Gas generation generator

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a gas generation type power generation device using a device for separating oxygen.

A novel hydrogen generating apparatus is disclosed in US Patent Application No. A 30 2, G 0 7 filed by the present inventor on September 1, 2013. The hydrogen generator is equipped with a pressure-resistant container for a water bath, and a plurality of plates are lined up and immersed in the water bath. Hydrogen and oxygen atoms are separated from water molecules by passing water between the plates while applying a low power, unregulated, non-p-wave DC voltage between the plates. Each plate is formed from a non-oxidizing, similar metal and is subatomic (su A non-electrolytic system is constructed due to b-atomic) action.

The upper part of the pressure vessel is a storage chamber for hydrogen and oxygen that maintains a predetermined pressure level.

A novel hydrogen burner is disclosed in US Patent Application No. AG/1977 filed by the present inventor on May 2, 1979G2. The nozzle of the burner is connected to a reservoir or gas collection chamber by a suitable line. The mouth of the nozzle is provided with an opening of a size and shape selected depending on the size of the flame and the temperature and velocity of the combustion mixture.

Furthermore, a novel power generation device is disclosed in the present inventor's US Patent Application No. A3AZθta/, filed on May 19, 2013. In this device, inside the non-magnetic mother plate, Gas particles subjected to a magnetic field are filled and forced through the pipe at high speed. Its speed depends on the pressure within the gas storage chamber of the gas generator. When the magnetized gas particles pass through the core of the coil, a voltage/current is induced. This voltage/current can be used in the same way as a regular power supply.

The hydrogen and oxygen mixture released from one end of the gas is fed to a gas burner for combustion as described in the inventor's above-mentioned US patent application Ser. No. 1/1977. When the gas burner is not in use, the mixture is guided by other means in a closed loop into the storage chamber of the hydrogen generator.

The present invention uses the basic principle of a particle accelerator and the principle that a voltage/current is induced in a secondary winding by passing a magnetic element through the secondary winding, in combination with a hydrogen generator. be. The particle accelerator uses the principles described in the inventor's aforementioned U.S. Patent Application No. 3 Otsu 2θta/, and the hydrogen generator specifically uses the principles described in the aforementioned U.S. Patent Application H A 30 ;l, go7 It uses the principles described in No.

The device of the invention comprises an induction coil having a large number of turns and an output for using the voltage/current induced in the induction coil. The induction coil is wrapped around a non-magnetic tube forming a closed loop.

The hydrogen generator includes a plurality of plates arranged in a row inside a pressure vessel. Hydrogen and oxygen are dissociated from water molecules by applying a direct voltage/current between the plates. The upper part of the pressure vessel is a chamber that stores hydrogen and oxygen under a predetermined pressure. Outlet means for venting the hydrogen and oxygen mixture connects the non-magnetic tube to the chamber. Magnetizing means adjacent the outlet means create a magnetic field to apply a magnetic potential to the hydrogen and oxygen pressurized out of the outlet means.

Additionally, the device includes a closed loop of non-magnetic pipe containing a quantity of magnetized particles.

A magnetic acceleration assembly is positioned on the pipe and includes a low voltage input primary induction winding.

A secondary winding is positioned on the wire opposite the primary winding. When voltage is applied to its primary winding, Magnetized particles are accelerated through a magnetic acceleration assembly. A voltage/current is induced when the accelerated particles pass through the secondary winding. Within a closed-loop system, the process occurs continuously. The increased secondary voltage/current is used in DC to AC amplifiers.

Thus, it is an object of the present invention to provide a hydrogen generator/power generator capable of generating larger voltage/current.

A further object of the present invention is to provide a hydrogen generator/generator that uses magnetized magnetic particles from a hydrogen generator as a magnetic element.

A further object of the present invention is to provide a hydrogen generator and power generation device with a hydrogen generator having a controlled output.

Furthermore, it is an object of the present invention to provide a power generation device that can be used in conjunction with a hydrogen generator and has an output other than that on the mold side.

