Hydrogen gas sucking device

Abstract

To provide a hydrogen gas sucking device capable of generating and sucking high concentration hydrogen gas easily and safely.SOLUTION: A hydrogen gas sucking device includes a first container in which water is stored, a second container communicated with the first container, and an openable and closable suction part communicated with the upper part of the second container. In a state that the sucking part is closed, hydrogen gas is generated in the second container by a chemical reaction of a hydrogen gas generation agent and water. The generated hydrogen gas pushes down the water level of the second container and pushes up the water level of the first container. The water level of the first container is lowered when the suction part is opened. The water level of the second container rises and the hydrogen gas accumulated in the second container is pushed out to the suction part, and the hydrogen gas that is pushed out is sucked.SELECTED DRAWING: Figure 1

Description

[Technical field]

[0001] The present invention relates to a hydrogen gas suction device that can easily and safely generate and inhale high-concentration hydrogen gas. [Background technology]

[0002] It is known that inhaling hydrogen gas causes the active oxygen in the body to turn into water and be expelled from the body, providing health benefits such as fatigue recovery and anti-aging effects.

[0003] Hydrogen gas suction devices such as cartridge type (Patent Document 1) and electrolysis type (Patent Document 2) have been developed and are in circulation. However, all of them have high initial costs and running costs. [Prior art documents] [Patent documents]

[0004] [Patent Document 1] Patent Publication 2019-42498 "Cartridge-type hydrogen gas suction device" [Patent Document 2] Patent Publication 2018-183527 "Electrolysis-type hydrogen suction device" Summary of the Invention [Problem to be solved by the invention]

[0005] SUMMARY OF THE PRESENT EMBODIMENT An object of the present invention is to provide a hydrogen gas inhalation device that can easily and safely generate and inhale high-concentration hydrogen gas. [Means for solving the problem]

[0006] In order to solve the above problems, the present invention provides: (1) a first container for storing water; A second container in communication with the first container; an openable and closable suction part communicating with an upper part of the second container; It consists of: With the suction unit closed, generating hydrogen gas in the second container by a chemical reaction between a hydrogen gas generating agent and water; The generated hydrogen gas pushes down the water level in the second container, Pushing up the water level of the first container; By opening the suction part, the water level of the first container is lowered, The water level in the second container rises and the hydrogen gas accumulated in the second container is pushed out to the suction part, The hydrogen gas that is pushed out is sucked in. Hydrogen gas suction device. (2) A first container is an outer water tank having an opening at an upper portion and configured to store water; a second container including an inner water tank that is inserted into the opening of the first container in a non-sealed manner and has a through hole drilled in a side surface of the container, and a cap that can be attached and detached to a top, side, or bottom surface of the inner water tank; a suction unit including a tube communicating with the second container and serving as a flow path for hydrogen gas, a stopper for controlling opening and closing of the tube, and a hydrogen gas discharge unit connected to the stopper; A presser that prevents the hydrogen gas generating agent charged in the second container from floating up; It consists of: Follow the steps below to inhale hydrogen gas: 1) After pouring water into the outer water tank, a cap is attached to the inner water tank with a pressure vessel to prevent the hydrogen gas generating agent from floating up, and the second container is inserted through the opening of the outer water tank, so that the water from the outer water tank flows into the inner water tank through the through hole of the inner water tank, and the hydrogen gas generating agent and water react chemically to generate hydrogen gas; 2) The hydrogen gas pushes the water surface of the inner water tank down to the through-hole and pushes the water surface of the outer water tank up, so that hydrogen gas accumulates in the inner water tank. 3) When the valve is opened, the water level of the outer water tank drops and the water level of the inner water tank rises, so that hydrogen gas in the second container is released from the outlet port. 4) The hydrogen gas discharged from the discharge portion is sucked in. Hydrogen gas suction device. (3) The hydrogen gas suction device described in (2) is characterized in that a second through hole is provided at the bottom of the inner water tank. (4) A first container is an upper water tank having an opening at an upper portion thereof for storing water; a connector for connecting to a bottom of the first container; a second container including a sewage tank having a through hole on a side surface thereof and connected to the other end of the connecting portion, and a cap detachable from the sewage tank; a suction unit including a tube communicating with the second container and serving as a flow path for hydrogen gas, a stopper for controlling opening and closing of the tube, and a hydrogen gas discharge unit connected to the stopper; A presser that prevents the hydrogen gas generating agent charged in the second container from floating up; It consists of: Follow the steps below to inhale hydrogen gas: 1) storing water in the sewer tank while preventing the hydrogen gas generating agent from floating up with a pressure vessel, attaching a cap, and generating hydrogen gas by chemically reacting the hydrogen gas generating agent with the water in the second container; 2) The hydrogen gas pushes the water level of the lower water tank down to the through-hole and pushes the water level of the upper water tank up, causing hydrogen gas to accumulate in the lower water tank; 3) When the valve is opened, the water level of the upper water tank drops and the water level of the lower water tank rises, whereby hydrogen gas in the second container is released from the outlet port. 4) The hydrogen gas discharged from the discharge portion is sucked in. Hydrogen gas suction device. (5) The hydrogen gas suction device described in (4) is characterized in that the first container and the second container are detachably fixed to a frame. The composition is as follows. Effect of the Invention

