Hydrogen activation / ionization promotion device having fingerprint-type panel laminated structure

Abstract

The utility model relates to a hydrogen activation / ionization promotion device with a fingerprint-type panel laminated structure, which comprises a shell part, a gas flow-in tube, a gas flow-out tube, a gas flow-out tube, a gas flow-out tube, a gas flow-out tube, a gas flow-out tube, a gas flow-out tube and a gas flow-out tube, a gas discharge cylinder which is communicated with the accommodating space and is connected with the hydrogen fuel cell stack is formed at the other end; and a fingerprint panel part, comprising a first fingerprint type panel module and a second fingerprint type panel module, wherein the first fingerprint type panel module and the second fingerprint type panel module are provided with sharp concave-convex circular peaks and sharp concave-convex circular valleys of a plurality of fingerprint type panels which are formed in a concentric circle shape from the center to the outer side direction, and a plurality of connecting holes are formed in one end and the other end of the first fingerprint type panel module and the second fingerprint type panel module; the clamping module comprises a plurality of overlapping holes and is clamped between the first fingerprint type panel module and the second fingerprint type panel module in a manner that the overlapping holes are overlapped with the connecting holes, the first fingerprint type panel module is connected with the positive electrode of the power supply device, and the second fingerprint type panel module is connected with the negative electrode of the power supply device.

Description

Technical Field

[0001] This utility model relates to a device installed between a hydrogen fuel cell stack and a hydrogen supply device. Before hydrogen is supplied to the fuel cell stack, it activates or ionizes hydrogen to a high energy level under a high-density electric flux before injection. This device achieves ionization by absorbing less energy in the existing hydrogen fuel cell's ionosphere, thereby improving ionization efficiency. This physically assisted activation / ionization process is a technology related to turbocharging / boosting devices, enabling more efficient generation of large amounts of electricity in hydrogen fuel cell stacks. Background Art

[0002] Over the past decade, South Korea's energy consumption has increased by more than 10% annually. This growth in energy consumption has led to a corresponding increase in greenhouse gas emissions. Currently, research and development of new renewable energy sources that can reduce greenhouse gas emissions is actively underway worldwide, and this developed product is poised to play a leading role in its diverse applications and applicability.

[0003] It is expected to be used in amplification systems for hydrogen fuel cells, solar energy, and various other forms of alternative energy, among the new renewable energy sources currently under active development. Hydrogen energy, in particular, has attracted considerable attention compared to other new renewable energy sources due to its advantages: it can be obtained by electrolyzing inexhaustible water, can generate energy by reacting it with air, can be produced through various methods, such as separating methane and natural gas, produces no pollutants, generates no noise during energy generation, has high energy generation efficiency, and can be applied to a wide range of power generation devices. Furthermore, hydrogen and oxygen, the source materials of hydrogen fuel cells, are both the most abundant elements on Earth. Therefore, research on hydrogen is particularly active compared to other new renewable energy sources.

[0004] However, most currently developed hydrogen fuel cells and the devices connected to them are limited by their inability to convert hydrogen energy into electrical energy at a higher efficiency than existing hydrogen fuel cells. They also have high operating temperatures and are unable to significantly amplify the hydrogen ionized / activated by the catalyst in the existing hydrogen fuel cell ionosphere, thus failing to maximize their efficiency.

[0005] [Patent Document 1] Korean Registered Patent No. 10-2200739 (Published on January 12, 2021) Utility Model Content

[0006] (1) Technical issues to be resolved

[0007] The problem to be solved by the present invention is that the hydrogen used in the hydrogen fuel cell stack is completely ionized (2H + +2e), only a part of it will be activated by various catalysts (H2 * ) and most of it remains unactivated, resulting in low overall power generation and, consequently, poor economic efficiency of hydrogen fuel cells. The present invention aims to provide a method that maximizes hydrogen activation while increasing the ionization rate, thereby efficiently generating electricity.

[0008] The problems to be solved by the present invention are not limited to the problems mentioned in the above content, and relevant practitioners will be able to further clearly understand other technical problems not mentioned through the following description.