Furthermore, it is an object of the present invention to provide a hydrogen generator/power generation device with a simple structure using easily available components.

Embodiments of the present invention will be described in detail below with reference to the drawings.

FIG. 1 schematically shows a preferred embodiment of the invention. In FIG. 1, a hydrogen generator 10 has a pressure housing 15 which is airtight. The housing 15 is filled with water 12 to a predetermined level. A plurality of plates 14 arranged in a row are immersed in the water 12.

Referenced U.S. Patent Application A 302. Similar to the hydrogen generator described in No. 7, the plates 14 are in pairs made of similar non-oxidizing metals.

Previous Ni:! A negative potential and a positive potential are applied from a power source 16 to every seventh plate 14 in the plate row. Hydrogen and oxygen are generated in this hydrogen generator 10 by subatomic action and not by electrolysis. That is, the potential applied to the plate 14 causes hydrogen atoms and oxygen atoms to dissociate from water molecules. Therefore, any water can be used in this generator 1°, regardless of its purity or amount of contaminants. However, it is also possible to use an electrolytic hydrogen generator, although this increases the cost and reduces efficiency. In this case, the plate 14 will be used as an anode and a cathode, and the water will be distilled water to which chemicals have been added.

The liberated hydrogen (denoted as particles -!Oa-2θn) and oxygen (denoted as particles, 2.2a-,22n) are separated from the liberated gases, e.g. 2/n is collected in the chamber 23 and stored there. The chamber 23 is provided with switch means 57 for disconnecting the power source 16 and the generator 10 when the pressure within the chamber 23, as detected by the pressure gauge 55, reaches a predetermined level.

When the hydrogen generator is used as a burner, as disclosed in US patent application A'I/1797, the discharge pipe 25 is connected directly to the nozzle 40 and a flame 45 is lit. The operation of the gas burner is the same in the present invention as in the application.

A magnetizing element 30 with magnetic poles 32, 34 is arranged in the discharge pipe 25. The magnetized member 30 is a non-magnetic discharge pipe 2 A permanent magnet or an electromagnet may be used as long as the magnetic field 36 can be formed across the magnet. The magnetic field 36 magnetizes the gas emitted from the chamber 23. Hydrogen particles are positively magnetized, The oxygen particles become negatively magnetized and a magnetized gas mixture is formed.

A loop-shaped non-magnetic tube 50 is connected to the discharge tube 25 adjacent to the magnetized member 30 . This loop-shaped non-magnetic tube 5 0 can be any of the configurations described in the aforementioned US patent application. The non-magnetic tube 50 At the other end, a pipe 35 to the burner assembly 40 and a return pipe 42 to the chamber 23 are connected via a Y-connection. As mentioned above, the inside of the chamber 23 is maintained at a predetermined pressure, and when that pressure is reached, gas particles are released into the exhaust pipe 25 at a considerable speed.

The pressurized and released gas particles are magnetized by the magnetizing member 3o and then passed through the loop-shaped non-magnetic tube 50.

A conductive wire 60a is wound around the non-magnetic tube 50 many times to form a coil 60. The number of turns and the size of the coil are related to the shape of the non-magnetic tube 50 and the magnitude of the current to be output. Magnetized gas particles flow through the non-magnetic tube 50 at high speed.

When the magnetized gas particles pass through the coil 6o, a current is induced in the coil 60 via the induced electromagnetic field. The current is used via terminals 70.72.

When a flame is requested from the command circuit 65 (eg, for heating), the valve 47 is opened and the mixed fluid is directed to the nozzle 40 where it is ignited and produces the flame 45.

Once the command is satisfied, the valve 37 is closed and the gas mixture is returned to the chamber 23 through the return pipe 42 forming a closed loop. At this time, the pump 45 is driven and the gas is continuously circulated in the closed loop. Check valve 49 prevents gas from entering return pipe 42 when pump '7' 45 is stopped. Pressure gauge 55 When the pressure inside the chamber 23 detected by is at a predetermined pressure, the voltage supply from the power source 16 is cut off and gas generation is stopped.

