KR20120005230A - Hydrogen and oxygen produce mechanism - Google Patents

Abstract

PURPOSE: A high-output hydrogen and oxygen generating device using electromagnetic field is provided to make more powerful combination than hydrogen with disordered torque in an electrolysis process and ensure high-output energy efficiency with high heat and explosion. CONSTITUTION: A high-output hydrogen and oxygen generating device using electromagnetic field comprises an insulating case(10), a plurality of electrode plates(12), and an electromagnetic-field forming unit(18). A space to hold electrolyte is formed in the insulating case. The electrode plates are arranged in the insulating case at regular intervals. The electrode plates are arranged on the central part of electromagnetic field. The electrode plates are arranged to be influenced by electromagnetic field regardless of the direction of electromagnetism. The electromagnetic-field forming unit forms electromagnetic field along the electrode plates.

Description

High power hydrogen and oxygen generator using electromagnetic field {Hydrogen and Oxygen Produce mechanism}

In the present invention, the hydrogen and oxygen generating device using electrolysis fills an electrolyte solution (water + electrolytic catalyst) between an electrode plate and an electrode plate, and then flows an electric current to decompose and collect water into hydrogen and oxygen, which can be utilized as energy, to collect hydrogen and oxygen. In more detail, the present invention relates to a generator for obtaining the present invention. More specifically, the apparatus includes a permanent magnet, an electromagnet, or an induction coil that forms an electromagnetic field (field, magnetic field, field), and installs a hydrogen and oxygen gas generator in the installed electromagnetic field. Therefore, the present invention relates to a high output hydrogen and oxygen generator using an electromagnetic field, so that when the generated hydrogen and oxygen gas are recombined (exploded), a more powerful energy can be obtained than the instantaneous energy of the method in which the existing hydrogen and oxygen gas are combined and diverged. .

Electrolysis methods are known in which water is decomposed into hydrogen and oxygen by supplying electrical energy above a certain level to obtain hydrogen and oxygen gas from water. This method generally adopts a method of filling an electrolyte (water + electrolytic catalyst) between an electrode plate and an electrode plate, and then flowing current to decompose and collect water into hydrogen and oxygen, which can be used as energy.

The electrolysis of water theoretically requires a standard potential difference of 1.23 V or more, but the potential drop in the electrolyte, the potential drop in the separator, the potential drop due to the electrical resistance on the electrode plate surface, and the effects of partial pressure of hydrogen gas and oxygen gas. Considering this, the potential difference required for the actual electrolysis is higher than 1.23V.

The production of hydrogen gas by electrolysis is a simple and widely known method. However, when generating hydrogen gas using high-grade energy such as electrical energy, a large amount of hydrogen gas can be obtained with as little electric energy as possible. High efficiency mechanism (Mechaniam) is required.

In the conventionally known water electrolysis device, a plurality of electrode plates are disposed in parallel in an insulating housing forming an exterior to form a plurality of reaction regions between the electrode plates and the electrode plates, and each of the reaction regions includes an electrolyte solution. By filling the (water + electrolytic catalyst) and supplying a current to the electrode plate, the device is configured so that water contained in the electrolyte can be decomposed into hydrogen and oxygen by an electrochemical reaction.

That is, when the electrolyte is filled between each electrode plate and current flows between them, the cations move to the cathode, and the anions move to the anode, causing various chemical changes on the surface of the electrode plate. Is generated. In this process, the temperature of the electrolyte solution present in each reaction zone increases, and a change in impedance occurs due to the difference in concentration of the electrolyte solution according to the gas generation rate.

Due to the change in impedance, the current density on the surface of the electrode plate is irregular, that is, the overcurrent overvoltage partially occurs, resulting in an extreme temperature rise and a significant decrease in efficiency.

The above phenomenon occurs not only in one reaction zone but also in a relationship between different reaction zones. In other words, if the impedance is incorrect, the energy density is inevitably changed, which results in energy deflection, which causes a serious potential difference and enormous energy loss.

