KR101487244B1 - A combustion apparatus powered by the water mixed with hydrogen - Google Patents

Abstract

The present invention relates to a combustion apparatus which obtains power from water mixed with hydrogen gas and, more specifically, to a highly efficient and environment-friendly combustion apparatus which: directly burns combustion materials generated from an electrolysis unit if the temperature or combustion gas amount of a combustion unit is equal to or more than a predetermined level by having a heat pyrolysis unit and the electrolysis unit which decomposes water; and increases the generation of combustion materials by passing through the electrolysis unit and the pyrolysis unit if the temperature or combustion gas amount of the combustion unit is equal to or less than a predetermined level. The provided environment-friendly and economical combustion apparatus, which obtains power from water mixed with hydrogen gas, does not generate pollutants after a combustion by electrolyzing or pyrolyzing water.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a combustion apparatus for obtaining power from water mixed with hydrogen gas,

The present invention relates to a combustion apparatus for obtaining power from water mixed with hydrogen gas, and more particularly, to a combustion apparatus which includes an electrolysis section for decomposing water and a thermal decomposition section, And the like.

Fossil fuels are energy resources created by the remnants of organisms inhabited on the earth for a long time and can be regarded as providing a basis for the industrial revolution.

With the industrialization, the consumption rate and the necessity of fossil fuel are increasing day by day, but it is impossible to regenerate and there is always an unstable factor in price and supply due to the concentration of resources depending on the region.

In addition, after using fossil fuels, carbon dioxide and impurities such as nitrogen oxides and sulfur oxides are generated. These substances cause acid rain, respiratory diseases, and global warming.

For this reason, mankind not only reduces dependence on fossil fuels, but also strives for the development of alternative energy and clean energy that does not affect the environment and is not exhausted.

On the other hand, hydrogen can be obtained from water, does not produce pollutants even when burned, and has a high calorific value, making it a promising future energy source to replace fossil fuels.

However, there are difficulties in storing and transporting, and there is a risk of explosion. Therefore, studies for solving the problem are actively underway, and there is a problem in that it is costly to invest in facilities.

Generally, there is electrolysis as a method of obtaining hydrogen from water, but the amount of hydrogen that can be obtained is less than that of applied electric energy, which is a disadvantage inefficiency.

In order to solve this inefficiency, Korean Patent No. 10-1190934 (a combustion apparatus having a reforming unit for hydrogen production) has an injection unit into which a fuel containing hydrogen is injected, a combustion unit that burns the fuel injected from the injection unit, And a reforming unit for generating hydrogen by causing a reforming reaction of nitrogen by the combustion heat transferred from the combustion unit to generate a hydrogen, However, there is a problem in that incomplete combustion reaction can be performed using hydrogen nitrogen such as ammonia, and incidental pollution can occur.

Korean Patent No. 10-1190934 (combustion device having a reforming section for hydrogen production)

SUMMARY OF THE INVENTION An object of the present invention is to provide an environmentally friendly and economical combustion apparatus in which water is electrolyzed or thermally decomposed to generate no pollutants after combustion.

 Another object of the present invention is to provide a method of combusting a combustion material generated from an electrolysis unit immediately when the temperature of the combustion unit or the amount of combustion gas exceeds a certain standard, Thereby improving the efficiency of generating combustion materials.

It is still another object of the present invention to provide a combustion apparatus for increasing the contact area between an electrode body and water in order to promote the generation of hydrogen gas and generating ultrasonic waves and irradiating far infrared rays.

In order to achieve the above object, a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention comprises an electrolysis section for electrolyzing water to generate hydrogen and oxygen, And a water injection unit for supplying water to the electrolytic unit. The hydrogen supply unit supplies the water to the electrolytic unit.

In addition, it is preferable that the electrolytic cell further comprises a pyrolysis unit for pyrolyzing the first mixture moved from the first moving pipe and the first moving pipe for moving the first mixture contained in the electrolysis part, And a second moving pipe through which the at least one of the first mixture, the second mixture, and the hydrogen gas moves.