[0009] (2) Technical solution

[0010] In order to achieve the above technical problems, the present invention provides a hydrogen activation / ionization promotion device with a fingerprint-shaped panel (hereinafter referred to as "fingerprint panel") laminated structure in various forms. As a structure installed between the hydrogen supply device A and the hydrogen fuel cell stack B, the ultra-high-density electric flux (Ultra-high density electric flux) formed inside the device can simultaneously ionize hydrogen (2H + +2e) and activated (H2) are then supplied to the hydrogen fuel cell stack, thereby making it easier and more efficient for hydrogen to be ionized in the existing hydrogen fuel cell stack and thereby increasing the power generation rate.

[0011] The hydrogen activation / ionization promotion device with a fingerprint panel stacking structure as described above includes: a shell portion having a receiving space formed therein, a gas inlet tube formed at one end thereof communicating with the receiving space and connected to a hydrogen supply device, and an activated / ionized hydrogen exhaust tube formed at the other end thereof communicating with the receiving space and connected to a hydrogen fuel cell; and a fingerprint panel portion including a first fingerprint type panel module and a second fingerprint type panel module having a plurality of circular peaks and circular valleys formed in a concentric circle shape from the center to the outside (the ends of the peaks and valleys are concentric circles with sharp concave and convex fingerprint shapes) and a plurality of connection holes formed at one end and the other end thereof, and a clamping module including a plurality of overlapping holes and clamped between the first fingerprint type panel module and the second fingerprint type panel module in a manner such that the overlapping holes overlap with the connection holes, the first fingerprint type panel module being connected to the positive pole of a power supply device and the second fingerprint type panel module being connected to the negative pole of the power supply device, thereby activating / ionizing hydrogen flowing between the first fingerprint type panel module and the second fingerprint type panel module.

[0012] The fingerprint panel's concentric, concave, and convex shape with sharp tips suppresses twisting and bending, both vertically and horizontally, and prevents electrical shorts between the positive and negative poles. The sharp blade shape creates a high-density linear electric flux and an extremely high electric field, making it easy to extract electrons from hydrogen atoms.

[0013] The first fingerprint panel module and the second fingerprint panel module may include multiple receiving grooves formed on one side and the other side. In addition, a fixing rod portion may be included that penetrates a connection hole formed on the first fingerprint panel module, an overlapping hole formed on the clamping module, and a connection hole formed on the second fingerprint panel module and fixes the first fingerprint panel module, the clamping module, and the second fingerprint panel module. In addition, one end is connected to the first fingerprint panel module and the other end is connected to the second fingerprint panel module. Because the electrons generated from the hydrogen ionized by the high-density electrical flux between the first fingerprint panel module and the second fingerprint panel module are generated before being injected into the fuel cell stack, they can be merged into the current generated by the original hydrogen fuel cell or charged into the auxiliary battery unit and used when needed. By repeating the above process N times, the overall power generation rate can be greatly improved.

[0014] (3) Beneficial effects

[0015] The utility model can provide ionized hydrogen (2H) to the hydrogen fuel cell after repeatedly activating / ionizing hydrogen to increase the activation energy of hydrogen.+ +2e) and high activation energy hydrogen (H2 * ), thereby enabling hydrogen fuel cells to generate more electricity. This utility model activates hydrogen to an ionized energy level of -1.5 to 0.0 eV using an ultra-high-density electric flux. Then, in the ionosphere of the hydrogen fuel cell stack, the energy required to ionize ground-state electrons from hydrogen atoms is applied to the activated hydrogen, allowing electrons to be easily released from the hydrogen, significantly increasing the hydrogen's ionization rate. This utility model can improve the power generation efficiency of a hydrogen fuel cell stack injected with ionized hydrogen, and utilizes physical methods, rather than chemical ones, to activate and ionize the hydrogen.

[0016] Furthermore, the utility model can integrate the electricity generated in the process of multiple activation and ionization of hydrogen into the electricity generated in the original hydrogen fuel cell structure, or store it in the battery and output it when needed. + +2e) and activated hydrogen (H2 * ) is amplified multiple times to increase the power generation rate.

[0017] As described above, all substances and materials in the internal structure of the present invention physically interact with pure (99.99999%) hydrogen, so corrosion / wear will not occur and the device can be used semi-permanently.

[0018] Furthermore, the present invention can be applied not only to automotive fuel cells, but also to construction machinery and marine equipment, such as forklifts and excavators, as well as internal generators in yachts, drones, salvage vessels, and passenger ships, thereby enhancing fuel cell performance. In other words, the present invention can be considered a turbocharger / booster device that improves the performance and efficiency of hydrogen cells by being applied to various devices utilizing hydrogen cells. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a block diagram illustrating the use of a hydrogen activation / ionization promotion device with a fingerprint panel stacking structure according to one embodiment of the present invention, by adding a turbo / promotion device to an existing hydrogen fuel cell system.