In addition, in general, the water electrolysis device of the prior art will increase the temperature of the electrolyte in proportion to the operating time when operating for a long time. In this case, the decomposition efficiency is maximized in the predetermined elevated temperature range, but when the temperature rises above, the overall efficiency of the device decreases, such as the amount of hydrogen and oxygen gas generated is reduced compared to the input electrical energy. .

In other words, in the existing electrolysis method, the current is concentrated in a part of the pole plate, while in other parts, the current density is relatively decreased. As it is used to vaporize, it is the biggest cause of efficiency deterioration.

The technical problem to be solved by the present invention, by forming an electromagnetic field forming means for forming an electromagnetic field around the electrode plate, by changing the rotation direction of the atomic nucleus of hydrogen and electrons circulating outside by the electromagnetic field, electrolysis process In order to achieve a much more powerful bond than the disordered rotational power in the hydrogen, and to provide a high power hydrogen and oxygen generator using an electromagnetic field aimed at having a high output energy efficiency with high heat and explosion force.

Another technical problem to be solved by the present invention is to maintain a constant concentration of the electrolyte between one reaction zone formed between the electrode plates and the reaction zone and the other reaction zone, and thus to uniformly maintain the density of the current between the reaction zones. The present invention aims to provide a high power hydrogen and oxygen generator using an adjustable electromagnetic field.

Another technical problem to be solved by the present invention is to provide a high output hydrogen and oxygen generating apparatus using an electromagnetic field that can maintain a constant electrolyte temperature in the electrolysis process.

According to an aspect of the present invention for solving the above problems, the insulating case formed therein a space to accommodate the electrolyte; And a plurality of electrode plates spaced apart in parallel at regular intervals in the insulating case, wherein the electromagnetic field forming means for forming an electromagnetic field around the electrode plate is formed. And an oxygen generator.

Here, the electrode plate may be disposed in the center of the field of the electromagnetic field that is most affected by the electromagnetic field, and may be disposed inside the area of influence of the electromagnetic field regardless of the direction of the electromagnetic field.

In addition, the electromagnetic field forming means may be an induction coil.

In this case, the induction coil may be wound in a direction facing the electrode plate.

In addition, the induction coil may be wound in a direction parallel to the electrode plate.

The electromagnetic field forming means may be a magnetic module.

At this time, the magnetic module may be installed on the outer circumference of the direction facing the electrode plate.

In addition, the magnetic module may be installed on the outer circumference of the direction parallel to the electrode plate.

The magnetic module forming the electromagnetic field may be any one of an electromagnet, an induction coil, and a permanent magnet.

In addition, a connection terminal for connecting a pair of electrode plates located at the outermost side of the plurality of electrode plates to apply DC power may be installed, and the power applied from the connection terminal may be supplied to the electromagnetic field forming means.

In addition, a connection terminal may be provided such that the plurality of electrode plates are connected in parallel to receive an AC power, and the power applied from the connection terminal may be supplied to the electromagnetic field forming means.

In addition, an entrance and exit may be formed in the electrode plate so that the electrolyte may move to the reaction region between the other electrode plates.

In this case, the electrode plate may further include a shielding membrane which is present at a position spaced apart from the front of the entrance of the electrode plate to bypass the electrolyte to enter the entrance.

In this case, the positions of the entrance and exit of one electrode plate and another neighboring electrode plate may be different from each other.

In this case, the entrance and exit may be formed in the lower left or right corner region of the electrode plate.

In this case, each of the entrances and exits formed in the neighboring electrode plates may be present at positions spaced apart from each other in an oblique direction with respect to the electrode plate plane, and thus, the plurality of entrances may be alternately connected to each other when viewed from the plane.

At this time, the doorway formed in the electrode plate should ensure a distance of at least 1.2 times the horizontal distance (b) between the electrode plate in an oblique direction from the doorway formed in the neighboring electrode plate.