The hydrogen storage unit may further include a connection unit for connecting the hydrogen storage unit to the electrolysis unit and the thermal decomposition unit, a first connection pipe for connecting the connection unit and the hydrogen storage unit, and a connection unit for connecting the connection unit and the electrolysis unit. And a combustion unit connected to the second connecting pipe and the second moving pipe and burning at least one of the first mixture, the second mixture, and the hydrogen gas.

The first connection pipe includes a first control valve for controlling the inflow of hydrogen gas, and the second connection pipe includes a second control valve for regulating inflow of the first mixture, And a combustion control unit for controlling the temperature of the combustion gas and the amount of gas to be burned, wherein the first connection pipe and the second connection pipe are controlled by the combustion control unit.

In addition, the combustion unit may include a water discharge unit for discharging the water generated in the combustion unit. When the combustion unit is at a predetermined temperature or a constant combustion gas amount, the second mixture or the second mixture and the hydrogen gas supplied from the hydrogen storage unit And the first mixture is directly supplied from the electrolytic unit and burned if the combustion unit is at a predetermined temperature or a predetermined combustion gas amount or more.

The hydrogen storage unit includes a gas processing unit for collecting, coagulating, and discharging hydrogen gas generated by electrolysis and a gas backflow prevention valve for preventing backflow of hydrogen gas.

As described above, according to the combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention, there is provided an environmentally-friendly and economical combustion apparatus in which water is electrolyzed or thermally decomposed to generate no pollutants after combustion It is effective.

According to the combustion apparatus for obtaining power from the water mixed with the hydrogen gas according to the present invention, if the temperature of the combustion section or the amount of the combustion gas exceeds a predetermined standard, the combustion substance generated from the electrolysis section is immediately combusted, There is an effect of providing a highly efficient combustion apparatus that increases the efficiency of combustion by passing through the electrolysis section and the thermal decomposition section when the amount of combustion gas is below a certain standard.

In addition, according to the combustion apparatus for obtaining power from water mixed with the hydrogen gas according to the present invention, there is provided a combustion apparatus for increasing the contact area between the electrode body and water in order to promote the generation of hydrogen gas and generating ultrasonic waves and irradiating far infrared rays It is effective.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a block diagram showing the configuration of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention; FIG.
2 is a block diagram showing an operating system of a combustion device for obtaining power from water mixed with hydrogen gas according to the present invention.
3 is a sectional view showing the configuration of an electrolysis section of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention.
4 is a cross-sectional view showing a configuration of a pyrolyzing portion of a combustion device for obtaining power from water mixed with hydrogen gas according to the present invention.
5 is a sectional view showing a configuration of a hydrogen storage portion of a combustion device for obtaining power from water mixed with hydrogen gas according to the present invention.
6 is a cross-sectional view showing the configuration of a gas collecting portion of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention.
FIG. 7 is a cross-sectional view showing a gas condensing part and a gas discharging part of a combustion device for obtaining power from water mixed with hydrogen gas according to the present invention, according to the present invention. FIG.

Specific features and advantages of the present invention will be described in detail below with reference to the accompanying drawings. The detailed description of the functions and configurations of the present invention will be omitted if it is determined that the gist of the present invention may be unnecessarily blurred.

The present invention relates to a combustion apparatus for obtaining power from water mixed with hydrogen gas, and more particularly, to a combustion apparatus which includes an electrolysis section for decomposing water and a thermal decomposition section, And the like.

Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings.

Fig. 1 is a block diagram showing the construction of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention. Fig. 2 is a schematic view showing the operating system of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention FIG. 3 is a cross-sectional view showing the configuration of an electrolysis section of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention, and FIG. 4 is a cross- 5 is a cross-sectional view showing a configuration of a hydrogen storage portion of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention, and Fig. 6 is a sectional view showing the structure of a pyrolysis portion FIG. 7 is a cross-sectional view showing the configuration of a gas collecting part of a combustion device for obtaining power from water mixed with hydrogen gas according to the present invention. Sectional view showing a gas condensing portion and a gas discharging portion of a combustion device for obtaining power from mixed water.