[0020] Figure 2 yes Figure 1 An oblique view of the overall appearance of the hydrogen activation / ionization promotion device with a fingerprint panel stacking structure.

[0021] Figure 3 It will Figure 2An oblique view of the hydrogen activation / ionization promotion device with a fingerprint panel stacking structure broken down into larger units.

[0022] Figure 4 This is a schematic diagram illustrating a fingerprint panel portion formed by stacking multiple fingerprint type panel modules with a certain interval between them.

[0023] Figures 5 to 7 Yes Figure 4 A schematic diagram of a side decomposition of the fingerprint panel part shown in FIG.

[0024] Figure 8 This is a schematic diagram illustrating a state where hydrogen flows into the interior of the fingerprint panel unit.

[0025] Figure 9 It will Figure 2 A stacked cross-sectional view of a hydrogen activation / ionization promotion device having a fingerprint panel stacked structure according to one embodiment of the present invention cut along line II'.

[0026] Figures 10 to 13 In the fingerprint panel stacking structure according to one embodiment of the present invention, the hydrogen is activated (b) or ionized (c) on the positive electrode by means of a strong high-density magnetic flux distribution (a) and an electric field strength to release electrons, and the hydrogen (2H + : Proton, acting as a strong point positive charge, easily absorbs electrons (d) from copper, which has a lower ionization energy than hydrogen, at the negative electrode (copper) and converts them to quasi-neutral, thereby repeatedly generating electricity multiple times, that is, repeatedly generating electricity N times (Point diagram). DETAILED DESCRIPTION

[0027] The advantages and features of the embodiments of the present invention will become more apparent through the description with reference to the accompanying drawings. However, the present invention, as further clarified by the drawings and description, is not limited to the embodiments disclosed below. The present invention shall be defined solely by and limited only by the claims.

[0028] Next, the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can have a more complete understanding of the present invention.

[0029] First, we will refer to Figure 1 A hydrogen ionization promoting device having a fingerprint panel stacking structure according to one embodiment of the present invention is briefly described.

[0030] Figure 1This is a block diagram illustrating the use of a hydrogen activation / ionization promotion device with a fingerprint panel stacking structure according to one embodiment of the present invention, by adding a turbo / promotion device to an existing hydrogen fuel cell system.

[0031] The hydrogen activation / ionization promotion device with a fingerprint panel stack structure can repeatedly activate and ionize the hydrogen supplied from the currently installed hydrogen supply device B when passing through the activation / ionization promotion device HIB, thereby increasing the overall hydrogen activation energy and supplying it to the hydrogen fuel cell stack B, thereby enabling the hydrogen fuel cell stack B to generate more electricity. The electricity generated during the power generation process can be integrated into the electricity generated in the existing hydrogen fuel cell, or charged into the auxiliary battery 11 and reused when needed.

[0032] As mentioned above, the present invention can ionize hydrogen (2H + +2e) and activated hydrogen (H2 * ) is repeatedly amplified multiple times and supplied to the hydrogen fuel cell stack B, thereby improving the power generation rate of the hydrogen fuel cell stack B. The hydrogen activation / ionization promotion device 1 having a fingerprint-shaped concave-convex panel stack structure with sharp ends as described above can be applied not only to fuel cells in automobiles, but also to engineering machinery and ships, such as forklifts, excavators, and internal generators for yachts, drones, salvage vessels, and passenger ships, thereby improving the performance of fuel cells.

[0033] Thus, the present invention can solve the problem of the existing hydrogen fuel cell stack B, namely, the problem of being unable to generate sufficient electricity using the supplied hydrogen.

[0034] Next, we will refer to Figures 2 to 3 The components constituting the hydrogen activation / ionization promotion device having the fingerprint panel laminate structure will be described in detail.

[0035] Figure 2 yes Figure 1 The overall appearance of the hydrogen activation / ionization promotion device with a fingerprint panel stacking structure is obliquely viewed. Figure 3 It will Figure 2 An oblique view of the hydrogen activation / ionization promotion device with a fingerprint panel stacking structure broken down into larger units.