In this case, the width d of the entrance and exit may be formed to a width d within 5t of the electrode plate thickness t.

In addition, the shielding film should be formed with an area larger than three times the entrance area.

In addition, a pair of circulation pipes formed in the insulating case and circulating the electrolyte contained in the insulating case to the outside; And cooling means connected to the circulation pipe and the pipe and cooling the electrolyte solution circulated through the circulation pipe.

According to the high-power hydrogen and oxygen generator using the electromagnetic field according to the present invention, an electromagnetic field forming means for forming an electromagnetic field is formed around the electrode plate, and the rotation direction of the atomic nucleus of hydrogen and electrons circulating outside is changed by the electromagnetic field. By doing so, it is possible to achieve a much more powerful bond than the disordered rotational hydrogen in the electrolysis process, resulting in high output energy efficiency with high heat and explosive force.

In addition, according to an embodiment of the present invention, an entrance and exit is formed in the electrode plate so that the electrolyte filled in the reaction zone between the electrode plates can be circulated to another reaction zone, thereby forming one reaction zone and the reaction zone between the electrode plates. The concentration of the electrolyte between the reaction zone and the other reaction zone can be kept constant.

That is, due to the formation of the entrance and exit, the concentration of the electrolyte solution can be kept constant throughout the reaction zone divided into a plurality, and therefore, the impedance can also be kept constant throughout the reaction zone. If the impedance is kept constant, the voltage and current density are kept uniform on the surface of the electrode plate, and the effect of further improving the energy efficiency is exhibited throughout the apparatus.

In addition, according to an embodiment of the present invention, the electrolytic reaction is caused by the circulation of the electrolyte in the device due to the formation of the entrance and exit, the electrolyte is raised to a temperature higher than the appropriate level during the reaction is connected to the outside of the device through the circulation pipe Cooling to an appropriate level while circulating the cooling means.

Therefore, the electrolyte may be maintained at an appropriate temperature at all times without overheating in the electrolysis process, and the effect of compensating for and solving the problems of the prior art, such as a decrease in energy efficiency caused by the temperature rise above the appropriate level. It is also expressed.

1 is a perspective view schematically showing the configuration of the main part of the hydrogen and oxygen gas generator according to an embodiment of the present invention.
2 is a schematic plan view of the gas generator according to FIG. 1;
Figure 3 is a perspective view schematically showing the configuration of the main part of the hydrogen and oxygen gas generator according to another embodiment of the present invention.
4 is a plan schematic view of the gas generator according to FIG. 3;
Figure 5 is a plan view of the electrode plate for showing the electrode plate arrangement and the entrance arrangements applied to the embodiment of the present invention.
6 is a side view of the electrode plate according to FIG. 5;
7 is a schematic configuration diagram schematically showing the overall configuration of a gas generator according to an embodiment of the present invention.

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

1 to 4, the hydrogen and oxygen gas generator according to the present embodiment includes an insulating case 10, a plurality of electrode plates 12 spaced apart in parallel at regular intervals in the insulating case 10, An electromagnetic field forming means (18) for connecting to a pair of electrode plates (12) located at the outermost side of the plurality of electrode plates (12), and a connecting terminal (14) for applying direct current power to the electromagnetic field forming means (18). do.

In this case, the power connection terminal 14 is a power connection terminal for decomposing water, and any one of DC or pulsed DC or various power waves may be input to the terminal.

When the means for forming the electromagnetic field is not a permanent magnet, that is, an induction coil, a separate power supply device is located outside, and the form of power for forming the electromagnetic field may be direct current, but may be in the form of pulse or high frequency.

That is, in the present invention, it is important to arrange the induction coil and the permanent magnet for forming a strong electromagnetic field. In other words, when a strong electromagnetic system is formed and hydrogen and oxygen are produced inside such a field, they have the same spin direction.