1 is a block diagram showing the construction of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention. The combustion apparatus includes an electrolysis section 10 for electrolyzing water to generate hydrogen and oxygen, A pyrolysis unit 20 for pyrolyzing the generated gas to further generate hydrogen gas, and a combustion unit 50 for burning hydrogen and oxygen gas generated from the electrolysis unit and the pyrolysis unit.

More specifically, the electrolytic unit 10 receives water from the water injection unit 13 and performs electrolysis. In the electrolytic unit, hydrogen and oxygen gas and water that has not been decomposed by the electrolytic unit The first mixture 11 is produced.

At this time, since pure water does not pass electricity, electrolyte should be added together with water so that electricity can flow, and a substance having ionization tendency higher than hydrogen, such as sodium hydroxide and sodium sulfate, is used as an electrolyte.

Although not shown, the water injecting section 13 can separately control the amount of generated hydrogen and oxygen gas by separately providing a regulating valve for regulating the amount of water.

 The first mixture 11 passes through the first moving pipe 12 to the pyrolysis unit 20 and is further subjected to a process for generating hydrogen gas. The steam and hydrogen generated by the heat in the pyrolysis unit And a second mixture 21 containing oxygen gas are produced.

The second mixture 21 generated through the pyrolysis unit 20 and the electrolysis unit 10 moves to the combustion unit 50 along the second moving pipe 40.

The second moving pipe 40 is formed with a connecting portion 41 so that the electrolytic portion 10 and the thermal decomposition portion 20 are connected to the hydrogen storing portion 30. The first mixture 11 may be introduced.

The introduction of the hydrogen gas is performed by a first connection pipe 42 connecting the connection portion 41 and the hydrogen storage portion 30. The introduction of the first mixture 11 is performed by the connection portion 41, And a second connection pipe (43) connecting the electrolysis part (10).

The first connection pipe 42 is provided with a first control valve 421 for controlling the inflow of hydrogen gas and the second connection pipe 43 is connected to a second control valve 431 Is provided to control the movement of the hydrogen gas and the first mixture 11.

The combustion unit 50 includes a combustion control unit 51 that controls the temperature of the combustion unit and the amount of gas to be burned. The combustion control unit may control the first control valve 421 or The second control valve 431 is controlled to control the movement of the fluid.

The combustion unit 50 has a water discharge unit 52 for storing and discharging water generated after the hydrogen gas combustion.

Although not shown, the combustion unit 50 may include a thin tube having a high temperature and a high pressure to discharge water vapor, hydrogen, and oxygen gas produced through electrolysis or water decomposition, It would be desirable to have an oxygen supply for further supplying oxygen for combustion of hydrogen gas.

In general, air is required for combustion when burning. At this time, components such as nitrogen except oxygen in air cause pollution and heat loss.

On the other hand, when hydrogen and oxygen gas generated by decomposing water are burned, pollutants are not generated, and thus there is an eco-friendly effect.

In addition, hydrogen and oxygen gas have the advantage of high thermal efficiency by completely burning, and can become pollution-free energy to substitute for fossil fuels that have problems of depletion and environmental pollution.

FIG. 2 is a block diagram showing an operating system of a combustion apparatus that obtains power from water mixed with hydrogen gas according to the present invention. FIG. 2 is a graph showing the relationship between the combustion temperature of the combustion control unit and the amount of combustion gas, .

(a) shows the case where the combustion section is at a constant temperature or below a certain amount of combustion gas, and (b) when the combustion section is at a constant temperature or above a certain amount of combustion gas.

The combustion control unit 51 opens the first control valve 421 and controls the combustion of the hydrogen stored in the hydrogen storage unit 30 through the first connection pipe 42. [ Hydrogen gas is introduced.

More specifically, when the combustion unit 50 is at a predetermined temperature or below a predetermined combustion gas amount, the second mixture 21 (21) is supplied to the electrolysis unit 10 and the pyrolysis unit 20, And the hydrogen gas supplied from the hydrogen storage unit 30 to the second mixture alone or the second mixture is further sent to the combustion unit 50.

If the combustion unit 50 is at a predetermined temperature or a predetermined amount of combustion gas, the first mixture 11 is directly supplied from the electrolysis unit 10 and burned.