[0036] The hydrogen activation / ionization promotion device 1 with a fingerprint panel stack structure includes a housing 10 and a fingerprint panel 20. The fingerprint panel 20 is a panel that activates and ionizes hydrogen. The hydrogen activation / ionization promotion device 1 with a fingerprint panel stack structure also includes an auxiliary battery 11. The housing 10, as described above, allows hydrogen flowing from the hydrogen supply device A to be activated and ionized within the channel within the hydrogen activation / ionization promotion device 1 before being injected into the hydrogen fuel cell stack B.

[0037] The housing portion 10 as described above may be composed of a housing module 110 having a receiving space 100 formed therein and a main body module 120 having a receiving space 100 formed therein and connected to the housing module 110. The housing module 110 and the main body module 120 may be formed as follows: Figure 2 as well as Figure 3 In this case, a cylindrical gas inflow cylinder 111 may be formed at one end of the outer cover module 110, and a cylindrical gas discharge cylinder 121 for discharging activated / ionized hydrogen may be formed at the other end of the main body module 120. An inflow screw module 1111 may be installed in the gas inflow cylinder 111 of the outer cover module 110 to smoothly inject hydrogen supplied from the hydrogen supply device A into the accommodation space inside the shell 10. The inflow screw module 1111 may be a module having various shapes with spiral blades.

[0038] Next, we will refer to Figures 4 to 8 The fingerprint panel portion will be described in more detail.

[0039] Figure 4 This is a schematic diagram illustrating a fingerprint panel portion formed by stacking multiple fingerprint type panel modules at a certain interval. Figures 5 to 7 Yes Figure 4 The fingerprint panel part is shown in the side exploded diagram. Figure 8 This is a schematic diagram illustrating a state where hydrogen flows into the interior of the fingerprint panel unit.

[0040] The fingerprint panel unit 20 can repeatedly activate the incoming hydrogen and increase the ionization rate by using externally applied DC power to generate a high-density electric flux. The fingerprint panel unit 20 can directly ionize the hydrogen flowing into it as it passes through the sharp bends and generate electricity. The remaining hydrogen increases its activation energy during the long rotation along the bends and convex and concave parts, and enters the hydrogen fuel cell stack B, where it is easily ionized, thereby improving the overall power generation efficiency.

[0041] The fingerprint panel unit 20 described above includes multiple fingerprint panel modules 210. The multiple fingerprint panel modules 210 include a first fingerprint panel module 211 connected to the positive terminal of an external power supply device and a second fingerprint panel module 212 connected to the negative terminal of the external power supply device. The fingerprint panel unit 20 described above comprises the first fingerprint panel module 122 and the second fingerprint panel module 211 stacked at regular intervals, forming a unique ultra-high-density electrical flux region. Both the first fingerprint panel module 211 and the second fingerprint panel module 212 include multiple sharp, concave-convex circular peaks 2101 arranged concentrically from the center outward, and sharp, concave-convex circular valleys 2102 formed between the multiple sharp, concave-convex circular peaks 2101. Furthermore, multiple connection holes 2103 are formed at one end and the other end. Furthermore, each of the first fingerprint panel module 211 and the second fingerprint panel module 212 includes multiple receiving slots 2104 formed on one side and the other side. The first fingerprint panel module 211 is configured on one side of the second fingerprint panel module 212 in the shape of an inverted second fingerprint panel module 212. At the same time, a clamping module 220 and a plurality of space forming modules 230 can be clamped between the first fingerprint panel module 211 and the second fingerprint panel module 212. A plurality of overlapping holes 221 can be formed in the clamping module 220, and the clamping module 220 is clamped between the first fingerprint panel module 211 and the second fingerprint panel module 212 in a manner that the plurality of overlapping holes 221 and the plurality of connection holes 2103 overlap respectively. In addition, the space forming module 230 is as shown in FIG. Figure 6 As shown, a portion is received in the receiving groove 2104 formed on the first fingerprint type panel module 211 , and the other portion is received in the receiving groove 2104 formed on the second fingerprint type panel module 212 .

[0042] In addition, the space forming module 230 is formed in multiple and supports the first fingerprint type panel module 211 and the second fingerprint type panel module 212, thereby preventing the first fingerprint type panel module 2111 and the second fingerprint type panel module 212 from sinking from one side toward the center and from the center to the other side, and preventing electrical short circuit by maintaining a certain distance.