FIG. 2 shows an embodiment of the present invention.

In this embodiment, the pump 45 in FIG. 1 is replaced by a particle accelerator 46. This particle accelerator 46 is a non-mechanical device with no moving parts and is free from wear problems. As mentioned above, hydrogen and oxygen are magnetized. Therefore, when the magnetized gas approaches the accelerator 46, it is attracted to the accelerator 46, and as it passes through its center, it is accelerated and sent out.

Propulsion means other than pump 45 in FIG. 1 and accelerator 46 in FIG. 2 may be used.

The volume of hydrogen and oxygen determined by the volume of chamber 23 and their pressure determine the strength of the magnetic field.

The higher the pressure, the higher the velocity of the gas (and therefore the higher the voltage/current output).

The induced current/voltage at the output terminals 70, 72 can be direct current or alternating current as described in the aforementioned US patent application. The device shown in FIG. 2 includes a parallel coil 74 for direct current and a series coil 75 for alternating current.

The number of coils 74a to 7'4n of the DC coil 74 determines the pulsation frequency and amplitude of the DC voltage.

Similarly, the number of turns of the conducting wires 75a to 75n of the AC coil 75 determines the frequency and amplitude.

The pulsating frequency of the DC voltage in the coil 74 and the frequency of the AC voltage in the coil 75 can be changed or controlled. That is, the frequency is a function of the number of turns in the coil multiplied by the gas speed per second. The velocity of the gas can be varied by varying the magnetic field, which is varied by varying the pressure of the gas within chamber 23.

Furthermore, it has been found that as the pressure of the gas within chamber 23 increases, the velocity of the gas increases exponentially. An arithmetic increase in the pressure of the emitted gas will geometrically increase the frequency and amplitude of both the voltage output from the DC coil 74 and the voltage output from the AC coil.

Although it is necessary to increase the gas velocity (pressure) to increase the output voltage, it may be undesirable to increase the amount of hydrogen generated. For example, this is the case where the flame 45 is burned by controlling the components of the air-fuel mixture.

Increasing the amount of hydrogen increases the combustion temperature of the mixture and increases the velocity of the gas. The efficiency of the flame is also proportionally affected unless it is extinguished.

Therefore, in order to increase the pressure of the gas in the chamber 23, Non-combustible side bodies 21a to 21n, such as nitrogen, are added to the air-fuel mixture from pressurized introduction means.

[Brief explanation of the drawing]

FIG. 1 is a schematic diagram showing an apparatus according to an embodiment of the present invention, and FIG. 1 is a schematic diagram showing an apparatus according to a third embodiment of the present invention. 10...Hydrogen generator, 12...Water, 14...Plate, 15... Housing, 23... Chamber, 25 ...Discharge pipe, 30... Magnetization member, 40...Bar 1--160.74.75... ···coil. Figure 1