The insulating case 10 corresponds to a component forming an external shape of the device, and forms a sufficient space therein to accommodate the electrolyte and the electrode plate 12. The insulating case 10 may be configured as an insulating material that does not conduct electricity or heat, such as plastic, due to the characteristics of the device, and has a pair of collecting holes 16 for collecting hydrogen and oxygen gas generated during the electrolysis process. do.

In the present embodiment, a case having a rectangular parallelepiped shape is shown as a preferred example of the insulating case 10. If the insulating case 10 is not only a rectangular parallelepiped shape but also a cylindrical or polygonal shape, the internal space is formed. It can be applied without regard to particular shapes and forms.

The electrode plate 12 is a key element that substantially causes the electrolysis reaction in the reaction space filled with the electrolyte, and in this embodiment, the plurality of electrode plates 12 are spaced apart in parallel at regular intervals in the insulating case 10. Between the electrode plate 12 and the other electrode plate 12 adjacent to each other, a reaction region in which the electrolytic solution existing therebetween can cause an electrochemical reaction is formed.

The pair of electrode plates 12 located at the outermost side of the plurality of electrode plates 12 is connected to an electromagnetic field forming means 18 which forms an electromagnetic field when a current flows, and the electromagnetic field forming means 18 is connected thereto. It is electrically connected to a connection terminal 14 for applying a DC power to the electrode plate 12.

Therefore, when an external current is input through the connection terminal 14, each of the electrode plates 12 becomes electrically active through the electrolyte filled between the electromagnetic field forming means 18 and the electrode plate 12.

At this time, the plurality of electrode plates 12 may be connected in parallel so that the connection terminal 14 is applied, and the power applied from the connection terminal 14 may be supplied to the electromagnetic field forming means 18. .

The electromagnetic field forming means 18 is to form an electromagnetic field around the electrode plate 12 according to an embodiment of the present invention, it may be such that the induction coil 18a as shown in Figs.

In this case, the induction coil 18a may be wound in a direction facing the electrode plate 12 as shown in the drawing, and although not shown in the drawing, the induction coil 18a is wound in a direction parallel to the electrode plate 12. May be

In addition, the electromagnetic field forming means 18 may be a magnetic module 18b as shown in FIGS. 3 and 4.

In this case, the magnetic module 18b may be any one of an electromagnet or a permanent magnet, and as shown in FIGS. 3 and 4, the magnetic module 18b is installed at an outer circumference in a direction facing the electrode plate 12. Although not shown in the drawing, the magnetic module 18b may be installed at an outer circumference in a direction parallel to the electrode plate 12.

In this case, the electromagnetic field forming means 18 as shown in FIGS. 1 to 4 may be supplied with the applied power from the connection terminal 14 which is connected to the electrode plate 12 and applies DC power.

According to an embodiment of the present invention, by forming an electromagnetic field in the electrolysis of water, hydrogen and oxygen gas generated in the electromagnetic environment are subjected to a strong electromagnetic field to affect the rotation direction of the atomic nucleus and electrons circling outside. do.

As such, when hydrogen and oxygen gas generated in the electromagnetic field are decomposed from the electrolyte by a strong electromagnetic force, the hydrogen bond or covalent bond breaks, and the direction of rotation of the electrons moving around the nucleus and the outside under the force of the electromagnetic field is changed. Constant and stable rotation is shown.

Hydrogen, which has a constant rotational direction, can achieve a much more powerful bond than hydrogen having disordered rotational force in the existing electrolysis process, and thus has high output energy efficiency with high heat and explosive force.

In the present embodiment, the electrode plate 12 may be spaced apart from each other in such a manner that both ends thereof are fixed to both sidewalls of the insulating case 10 without a separate holding means, but preferably inside the insulating case 10. By using an insulating holder (not shown) that is tightly fixed, it is easy to fix the plurality of electrode plates 12 spaced apart in parallel at regular intervals inside the case.

When using the insulating holder as described above, it is important to ensure more effective sealing between the electrode plate 12 as well as the insulation between the electrode plate 12, for this purpose urethane or which can satisfy the electrical insulation and sealability at the same time It is preferable to adopt an insulating holder made of silicon.