[0043] The first fingerprint type panel module 211 and the second fingerprint type panel module 212 are separated by a certain distance through the space forming module 230. Figure 7 as well as Figure 8As shown, a spacing space D is formed between the first fingerprint type panel module 211 and the second fingerprint type panel module 212. Among them, space D is the main space for ionizing hydrogen due to the presence of the highest density electric flux, and the fingerprint concave and convex parts other than that are the main spaces for inducing activation. In addition, in the process of hydrogen passing straight through or rotating along the fingerprint concave and convex space through the space formed in the manner described above, it will obtain activation energy, and then ionize and generate electricity when it finally passes through space D, and finally move to the hydrogen fuel cell stack B. At this time, a connection hole 2103 formed on the first fingerprint type panel module 211, an overlapping hole 221 formed on the clamping module 220, and a connection hole 2103 formed on the second fingerprint type panel module 212 will overlap and be inserted as shown. Figure 4 The fixing rod 30 is shown to stably fix the plurality of first fingerprint type panel modules 211 and the plurality of second fingerprint type panel modules 212 .

[0044] The fixing rod 30 will be inserted into the connection hole 2103 formed on the first fingerprint type panel module 211 and the second fingerprint type panel module 212 and the overlapping hole 221 of the clamping module 220, so as to stably fix the first fingerprint type panel module 211, the clamping module 220 and the second fingerprint type panel module 212.

[0045] When multiple first fingerprint panel modules 211 and second fingerprint panel modules 212 are fixed and DC power is applied to the first fingerprint panel modules 211 and the second fingerprint panel modules 212, a high-density magnetic flux is generated between the first fingerprint panel modules 211 and the second fingerprint panel modules 212. Specifically, a high-density magnetic flux is generated between the sharp concave-convex circular peaks 2101 of the first fingerprint panel modules 211 and the sharp concave-convex circular valleys 2101 of the second fingerprint panel modules, and between the sharp concave-convex circular valleys 2102 of the first fingerprint panel modules 211 and the sharp concave-convex circular valleys 2102 of the second fingerprint panel modules.

[0046] At this time, by moving the first fingerprint type panel module 211 and the second fingerprint type panel module 212 to the left and right and up and down by a certain distance, various forms of magnetic flux can be induced into new shapes and higher efficiency can be achieved.

[0047] The various high-density magnetic fluxes described above can ionize the hydrogen flowing into the gap D between the first fingerprint panel module 211 and the second fingerprint panel module 212 and increase its activation energy. Specifically, the first fingerprint panel module 211 and the second fingerprint panel module 212 are connected to the negative electrode / positive electrode of an external DC power supply device to form an electric field. This ionizes a portion of the hydrogen flowing in from the hydrogen supply device A while increasing the activation energy of the remaining hydrogen, thereby improving the power generation rate of the entire hydrogen fuel cell stack.

[0048] The process of cationizing and neutralizing hydrogen by the electric field formed in the structure where the fixed rod portion 30 is integrated with the fingerprint panel portion 20 will be described in detail later.

[0049] Next, we will refer to Figures 9 to 13 The state of cationizing / neutralizing hydrogen by the hydrogen activation / ionization promotion device with a fingerprint panel stacking structure of the present invention and the process of charging the auxiliary battery unit during the process of ionizing hydrogen are specifically described.

[0050] Figure 9 It will Figure 2 A stacked cross-sectional view of a hydrogen activation / ionization promotion device having a fingerprint panel stacked structure according to one embodiment of the present invention cut along line II',

[0051] Figures 10 to 13 In the fingerprint panel stacking structure according to one embodiment of the present invention, the hydrogen is activated (b) or ionized (c) on the positive electrode by means of a strong high-density magnetic flux distribution (a) and an electric field strength to release electrons, and the hydrogen (2H + : Proton, acting as a strong point positive charge, easily absorbs electrons (d) from copper, which has a lower ionization energy than hydrogen, at the negative electrode (copper) and converts them to quasi-neutral, thereby repeatedly generating electricity multiple times, that is, repeatedly generating electricity N times (Point diagram).

[0052] A hydrogen activation / ionization promotion device 1 having a fingerprint panel stacking structure includes: a fingerprint panel unit 20, in which all fingerprint panel modules are cross-connected in a manner such that a first fingerprint panel module 211 is connected to a positive electrode of a DC power supply device and a second fingerprint panel module 212 is connected to a negative electrode of the power supply device, thereby ionizing hydrogen flowing between the first fingerprint panel module 211 and the second fingerprint panel module 212.