More specifically, the combustion control unit 51 opens the second control valve 431 of the second connection pipe 43 to move the first mixture to the second transfer pipe 40 through the second connection pipe do.

Therefore, the combustion apparatus for obtaining power from the water mixed with the hydrogen gas according to the present invention is characterized in that, in accordance with the combustion temperature required in the combustion section (50) and the amount of gas to be burned, An efficient and environmentally friendly combustion device can be provided by using the first mixture 11 directly as a combustion material or by using the second mixture 21 generated through both the electrolysis section and the pyrolysis section 20.

3 is a block diagram showing a configuration of an electrolysis section of a combustion apparatus for obtaining power from water mixed with a hydrogen gas according to the present invention. The electrolysis section 10 is configured such that water supplied from the water injection section 13 And an electrode body 16 mounted inside the electrolytic bath and having carbon nanotubes attached to its surface to electrolyze water.

The electrolytic bath 14 is provided with a water circulation pipe 14a through which water is circulated and a circulation pump 14b through which water is circulated to the inside of the water circulation pipe at one side of the water circulation pipe. A heat radiating plate 14c may be connected to one side of the water circulation pipe 14a so as to cool the circulating water supplied into the electrolytic bath 14.

That is, as the temperature of the water rises due to the generation of a lot of heat as the electrolysis progresses inside the electrolytic bath 14, water in the electrolytic bath is circulated through the water circulation pipe 14a and passes through the heat sink 14c Allows heat to escape to the outside.

In addition, the electrolytic bath 14 has a cylindrical structure having a space therein, and is made of a non-metallic insulating material, and the both side openings are sealed by the cover 18. [ The cover 18 is also made of an insulating material, and a plurality of bolts and nuts are fastened to the outer circumferential surface of the cover 18 so that the opened both ends of the electrolytic bath can not be opened arbitrarily.

The gas generating part 17 includes the electrode body 16 to electrolyze water to generate hydrogen and oxygen gas. More specifically, when a direct current is applied to the gas generating part, the (-) electrode and the (+ Hydrogen and oxygen gas are generated as the electrolysis occurs between the electrodes, and they are sent to the gas treatment unit (not shown) installed at one side of the electrolytic bath 14 to collect, coagulate and discharge the gas.

At this time, the current density of the electrode body can be increased more than when the electrode body 16 is not adhered to the electrode body 16 through adhesion of carbon nano, and the surface area of the inner or outer peripheral surface of the electrode body is widened, A groove, a projection, a grid pattern, a sponge shape, or a groove is formed.

  Although not shown, a voltage applying unit may be further included to apply a current to the gas generating unit 17, and the waveform of the applied voltage is preferably AC or square wave rather than DC.

This is because, as is well known in the art, the applied voltage waveform is higher in AC or square wave than in DC.

In addition, generation of ultrasonic waves and gamma rays can be irradiated when a voltage is applied to promote the generation of hydrogen and oxygen gas.

This is because the hydrogen or oxygen bubbles generated in the electrolysis process are adhered to the electrode body, causing an overvoltage phenomenon of the electrode plate, resulting in deterioration of the electrolysis efficiency. By applying ultrasonic vibration with a frequency of 30 to 50 kHz most effective for reducing the overvoltage, It is possible to prevent the electrolytic solution from adhering to the electrode body, thereby maximizing the electrolysis efficiency.

FIG. 4 is a block diagram showing a configuration of a pyrolysis unit of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention. The pyrolysis unit 20 includes a pyrolysis pipe 22 for thermally decomposing the first mixture, And a heat supply unit 23 for supplying heat to the pyrolysis pipe, and further includes an ultrasonic generator 24 and a far-infrared ray irradiating unit 25 so that thermal decomposition can be more actively generated.

The thermal decomposition unit 20 decomposes the first mixture (not shown) of the electrolysis unit (not shown) once more in order to further obtain hydrogen gas. At this time, the water vapor remaining in the thermal decomposition unit A second mixture 21 containing hydrogen and oxygen gas generated by thermal decomposition is produced.