When the reaction space formed by spaced apart from the electrode plate 12 is formed as one closed independent space, the impedance due to the difference in concentration of the electrolyte according to the gas generation rate difference between the reaction zones during the electrolysis process as in the conventional problem described above ), And the current density on the surface of the electrode plate 12 may be irregular, that is, the overcurrent overvoltage may partially occur due to the change in impedance.

In this embodiment, the electrolyte solution present in the reaction zone between the electrode plates 12 is circulated to the reaction zone between the other electrode plates 12 so that the concentration of the electrolyte solution present in each reaction zone can be maintained uniformly. An entrance 120 is formed in the electrode plate 12.

FIG. 5 is a plan view of the electrode plate for showing the electrode plate arrangement and the doorway arrangement applied to the present embodiment, and FIG. 6 is a side view of the electrode plate according to FIG. 5.

5 to 6, each electrode plate 12 according to the present embodiment forms an entrance and exit 120 for circulation circulation of the electrolyte. In forming the inlet and outlet 120 in each of the electrode plates 12, the positions of the inlet and outlet 120 of the one electrode plate 12 and the other electrode plate 12 which are adjacent to each other are different, so that the electrolyte solution spreads throughout the reaction region. It is desirable to configure a high impedance state that allows the circuit to be evenly circulated over a long distance and increases the impedance to prevent electricity from passing through the entrance and exit through the mesopole plate.

In this case, considering the circulation of the electrolyte and the convection according to the temperature rise, it is preferable to form the entrance 120 in the lower left or right corner region of the electrode plate 12, as shown in FIG. As shown in the drawing, the entrances 120 formed in the neighboring electrode plates 12 may be configured to exist at positions spaced apart from each other in diagonal directions with respect to the plane of the electrode plates 12.

In this case, when the doorway 120 is configured to exist at a position spaced apart from each other in an oblique direction with respect to the electrode plate 12 plane, as shown in FIG. 5, the plurality of doorways 120 when the electrode plate 12 is viewed in plan view. Are alternately formed in a continuous configuration in alternating form (交互).

In the case where the inlet and outlet 120 of each electrode plate 12 are alternately arranged in a continuous form, specifically, the electrode plate 12 is formed on the electrode plate 12 when viewed in plan view as shown in FIG. 5. Preferably, the doorway 120 is formed at a point spaced diagonally at a distance of 1.2 or more of the horizontal distance b between the doorway 120 formed on the neighboring electrode plate 12 and the electrode plate 12. .

That is, the diagonal spacing distance a between the entrances and exits 120 formed in the electrode plate 12 is 1.2 times or more of the horizontal distance b spaced apart from each electrode plate 12 (a> (1.2 μb)). Should be maintained The reason is briefly described with reference to FIG. 3 as follows. Prior to description, the electrode plate 1, the electrode plate 2, and the electrode plate 3 will be referred to in order from the electrode plate on the left side in FIG. 3.

When current flows from the electrode plate 1 through the electrode plate 2 to the electrode plate 3 (or vice versa), all of the current flowing from the electrode plate 1 (or the electrode plate 3) is absorbed into the electrode plate 2 and thus becomes the next electrode plate. It moves to electrode plate 3 (or electrode plate 1). However, in the case of the electrolyte impedance in the initial state, since bubbles are generated on the surface of the electrode plate when the reaction starts, there is a phenomenon that a certain amount becomes larger during the reaction even though the solution flows smoothly.

As a result, the electrode plate 3 and the electrode plate 1 do not go through the electrode plate 2 through the relatively unreacted entrances (the lower side of the comparative impedance resistance), so that a current draw phenomenon occurs in which current flows directly. The phenomenon is concentrated in the doorway 12. In order to prevent this, when considering various variables as a whole, the diagonal distance (a) between the doorways 12 should be as large as possible, but if it is too large, the distance between the electrode plates will be greater, so a higher potential is required.