[0053] Next, the operation of the hydrogen activation / ionization promotion device 1 having a fingerprint panel laminate structure including the fingerprint panel unit 20 will be described in detail.

[0054] In the hydrogen activation / ionization promotion device 1 with a stacked fingerprint panel structure, while direct current is applied to the fingerprint panel unit 20 via an external power supply unit C, hydrogen is simultaneously supplied to the fingerprint panel unit 20 from a hydrogen supply unit A. At this point, the hydrogen injected from the hydrogen supply unit A is diffused widely and evenly throughout the housing space 100 of the housing unit 10 by the inflow screw module 1111, forming a spiral vortex. The multiple fingerprint panel units 20, which are loaded with power, form a high-density electrical flux, thereby ionizing / activating the hydrogen supplied from the hydrogen supply unit.

[0055] Specifically, if Figure 10 As shown, when direct current is applied to the fingerprint panel unit 20, a linear electric field (positive electric field) generated from the positive electrode is generated on the first fingerprint panel module 211, while a linear electric field (negative electric field) generated from the negative electrode is generated on the second fingerprint panel module 212, thereby forming a high-density electric flux between the first fingerprint panel module 211 and the second fingerprint panel module 212. The sharp linear electric field (positive electric field) generated from the positive electrode excites the hydrogen molecules (H2) by combining with the electrons in the hydrogen molecule (H2) with greater energy from the nuclear force. The linear electric field (negative electric field) generated from the negative electrode excites the hydrogen molecules by forming a card process with the shared electrons in the hydrogen molecules (H2) and causing the shared electrons to escape from the hydrogen molecules. At this time, the excited hydrogen will move toward the multiple sharp concave-convex circular peaks 2101 of the first fingerprint type panel module 211 connected to the positive electrode, and the electrons will escape from the sharp concave-convex circular peaks of the first fingerprint type panel module 211, thereby cationizing it (2H + At this time, the cationized hydrogen, i.e., protons, will quickly move toward the second fingerprint type panel module 212 connected to the negative electrode due to the strong repulsive force of the positive electrode electric field and the strong attractive force of the negative electrode electric field.

[0056] In addition, the cationized hydrogen (2H + ) will pass through the second fingerprint type panel module 212 again, and the copper pair electrons (2e -) absorbs (Field Emission Electron) and transforms into hydrogen molecules (H2), or neutral hydrogen, thereby generating additional current through the movement of electrons. At this point, the transformed hydrogen molecules (H2) will move again toward the first fingerprint-type panel module 211 connected to the positive electrode and become cationized. The cationized hydrogen will then move again toward the second fingerprint-type panel module 212 connected to the negative electrode and transform back into neutral hydrogen (H2). In other words, the hydrogen supplied from hydrogen supply device A will repeatedly generate electricity by continuously executing the above-described process: after being excited (excited), it will be ionized (ionized) and then neutralized (neutralized). Hydrogen that has undergone these ionization and neutralization states has high excitation energy and can smoothly and repeatedly generate electricity in the hydrogen fuel cell, thereby increasing power generation.

[0057] like Figure 11 As shown, the multiple fingerprint panel units 20 can transform the hydrogen (H2) supplied from the hydrogen supply device A into an excited state (Excited State, H2) through a strong negative / positive electric field. * ) → Ionized (2H + +2e) → Neutralized (H2), thereby extracting electrons from hydrogen (H2) (Field Emission Electron). In addition, as Figure 12 as well as Figure 13 As shown, the electrons extracted from the hydrogen will move to the auxiliary battery unit 11 and charge the auxiliary battery unit 11. Alternatively, the electricity generated in the fingerprint panel unit 20 can also be integrated into the power generation of the existing hydrogen fuel cell. * ) refers to hydrogen in a state where the activation energy is increased by the attraction / repulsion of the electric field and the energy level at which ionization can be easily achieved.

[0058] The hydrogen described above can realize the promotion process of improving the power generation efficiency of hydrogen fuel cells. + +2e) refers to the proton (Proton, H) that emits electrons under the action of the positive electrode electric field and becomes a positive electrode proton (Proton), which moves to the negative electrode with the help of electrostatic force. + ). In addition, neutralized hydrogen (H2) refers to the two protons (Proton, H + ) is formed by the absorption of two electrons by the electric field of a high-density positive point charge.