When ultrasonic waves are applied to water, cavities of a micrometer size in a vacuum state are generated, and cavities are repeatedly generated (in several microseconds) and disappearing (popping phenomenon).

In this case, the generation of cavities is called cavitation. In general, the cavity has a high temperature of about 5000 degrees and a pressure of 1000 atmospheres, and it is known that a considerable shock wave and radical are generated when the cavity is blown.

Therefore, it is possible to shorten the heating time by heating the water in which the cavitation phenomenon occurs, rather than merely to heat the water, and to shorten the heating time, thereby reducing the size of the heating means for heating.

Further, the far infrared rays can be irradiated to the peripheral portion or a predetermined position of the thermal decomposition pipe 22 to promote the heat generation of water, thereby enhancing the thermal decomposition effect.

Far infrared rays are rays of invisible rays of 5 to 25 microns in infrared rays with longer wavelengths than visible rays. They penetrate deep into an object and have the property of easily vibrating the molecule of matter by self-heating.

Although not shown, hydrogen gas has a high ionization tendency and is maximally generated when it is combined with an acidic substance, and it is also preferable to inject a predetermined amount of an acidic substance into the pyrolysis unit 20.

At this time, the acidic substance to be added may be nitric acid, hydrochloric acid, sulfuric acid, and the like.

FIG. 5 is a cross-sectional view showing a configuration of a hydrogen storage unit of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention. The hydrogen storage unit 30 stores hydrogen generated in the electrolysis unit (not shown) Or a predetermined amount of hydrogen gas may be separately injected and stored.

The hydrogen storage unit 30 includes a gas treatment unit (not shown) for collecting, coagulating, and discharging hydrogen generated in the electrolysis unit and a gas backflow prevention valve 35 for preventing backflow of hydrogen gas. It is possible to more precisely control the supply of the fuel gas to ensure safety.

The gas processing unit (not shown) is installed at one side of the electrolysis unit and includes a gas collecting unit 32 for collecting hydrogen gas therein and a gas condensing unit 33 for supplying hydrogen gas through the supply pipe connected to the gas collecting unit And a gas discharging portion 34 connected to the gas agglomerating portion and discharging the coagulated hydrogen gas.

FIG. 6 is a block diagram showing the configuration of a gas collecting part of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention. The gas collecting part 32 is provided at one side of the electrolysis part (not shown) And hydrogen gas is trapped inside.

The gas collecting unit 32 includes a housing 320 fixed to an upper portion of the electrolysis unit and having a space formed therein, and a gas collecting unit 32 having a two-stage structure inside the housing, And a diaphragm 321 in which a guide hole 321b for guiding the flow of the hydrogen gas is formed on one side of the inclined surface.

A supply pipe 322 for supplying the hydrogen gas collected in the housing to the gas condenser (shown in FIG. 7) is connected to one side of the housing 320, and at one side of the supply pipe, A valve 323 is provided. Reference numeral 324 denotes a pressure gauge.

That is, the hydrogen gas can be collected not only by collecting the hydrogen gas through the diaphragm 321 having the two-stage structure and the guide hole 321b formed therein, but also by discharging the hydrogen gas.

FIG. 7 is a view showing a gas condensing part and a gas discharging part of a combustion apparatus for obtaining power from water mixed with hydrogen gas according to the present invention, wherein the gas condensing part 33 is a gas collecting part (not shown) And the hydrogen gas is supplied through the supply pipe 322 connected to the hydrogen supply pipe 322 to coagulate the hydrogen gas.

The gas agglomerating unit 33 includes a first agglomeration tank 330 to which hydrogen gas is supplied from the gas collecting unit (not shown) and a second agglomeration tank And a second flocculation tank 332 installed to surround the outside of the first flocculation tank 330. The second flocculation tank 332 is installed at a plurality of stages inside the second flocculation tank, A second porous plate 333 in which a through hole 333a is formed to allow hydrogen gas to pass therethrough and a gas conveyance pipe 334 connected to the first flocculation tank and extending to the lower portion of the second flocculation tank 332 . Reference numeral 335 denotes a pressure gauge.