In this embodiment, the diagonal distance (a) between the entrances and exits 120 is 1.2 times or more than the horizontal distance b of the electrode plate 12, based on the concentration of about 2% of the electrolyte, and 1.2 times is the minimum distance. to be. If this distance is not kept to a minimum, the current draw in the reaction may be concentrated at the entrance and the bubble may be concentrated at the entrance, causing severe heat, which is a cause of the efficiency deterioration factor used to make the solution into water vapor. do.

In addition, in forming the doorway 120 in the electrode plate 12, the width d of the doorway 120 is formed to have a width d within 5t based on the thickness t of the electrode plate 12 (d). <5t) is preferable. When the width of the doorway 120 is 5 times or more than the thickness of the electrode plate t, even if the shielding film 13 (described below) exists in front of the doorway 120, a part of the current that must flow through the electrode plate 2 is passed through the doorway 120. This is because there is a risk of inflow through the.

When the electrolyte is moved from one reaction region between the electrode plates 12 to the other reaction region through the entrance and exit 120, the neighboring electrode plates 12 are electrically connected by the moving electrolyte so that a current may flow. In addition, due to the frictional resistance due to the rapid inflow of the electrolyte may be overheated around the entrance 120 intensively there is a concern that the temperature of the electrolyte is raised above the appropriate level.

To this end, it is preferable to install a shielding film 13 for bypassing the electrolyte and entering the entrance 120 at a position spaced a predetermined distance away from the front of the entrance 120 of the electrode plate 12. The shielding film 13 prevents intensive overheating around the entrance 120 due to rapid inflow of the electrolyte while preventing direct current from flowing between neighboring electrode plates 12 by the moving electrolyte.

As described above, in forming the shielding film 13, the shielding film 13 is formed at least at a larger area than the area of the doorway 120, as shown in FIG. 6, and the current flows directly into the neighboring electrode plate 12. In order to more effectively defend the flow to the water, it is preferable to adopt a shielding film 13 having an area three times larger than the area of the entrance 120.

In FIG. 1 and FIG. 3, reference numeral 20 denotes a pair of circulation tubes circulating the electrolyte contained in the insulating case 10 to the outside. The circulation tube 20 is to allow the electrolyte to circulate to the outside of the device to cool when the temperature rises above the appropriate level in the reaction process. A configuration in which the electrolyte is circulated to the outside and cooled is described below with reference to FIG. 7.

7 is a schematic configuration diagram schematically showing the overall configuration of a gas generator according to an embodiment of the present invention.

Referring to FIG. 7, the circulation tube 20 is formed in the insulating case 10 as shown in the drawing and circulates the electrolyte solution contained in the insulating case 10 to the outside. The circulation pipe 20 is again connected to the pipe 25, the pipe 25 forms a circulation path through which the electrolyte discharged to the outside of the insulating case 10 can be circulated.

Therefore, the high temperature electrolyte that reacts with the electrode plate 12 in the insulation case 10 to generate hydrogen and oxygen gas is circulated outside the insulation case 10 via the circulation pipe 20 and the pipe 25. Can be cooled to a level. In this case, the cooling means 30 may be provided on the circulation path by the pipe 25 in order to more efficiently cool the electrolyte.

The cooling means 30 may be adopted an air-cooled heat exchanger including a cooling fan as a heat exchanger generally known. However, in addition to this, any means capable of cooling the electrolyte solution through the circulation path to an appropriate level, such as a water-cooled heat exchanger using water, can be applied regardless of a specific shape or configuration.

In FIG. 7, P is installed on a circulation path formed by the circulation pipe 20 and the pipe 25 so that the electrolyte is continuously maintained along the cycle consisting of the insulation case 10 and the circulation path. Points to the pump for forced circulation.

The hydrogen and oxygen gas generating process performed through the hydrogen and oxygen gas generating device having the above-described configuration will be described in connection with the operation of the apparatus according to the present invention.