[0059] As mentioned above, the present invention transforms hydrogen into H2 and 2H by using the high-density electric field of the negative electrode / positive electrode.+ +2e, H2 * The system can transform hydrogen into three different states, thereby improving the performance of the hydrogen fuel cell stack B. Furthermore, by using electrostatic mechanics to deform hydrogen, a large amount of electricity can be generated and stored, either fed into existing power generation or used later after charging the auxiliary battery. Furthermore, the present invention can store the electricity generated during the process of transforming hydrogen into various states in the auxiliary battery unit 11 and later load it into the fingerprint panel unit 20, thereby improving the driving efficiency of the fingerprint panel unit.

[0060] While the embodiments of the present invention have been described above with reference to the accompanying drawings, it should be understood by those skilled in the art that the present invention may be implemented in other specific forms without altering its technical concept or essential features. Therefore, the embodiments described above should be considered in all respects as illustrative rather than restrictive.

[0061] Description of reference numerals:

[0062] 1: Hydrogen activation / ionization promotion device with fingerprint panel stacking structure

[0063] 10: Shell

[0064] 11: Auxiliary battery department

[0065] 100: Containment Space

[0066] 110: Cover module

[0067] 120: Main module

[0068] 111: Gas flows into the cylinder

[0069] 121: Gas discharge barrel

[0070] 1111: Flowing into the screw module

[0071] 20: Fingerprint panel

[0072] 210: Multiple fingerprint panel modules

[0073] 2101: Sharp, concave, and convex round peaks

[0074] 2102: Sharp, concave, and round valleys

[0075] 2103: Connection hole

[0076] 2104: Storage Tank

[0077] 211: The first fingerprint panel module

[0078] 212: Second fingerprint panel module

[0079] 220: Clamping module

[0080] 221: Overlapping holes

[0081] 230: Space Formation Module

[0082] 30: Fixed rod

[0083] A: Hydrogen supply device

[0084] B: Hydrogen fuel cell stack

[0085] C: External power supply unit

[0086] D: Intermediate space

Claims

1. A hydrogen activation / ionization promotion device having a fingerprint-type panel stacking structure, characterized in that: The hydrogen activation / ionization promotion device installed between the hydrogen supply device (A) and the hydrogen fuel cell stack (B) includes: A housing portion (10) is formed with a housing space (100) therein, a gas inlet tube (111) communicating with the housing space (100) and connected to a hydrogen supply device (A) is formed at one end, and a gas outlet tube (121) communicating with the housing space (100) and connected to a hydrogen fuel cell stack (B) is formed at the other end; and The fingerprint panel unit (20) comprises a first fingerprint panel module (211) and a second fingerprint panel module (212) each having a plurality of sharp concave-convex circular peaks (2101) and sharp concave-convex circular valleys (2102) formed in a concentric circle shape from the center to the outside and a plurality of connection holes (2103) formed at one end and the other end, and a clamping module (220) comprising a plurality of overlapping holes (221) and clamped between the first fingerprint panel module (211) and the second fingerprint panel module (212) in a manner that the overlapping holes (221) overlap with the connection holes (2103). The first fingerprint panel module (211) is connected to the positive electrode of a power supply device, and the second fingerprint panel module (212) is connected to the negative electrode of the power supply device, thereby activating / ionizing hydrogen flowing between the first fingerprint panel module (211) and the second fingerprint panel module (212).

2. The hydrogen activation / ionization promotion device having a fingerprint-type panel stacking structure according to claim 1, characterized in that: The first fingerprint type panel module (211) and the second fingerprint type panel module (212) include: A plurality of receiving grooves (2104) are formed on one side surface and the other side surface.

3. The hydrogen activation / ionization promotion device having a fingerprint-type panel stacking structure according to claim 1, characterized in that: include: The fixing rod (30) passes through a connection hole (2103) formed on the first fingerprint type panel module (211), an overlapping hole (221) formed on the clamping module (220), and a connection hole (2103) formed on the second fingerprint type panel module (212), and fixes the first fingerprint type panel module (211), the clamping module (220), and the second fingerprint type panel module (212).

4. The hydrogen activation / ionization promotion device having a fingerprint-type panel stacking structure according to claim 2, characterized in that: One end is connected to a first fingerprint type panel module (211) and the other end is connected to a second fingerprint type panel module (212), and an auxiliary battery unit (11) is connected that is charged by means of power generated and loaded in the first fingerprint type panel module (211) and the second fingerprint type panel module (212).

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