipe (40), and the hot water overflowing from the first water tank (31) flows into the second water tank (32) through the pipe (41 _a ) with the valve open, one aquarium (31) is heated in exceeds predetermined temperature cold water injected from the pipe (52), overflowing hot water flows into the pipe third hot water storage tank (41 _b) of the valve is opened (96), first The tri-warm water tank (96) is simply warm water intended for hot water use, and the high-temperature high-speed steam gas stream (O _b ) after rotating the flower-type propeller (20, 21, 22) is the water in the second tank (32). It is discharged through the pipe (42) and the water temperature of the second tank (32) is increased. The hot water molecules are activated, a plurality of electrolyzers (33) are provided on the surface of the second water tank (32), and the hot water liquid in the second water tank (32) is weakly alkaline to facilitate electrolysis, The second water tank (32) aqueous solution is electrolyzed using a part of electricity generated by the described generator, and a metal conductive material that does not form hydrogen, oxygen and a compound is applied to the electrolysis electrode, and the anode ( 34) and the regenerated oxygen gas (60) and regenerated hydrogen gas (61) produced at the cathode (35) are both collected on the water and passed through the regenerated hydrogen gas dedicated pipe (37) and the regenerated oxygen gas dedicated pipe (36). Regenerative hydrogen gas reservoir (43) and regenerative oxygen gas reservoir (71) with a piston p (45) on one side of a straight cylinder with a plurality of the same dimensions for each gas are in a ratio of 2: 1 hydrogen gas, oxygen gas There are several more, and the regenerated hydrogen gas (61) is 1 at room temperature. Until one pressure is satisfied, one after another is put into 2n regenerative hydrogen gas reservoirs (43, 44, 45, 46, 47, 48) in order to one atmosphere, and the regenerated oxygen gas (60) is also regenerated. As in the case of hydrogen gas (61), it is stored in n regenerative oxygen gas reservoirs (71, 72, 73) one by one until it reaches 1 atm, and regenerated hydrogen gas (61) and regenerated oxygen gas (60) are stored. In use, the piston p (45) of the reservoir is at a pressure slightly higher than the combustion explosion pressure of the combustion explosion chamber (1) so that the regenerated hydrogen gas (61) and the regenerated oxygen gas (60) are in a molar ratio of 2: 1. The regenerated hydrogen gas (61) and the regenerated oxygen gas (60) pass through the dedicated induction tube, the regenerated hydrogen gas tube (80), and the regenerated oxygen gas tube (81), and then the combustion explosion chamber (1 ) For vaporized hydrogen gas, vaporized oxygen gas and hydrogen (2), The oxygen gas (3) is injected, and at that time, the injection of vaporized hydrogen gas and vaporized oxygen gas is stopped, and the control is again performed so that the hydrogen: oxygen ratio is 2: 1 in the injection molar ratio of the regeneration gas. 1) The regenerated hydrogen gas and regenerated oxygen gas that entered enter the combustion explosion chamber (1) again, and by this repeated continuous cycle, mechanical rotation power energy and at the same time electrical energy from the generator are created. Machine equipment with a generator that has hot water storage and storage function that can store hot water at the same time as electricity can be stored in the capacitor.