After filling the electrolyte solution (water + electrolytic catalyst) with a plurality of reaction zones formed between the electrode plate 12 and the electrode plate 12, the current is flowed to the electrode plate 12 through a connecting electrode. Will be done.

(-) Pole: 4H ₂ O + 4e- → 2H₂ + 4OH-

(+) Pole: 2H ₂ O → O₂ + 4H + + 4e-

Total reaction 2H ₂ O → 2H₂ + O₂

That is, the cathode is a reduction reaction in which hydrogen is generated by obtaining electrons from electrical energy, and the anode is an oxidation reaction in which electrons are generated.

In other words, when the electrolyte is filled between each electrode plate 12 and a current flows therebetween, the positive ions move to the negative electrode and the negative ions move to the positive electrode, causing various chemical changes on the surface of the electrode plate 12. Hydrogen and oxygen are generated in the form of gas such as droplets, and the generated hydrogen and oxygen gas are discharged out of the insulating case 10 through the collecting port 16 and moved to a separate collecting tank (not shown).

In the above process, the temperature of the electrolyte solution present in each reaction region between the electrode plate 12 and the electrode plate 12 is increased, so that each reaction region has a difference in concentration of the electrolyte solution in each region due to the gas generation rate difference. Can be.

In this embodiment, since the electrolyte is freely flowable between the electrode plate 12 and the electrode plate 12 through the entrance and exit 120, the concentration of the electrolyte solution between each reaction region filled with the electrolyte solution may be maintained uniformly. In this case, since the density of the voltage and the current between the electrode plates 12 is also uniformly adjusted, energy efficiency can be improved throughout.

On the other hand, the high-temperature electrolyte that the temperature is raised by reacting with the electrode plate 12 during the electrolysis process, the heat exchange device via the entrance 120 and the circulation pipe 20 and the pipe 25 formed in each of the electrode plate 12 Through the cooling means 30, such as to cool to an appropriate level and is provided back into the insulating case (10). Therefore, the electrolyte filled in the insulating case 10 is always maintained at an appropriate level of temperature, it is possible to prevent problems such as a decrease in the gas generation rate generated when overheated above the appropriate level.

As described above, according to the high-output hydrogen and oxygen generating apparatus using the electromagnetic field according to the present invention, the electrolyte solution filled in the reaction zone between the electrode plates 12 can be circulated and moved to another reaction zone. By forming the 120, the concentration of the electrolyte between one reaction region formed between the electrode plates 12 and the reaction region and the other reaction region can be kept constant.

That is, due to the formation of the inlet and outlet 120, the concentration of the electrolyte may be kept constant throughout the reaction zone, which is divided into a plurality, and therefore, the impedance may also be kept constant throughout the reaction region. If the impedance is kept constant, the voltage and current density are uniformly maintained on the surface of the electrode plate 12, so that the energy efficiency can be further improved throughout the apparatus.

In addition, since the entrance and exit 120 is formed in each of the electrode plates 12, the electrolytic reaction circulates inside the apparatus to cause an electrochemical reaction, and the electrolyte in which the temperature rises above an appropriate level in the reaction process is a circulation tube ( Cooling to an appropriate level while circulating the cooling means 30 connected to the outside of the device through 20).

Accordingly, during the electrolysis process, the electrolyte may be maintained at an appropriate temperature at all times without overheating, and problems of the related art, such as energy efficiency degradation caused by the temperature rise above the appropriate level, may be compensated for and resolved. .

In the foregoing detailed description of the present invention, only specific embodiments thereof have been described. It is to be understood, however, that the present invention is not limited to the specific forms referred to in the description, but rather includes all modifications, equivalents, and substitutions within the spirit and scope of the invention as defined by the appended claims. Should be.