Claims

Claims: (1) A housing comprising a water container containing natural water and a gas collection chamber holding a predetermined volume of gas under processing, a pair of similar containers positioned within the water container; a non-oxidizing plate; a DC voltage/current source read directly across the pair of non-oxidizing plates to exert a subatomic action on the water to dissociate hydrogen and acid plasma atoms from the water molecules; a gas outlet of the chamber; a non-magnetic sex tube through which magnetic field lines pass, one end of which is connected to the non-magnetic sex tube; It consists of magnetizing means for charging hydrogen atoms and oxygen atoms released under pressure from the gas outlet, and an induction coil wound on the non-magnetic 1, Lines of magnetic flux of the magnetized gas passing through the duct and across the induction coil are adapted to induce a current voltage within the induction coil, and the coil uses the induced voltage/current. A hydrogen and oxygen generation power generation device, characterized in that it is provided with means. (2) The device according to claim 1, wherein means for using the generated hydrogen-oxygen mixture is connected to the other end of the non-magnetic tube. (3) The other end of the non-magnetic tube is connected to a nozzle equipped with a spout for spouting the air-fuel mixture and an ignition means for igniting the spouted air-fuel mixture, and the nozzle has a predetermined size and shape. An apparatus according to claim 1, characterized in that it comprises: (4) The apparatus according to claim 1, further comprising means for maintaining the pressure of the gas in the chamber at a predetermined pressure. (5) a pressure gauge for determining the pressure within the chamber; switch means connected to the DC voltage/current source to stop the generation of hydrogen and oxygen when the pressure in the chamber reaches the predetermined pressure. The device according to scope 1. (6) The device according to claim 1, further comprising a gas conduit connected to the other end of the non-magnetic tube and the channel to form a closed loop. (Force) A gas conduit connected to the other end of the non-magnetic tube and the chamber to form a closed loop; 8. The device according to claim 7, further comprising means for circulating the gas through the non-magnetic tube.(8) A gas connected to the other end of the non-magnetic tube and the chamber to form a closed loop. The device according to claim 1, comprising: a pipe line; and a one-way valve connected to the end of the gas pipe line on the chamber side. (9) A gas pipe line; 2. The apparatus of claim 1, further comprising a gas usage means and a Y-shaped liner for selectively connecting the gas conduit with the gas usage means in a closed loop configuration. (10) a gas conduit, a gas usage means, a Y-shaped wire selectively connecting the gas conduit to the gas usage means and the chamber in a closed loop configuration, a two-way valve means, and a Y-shaped wire connected to the valve means; , further comprising a command circuit for selectively connecting the gas pipe to the gas using means and the chamber in response to a predetermined condition. Apparatus described in section. (11) a gas generator housing comprising a gas collection chamber for holding a predetermined volume of gas under pressure, an outlet means connected at one end to the chamber, a non-magnetic member connected to the other end of the outlet means; a tube, magnetizing means disposed adjacent to the outlet means between the chamber and the non-magnetic tube and magnetizing the gas pumped from the outlet means; an induction coil wound on the non-magnetic tube; and voltage or current using means connected to the induction coil, such that a current/voltage is induced when the magnetic field lines of the magnetized gas cross the induction coil through the magnetic tube. A gas generating power generation device characterized by: (121) The device according to claim 1, wherein the gas is a combustible gas, and means for using the combustible gas is connected to the other end of the non-magnetic tube. α3 2. The device according to claim 1, wherein the induction coil has a plurality of windings wound in parallel, and the induced voltage/current is unipolar. α4) The device according to claim 1, wherein the induction coil has a plurality of windings connected in series, and the induced voltage/current is alternating current. (151) The device according to claim 1, characterized in that the coil consists of a plurality of windings, and the frequency of the induced voltage/current depends on the number of windings. 16) The device according to claim 1, further comprising means for changing the output frequency of the voltage/current induced in the induction coil by changing the pressure of the gas in the chamber. (lη) comprising means for changing the amount of gas generated to change the pressure of the gas in the chamber, thereby changing the output frequency of the voltage/current induced in the induction coil. Apparatus according to claim 1, wherein a non-combustible gas is added to the chamber to change the gas pressure in the chamber, thereby increasing the voltage/current induced in the induction coil. Claim 1 is characterized in that it comprises means for changing the output frequency of the The device described in /. A return pipe means is provided in the non-magnetic tube to return the magnetized gas to the chamber, and means is further provided for circulating the gas through the chamber, the non-magnetic pipe and the return pipe means. Device according to claim 1, characterized in that: (20) A particle accelerator, wherein the non-magnetic tube is provided with return pipe means for returning the magnetized gas to the chamber, and the gas is further circulated through the chamber, the non-magnetic pipe, and the return pipe means. The device according to claim 1, characterized in that it is provided with:.