As described above, the gas coagulation unit 33 has a dual structure of a coagulation tank and a perforated plate. The hydrogen coagulation unit 33 primarily coagulates the hydrogen gas in the first coagulation tank 330, 2 flocculation tank 332, and then passes through the second perforated plate 333 to be agglomerated secondarily.

That is, the gas agglomerating part 33 serves to agglomerate the hydrogen gas and to supply the hydrogen gas stably.

The hydrogen gas in the gas agglomerating portion 33 is injected into the first connecting pipe 42 through the gas discharging portion 34 and the hydrogen gas is injected between the gas discharging portion 34 and the first connecting pipe 42 A valve 35 is provided to prevent backflow of gas to secure safety against explosion and precisely control supply of hydrogen gas.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is evident that many alternatives, modifications and variations will be apparent to those skilled in the art without departing from the scope of the present invention. The scope of the invention should therefore be construed in light of the claims set forth to cover many of such variations.

10:
11: First mixture
12: first moving tube
13: water injection part
14: electrolytic bath
14a: Water circulation pipe
14b: circulation pump
14c: cover
16: Electrode body
17:
18: Heat sink
20: Pyrolysis unit
21: second mixture
22: Pyrolysis tube
23: Ultrasonic generator
24: far infrared ray irradiation part
30: hydrogen storage part
31:
32: gas collecting part
320: housing
321: diaphragm
321a: inclined surface, 321b: guide hole
322: Supply pipe
323: Valve
324: Pressure gauge
33:
330: First coagulation tank
331: First plate
331a: Through hole
332: Second coagulation tank
333: Second Perforation
333a: Through hole
334: Gas transfer pipe
335: Pressure gauge
34:
340: discharge pipe
341: Valve
342: Nozzles
35: Gas backflow prevention valve
40: second moving tube
41:
42: first connector
421: first control valve
43: second connector
431: Second control valve
50:
51:
52:

Claims (4)

A combustion device for obtaining power from water mixed with hydrogen gas,
An electrolysis unit for electrolyzing water to generate hydrogen and oxygen;
A first mixture comprising water, hydrogen, and oxygen gas in the electrolysis section;
A hydrogen storage unit for storing hydrogen generated in the electrolysis unit;
A water injection unit for supplying water to the electrolysis unit;
A first moving pipe for moving the first mixture contained in the electrolytic unit;
A pyrolyzing unit for pyrolyzing the first mixture moved from the first moving pipe;
A second mixture comprising water, hydrogen and oxygen gas in the pyrolyzing portion;
A second moving pipe through which at least one of the first mixture, the second mixture, and the hydrogen gas moves;
A connection part formed in the second moving pipe and connected to the hydrogen storage part, the electrolysis part and the pyrolysis part;
A first connection pipe connecting the connection portion and the hydrogen storage portion;
A second connection pipe connecting the connection unit and the electrolysis unit;
And a combustion unit connected to the second moving pipe and burning at least one of the first mixture, the second mixture, and the hydrogen gas
A combustion device for obtaining power from water mixed with hydrogen gas.
The method of claim 1, wherein
The first connector
A first control valve for regulating the inflow of hydrogen gas,
The second connection pipe
And a second control valve for controlling the inflow of the first mixture,
The burner
And a combustion control section for controlling the temperature of the combustion section and the amount of gas to be combusted,
Wherein the first connection pipe and the second connection pipe are controlled by the combustion control unit
A combustion device for obtaining power from water mixed with hydrogen gas.
The method according to claim 1,
The burner
And a water discharge portion for discharging water generated in the combustion portion,
The second mixture or the second mixture and the hydrogen gas supplied from the hydrogen storage unit are further burned if the combustion unit is at a constant temperature or a constant combustion gas amount,
Wherein the first mixture is directly supplied from the electrolysis unit and burned if the combustion unit is at a constant temperature or a predetermined amount of combustion gas,
A combustion device for obtaining power from water mixed with hydrogen gas.
The method according to claim 1,
The hydrogen storage
A gas processing unit for collecting, coagulating and discharging hydrogen gas generated by electrolysis;
And a gas backflow prevention valve for preventing backflow of hydrogen gas
A combustion device for obtaining power from water mixed with hydrogen gas.

Images