方向、９７――――Ｊ電気自動車充電用の電気抵抗ＸΩ ９８―――――Ｇ，Ｈは電気自動車電源充電用電極、９９―――――回転体で９９_１は回転体の１段目、９９_２は回転体の２段目、９９_３は回転体の３段目 １００―――――回転体の回転中心軸、１０１―――Ａ環状管、１０２――――Ｂ環状管、１０３―――――Ａ，Ｂ環状管間の気体の通り抜け穴、１０４―――燃焼爆発室よりＡ環状管へ高温高圧生成ガス流の誘導する管、１０５―――燃焼爆発室よりＢ環状管へ高温高圧生成ガス流の誘導する管、１０６―――ピストン、１０７―――ピストンの両シャフト、１０８―――燃焼内燃機関のピストン運動への動力変換機関室、１０９―――――高温高圧生成ガス流のピストン運動への動力変換機関室、１１０―――燃焼内燃機関室への気体水素誘導管、１１１―――燃焼内燃機関室への気体酸素誘導管、１１２――――弁、１１３―――――ピスンのストッパ、１１４――――ピストン機関室へ高温高圧生成ガス流を誘導する輸送管、１１５―――回転体外円周に付く風受け機器＝タ−ビンの羽根、１１６―――ピストンと共に動いて気体の排出口を造る下壁、１１７―――Ｂ環状管を流れる高温高圧生成ガス流の上段或いは隣の段への誘導管、１１８―――Ａ環状管を流れる高温高圧生成ガス流の上段或いは隣の段への誘導管、１１９―――――高温高圧生成ガス流を一括して集める太い管、１２０―――遊びの小径の動力伝達機器の回転中心軸、１２１――――遊びの小径の動力伝達機器、１２２―――遊びの大径の動力伝達機器、１２３――――遊びの大径の動力伝達機器の中心軸、１２４―――発電機の回転子末端の動力受取機器、１２５―――同心軸大径の遊びの動力伝達機器、１２６―――――同心軸小径の遊びの動力受取機器、１２７―――同心軸動力受取、伝達機器の中心軸、１２８―――発電機の回転子末端の動力受取機器の中心軸、１２９――クランク棒、１３０―――ラバルノズル管内のタ−ビン軸末端の動力伝達機器、１３１―――ラバルノズル管内のタ−ビン軸シャフト、１３２――ラバルノズル管の歪曲部分、１３３―――動力生産機関を通過して部位１１９に繋がる管、１３４――――発電機よりの電流ｉ，１３５――――電気自動車充電機器を流れる電流ｉ_１，１３６―――Ｔ抵抗はｒΩ，全抵抗をＲΩ1—Combustion explosion chamber, 2—Hydrogen gas injection port, 3—Oxygen gas injection port, 4—Ignition plug, 5—Annular circular tube through which high-temperature high-pressure steam gas flows, 6—High-temperature high-pressure steam Induction tube that guides the gas flow to the upper floor, 7—a disk whose blades rotate under pressure, (the pressure receiving device in the handle-like annular tube or around the disk rotates under pressure) 8) Rotating shaft cover, 9- Linear Laval nozzle pipe (corresponding to multiple Laval nozzle pipes in general Laval nozzle pipe), 17- Attached to the circumference of the disk that receives high-temperature high-pressure steam gas flow Blades (corresponding to pressure receiving devices attached to the handle-shaped annular tube or the circumference of the disk), 20, 21, 22-Flower-shaped propellers in the Laval nozzle tube (corresponding to wind receiving devices that generate wind power in the Raval nozzle tube and generate rotational power ) 2 ――Support of flower-shaped propeller in Laval nozzle tube, 30―― Chamber with high temperature annular tube and rotating shaft, 31―First water tank, 32―Second water tank, 33―Capture gas on water during electrolysis collecting vessel, 34-- positive electrode, 35-- cathode, 36-- playback oxygen gas induction pipe, 37-- reproduction hydrogen gas induction pipe, 40-- freshwater injection tube into the first water tank, ₄₁ a - first Induction tube for guiding the warm water from one tank to the second water tank, 41 _b- Tube for guiding extra warm water from the first tank to the third warm water tank, 42-High-temperature high-speed steam after rotating the propeller Guide pipes for guiding the gas flow into the second water tank, 43, 44, 45, 46, 47, 48--regenerative hydrogen gas reservoirs (2n per n regenerative oxygen gas reservoirs, the Pascal principle works) 71, 72, 73 – Regenerated oxygen gas Reservoir storage tanks (n corresponding to 2n regenerative hydrogen gas storage tanks, equivalent to Pascal's principle container or highly compressed gas container), 50--vaporized oxygen gas induction pipe, 51--vaporized hydrogen gas induction pipe, 52—pipe for injecting cold water into the first water tank, 53—pipe for introducing cooling air into the chamber 30; 54—releasing hot air after cooling the chamber 30 into the first water tank Pipes, 55-discharge port for flowing out the hot water overflowing from the first tank, 56-sensor for controlling the water temperature of the first tank, 60-regenerated oxygen gas, 61-regenerated hydrogen gas, 80, 81- -Pipe for sending out regenerative gas, 90-valve of regenerative gas guide pipe, 91-outlet valve of regenerative gas reservoir, 92-magnet when closing valve 91, O _a --high-temperature high-pressure steam gas flow, O _b - hot high velocity steam gas _{stream, A 1, B 1, C} 1 - the rotation center axis of the rotary disc (corresponding to the rotational center axis of the rotary machine of the rotary piston _structure), A 2 --A ₁ end spur _gear, A 3 --a ₂ of mating spur _gears, of B 2 -B ₁ Terminal flat gear, B ₃ --B ₂ meshing flat gear, C ₂ --C ₁ terminal flat gear, C ₃ --C ₂ meshing flat gear (A ₂ , B ₂ , C ₂ , A ₃ , B ₃ , C ₃ are equivalent to a mechanical rotational power transmission device), X ₁ , Y ₁ , Z _1- A generator-specific umbrella gear (on the mechanical rotational power shaft) in the middle of A ₁ , B ₁ , C ₁ X ₂ , Y ₂ , Z ₂ —the rotary power transmission device attached to the end of the rotor shaft of each generator, X ₁ , Y _1, gear meshing with _{Z 1, U 1a, U 2b} , U 3c - generator rotor ends for power generation when the mechanical power is not required Meshes with _{A 2,} B 2, _{C 2} by the _{gear, (A 2, B 2,} C 2, A 3, B 3, corresponding to the C 3 --- mechanical rotational power transmission _{equipment), (X 1, Y 1} , Z ₁ , X ₂ , Y ₂ , Z ₂ ——corresponding to intermediate power transmission equipment dedicated to power generation), (U _1a , U _2b , U _3c ——— When the mechanical rotational power is not required, the rotational power transmission dedicated to power generation D ₁ , E ₁ , F ₁ —Rotation center axes of the flower-shaped propellers 20, 21, 22 (D ₁ , E ₁ , F ₁ —corresponding to the rotation center axis of the wind receiver device), D _1a , E _1a , F _1a --- D ₁ , E ₁ , F ₁ end large spur gear, D ₂ , E ₂ , F ₂ --D ₁ , E ₁ , F ₁ P ₁ , P ₂ , P ₃ connected to the rotating shaft of each generator——Pistons P, 80, 81 for sending out the regeneration gas from the reservoir 82--guide pipe for blowing out regenerative gas, 95--drain for draining the first tank, drain for draining the second tank, 96--warm water tank (the correct tank is not the drain for draining the second tank), α, β-DC current positive and negative currents converted from AC current generated by the generator, A, B-A-type and B-type parallel combination capacitors-C, D--of A-type capacitors Positive, negative, E, F --- Moving B type