10: insulation case 12: electrode plate
13: shielding film 14: connection terminal
16: collection port 18: electromagnetic field forming means
18a: Induction coil 18b: Magnetic module
20: circulation pipe 30: cooling means
120: entrance

Claims (19)

An insulation case having a space formed therein to accommodate the electrolyte; And a plurality of electrode plates spaced apart in parallel at regular intervals in the insulation case.
High-power hydrogen and oxygen generating apparatus using an electromagnetic field, characterized in that the electromagnetic field forming means for forming an electromagnetic field around the electrode plate.
The method of claim 1,
The electromagnetic field forming means is a high output hydrogen and oxygen generator using an electromagnetic field, characterized in that the induction coil.
The method of claim 1,
The electrode plate is disposed in the center of the electromagnetic field (field), high power hydrogen and oxygen generating apparatus using an electromagnetic field, characterized in that disposed within the sphere of influence of the electromagnetic field irrespective of the direction of the electromagnetic.
The method of claim 2,
High power hydrogen and oxygen generating apparatus using an electromagnetic field, characterized in that the induction coil is wound in a direction facing the electrode plate.
The method of claim 2,
High power hydrogen and oxygen generating apparatus using an electromagnetic field, characterized in that the induction coil is wound in a direction parallel to the electrode plate.
The method of claim 1,
The electromagnetic field forming means is a high power hydrogen and oxygen generator using an electromagnetic field, characterized in that the magnetic module.
The method of claim 6,
High-power hydrogen and oxygen generating device using an electromagnetic field, characterized in that the magnetic module is installed on the outer periphery in the direction facing the electrode plate.
The method of claim 6,
High-power hydrogen and oxygen generating device using an electromagnetic field, characterized in that the magnetic module is installed on the outer periphery in a direction parallel to the electrode plate.
The method of claim 6,
The magnetic module is a high-power hydrogen and oxygen generator using an electromagnetic field, characterized in that any one of an electromagnet or a permanent magnet.
The method of claim 1,
Using an electromagnetic field, characterized in that the connecting terminal for connecting the pair of electrode plates located at the outermost of the plurality of electrode plates to apply a DC power supply, the power applied from the connection terminal is supplied to the electromagnetic field forming means High power hydrogen and oxygen generator.
The method according to any one of claims 1 to 10,
The electrode plate has a high output hydrogen and oxygen generating device using an electromagnetic field, characterized in that the entrance is formed so that the electrolyte can be moved to the reaction region between the other electrode plate.
12. The method of claim 11,
And a shielding membrane which exists at a position spaced apart from the front and rear of the electrode plate by a predetermined distance, bypasses the electrolyte, and enters the entrance and exit.
The method of claim 12,
High-power hydrogen and oxygen generating apparatus using an electromagnetic field, characterized in that the entrance and exit positions of the one electrode plate and the other neighboring electrode plate are different.
The method of claim 13
The entrance and exit is a high-power hydrogen and oxygen generating device using an electromagnetic field, characterized in that formed in the lower left or right corner region of the electrode plate.
The method of claim 14,
Each of the entrances and exits formed in the neighboring electrode plates is located at a position spaced apart from each other in an oblique direction with respect to the electrode plate plane. High power hydrogen and oxygen generator.
16. The method of claim 15,
The outlet formed in the electrode plate is a high output hydrogen and oxygen generation using an electromagnetic field, characterized in that formed at a point spaced diagonally more than 1.2 times the horizontal distance (b) between the door and the gate formed in the neighboring electrode plate (b) Device.
17. The method of claim 16,
The width (d) of the entrance and exit, high output hydrogen and oxygen generating device using an electromagnetic field, characterized in that formed in the width (d) within 5t of the electrode plate thickness (t).
The method of claim 12,
The shielding film is a high-power hydrogen and oxygen generating device using an electromagnetic field, characterized in that the area is formed more than three times the area of the entrance.
The method of claim 12,
A pair of circulation pipes formed in the insulating case and circulating the electrolyte contained in the insulating case to the outside; And
A high power hydrogen and oxygen generating device using an electromagnetic field further comprising; cooling means connected to the circulation pipe and the pipe and cooling the electrolyte circulating through the circulation pipe.

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