Direction, 97 ---- J electric vehicle electrical resistance XΩ 98 ----- G for charging, H is an electric vehicle power charging electrode, 99 ----- 99 ₁ 1 stage of the rotating body in the rotating body eyes, second stage 99 ₂ is the rotating body, 99 ₃ the central axis of rotation of the third stage 100 ----- rotating body of the rotating body, 101 --- a circular tube, 102 ---- B ring tube , 103 --------------------------------------------------------------------------------------------------------------- Pipe tube from which the high-temperature and high-pressure generated gas flows from Pipe that induces high-temperature and high-pressure product gas flow to the annular pipe, 106--Piston, 107--Both shafts of piston, 108--Power conversion engine room for piston movement of combustion internal combustion engine, 109 --- -Power conversion engine room for piston movement of high-temperature high-pressure product gas flow, 110--Combustion internal combustion engine Gas hydrogen induction pipe to the chamber, 111--Gaseous oxygen induction pipe to the combustion internal combustion engine room, 112--Valve, 113 --- Pison stopper, 114 --- High temperature to the piston engine room Transport pipe for guiding high-pressure generated gas flow, 115--Wind receiving device attached to the outer circumference of the rotating body = turbine blade, 116--Lower wall that moves with the piston to create a gas outlet, 117-- -Induction pipe to the upper stage or the next stage of the high-temperature high-pressure product gas flow flowing through the B annular pipe, 118-- Induction pipe to the upper stage or the next stage of the high-temperature high-pressure product gas flow flowing through the A annular pipe, 119- ――― Thick tube that collects high-temperature and high-pressure product gas in a lump, 120 ――― Center of rotation of a small-diameter power transmission device, 121 ――― Power-transmission device of a small diameter play, 122 ――― Large-diameter power transmission equipment, 123- Central shaft of the transmission device, 124--Power receiving device at the rotor end of the generator, 125--Power transmission device of the concentric shaft large diameter play, 126 ---- Power receiving of the concentric shaft small diameter play Equipment, 127--Concentric shaft power reception, central axis of transmission equipment, 128--Central axis of power reception equipment at the rotor end of the generator, 129--Crank rod, 130--Turb in Laval nozzle tube Power transmission device at the end of the bin shaft, 131--Turbin shaft shaft in the Laval nozzle tube, 132--distorted portion of the Laval nozzle tube, 133--Pipe that passes through the power production engine to the part 119, 134-- --- Current i from the generator, 135 ---- Current i ₁ , 136 flowing through the electric vehicle charging equipment --- T resistance is rΩ and total resistance is RΩ

Claims (4)

Explosive gas mixture is exploded in a combustion explosion chamber to generate a high-temperature and high-pressure product gas stream, and this high-temperature and high-pressure product gas stream pressurizes the pressure receiving device of a rotating body that rotates without any gas leakage in the annular pipe. In an apparatus for generating motive energy from a rotation center axis of a rotating body by rotating the rotating body, an auxiliary ring that circumscribes the annular tube and introduces the high-temperature high-pressure product gas flow from the combustion explosion chamber into the annular tube A pipe is provided, and the high temperature and high pressure product gas flow is also introduced into the annular pipe from the annular pipe and the auxiliary annular pipe to further pressurize the pressure receiving device, whereby the rotating body is accelerated and rotated. Rotational center axis of the accelerating rotation, obtaining a large motive energy, or connecting a generator to the rotating central axis rotating to produce a large amount of electric energy, Gas-energy generating device. The high-temperature and high-pressure generated gas stream generated in claim 1 is returned to the ion-bonded compound aqueous solution water tank and electrolyzed without being discharged out of the apparatus, whereby the mixed gas is obtained again and explosively burned in the combustion explosion chamber. The apparatus for generating motive energy and electric energy according to claim 1. Or wherein the high temperature and high pressure product gas stream passing through the annular tube and the generator is introduced into the gas turbine, is electrolyzed back the high-temperature high-pressure product gas stream that has passed through the gas turbine directly the ionic bond compound aqueous solution in the water tank, Alternatively, after being used as heat for cooling and heating, the ion-bonded compound aqueous solution is returned to the water tank and electrolyzed, whereby the mixed gas is obtained again and exploded in the combustion explosion chamber. The motive energy and electrical energy generator described. Power energy, electrical energy generating device according to claim 1, characterized in that with a charge reservoir function 3.

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