[0007] Since the present invention has the above-mentioned configuration, it is possible to provide a hydrogen gas suction device that can easily and safely generate and inhale high-concentration hydrogen gas. [Brief description of the drawings]

[0008] [Figure 1] 1 is a photograph of the assembled state of a first embodiment of a hydrogen gas suction device according to the present invention. [Diagram 2] 1 is a photograph of a first container of a hydrogen gas suction device according to a first embodiment of the present invention. [Diagram 3] 3 is a photograph of the first embodiment of the hydrogen gas suction device of the present invention, in which the second container, suction part, and presser are assembled. [Figure 4] 1 is a photograph of the first embodiment of the hydrogen gas suction device of the present invention with the suction part connected to the second container, the cap removed, and the presser placed outside. [Diagram 5] FIG. 2 is an explanatory diagram of the preparation for hydrogen gas generation in the first embodiment of the hydrogen gas suction device of the present invention. [Figure 6] This is a photograph of the first embodiment of the hydrogen gas inhalation device of the present invention, in which the second container in the state of FIG. 5 is inserted into the first container containing water, and the hydrogen gas generating agent is brought into contact with the water, generating hydrogen gas through a chemical reaction. [Figure 7] In the first embodiment of the hydrogen gas suction device of the present invention, the stopper is closed, the upper part of the second container is filled with hydrogen gas, the water level in the second container is pushed down, and the water level in the first container is rising. [Figure 8] 1 is a photograph of the state after the stopper is opened in the first embodiment of the hydrogen gas suction device of the present invention and hydrogen gas is sucked in. When the stopper is opened, water flows from the first container into the second container through the through-hole and the second through-hole, and the water pushes out the hydrogen gas accumulated in the upper part of the second container, causing the hydrogen gas to be released from the outlet. [Figure 9] An example of using a cannula as the discharge part is shown. [Figure 10] FIG. 11 is an explanatory view of another embodiment of the second container. [Figure 11] 1 is a general photograph of a second embodiment of the hydrogen gas suction device of the present invention. [Figure 12]4 is a front photograph of a second embodiment of the hydrogen gas suction device of the present invention. [Figure 13] 1 is a rear photograph of a second embodiment of the hydrogen gas suction device of the present invention. [Figure 14] 1 is a photograph showing the start of hydrogen gas generation in a second embodiment of the hydrogen gas suction device of the present invention. [Figure 15] 13 is a photograph showing the maximum accumulation state of hydrogen gas generation in the second embodiment of the hydrogen gas suction device of the present invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0009] The present invention will be described in detail below with reference to the accompanying drawings, but the present invention is not limited to the following examples. EXAMPLES

[0010] As shown in Figures 1-9, the hydrogen gas suction device 1 of the present invention comprises a first container 2, a second container 3, a suction part 4, and a presser 5. A hydrogen gas generating agent 7 is placed inside the second container 3, and water 6 and the hydrogen gas generating agent 7 chemically react to generate hydrogen gas 7b.

[0011] The hydrogen gas generating agent 7 reacts with room temperature water to hot water to generate hydrogen gas non-explosively. An example of the hydrogen gas generating agent 7 is a mixed metal powder containing a metal powder having a higher ionization tendency than Na. Other examples available on the market include a mixture of calcium oxide and aluminum powder.

[0012] As an example of the chemical formula for hydrogen gas generation, the hydrogen gas generation reaction by the reaction of calcium oxide (CaO), aluminum powder (A1), and water is expressed by the following chemical reaction formula. CaO + Al+ 5H2O → Ca(OH)2+ Al(OH)4+ 2H2↑

[0013] The first container 2 is made up of an outer tank 2a with an opening 2b at the top for storing water 6, a mark 2d on the outer tank 2a indicating the upper limit of the water 6, and a handle 2c if necessary. The outer tank 2a is preferably transparent so that the reaction status and the amount of stored water can be grasped. The mark 2d is a marker indicating the "upper limit" or written on it to alert the user. The handle 2c makes it easy to move.

[0014] The second container 3 is inserted into the opening 2b of the first container 2 in a non-hermetically sealed manner and is composed of an inner water tank 3a with a through hole 3b drilled in the side surface and a cap 3c that can be attached and detached to the upper part of the inner water tank 3a. The cap 3c is not limited to being attached to the top surface, but may also be attached to the side surface or bottom surface (see FIG. 10).

[0015] The outer diameter of the inner water tank 3a is smaller than the inner diameter of the opening 2b of the first container 2, and a gap is provided between the opening 2b and the inner water tank 3a. Hydrogen gas 7b generated and accumulated in the second container 3 passes through the through hole 3b, flows into the inside of the first container 2, and is further released into the atmosphere from the gap. This prevents the first container 2 from bursting due to the pressure of the hydrogen gas 7b.

[0016] The position of the through hole 3b is adjusted up or down depending on the amount of hydrogen gas required. If the through hole 3b is located too far below the inner water tank 3a, the amount of water 6 remaining in the inner water tank 3a will be too little.

[0017] In addition, a second through hole 3d is provided in the bottom of the inner water tank 3a (the side surface near the bottom below the through hole in the side surface or the bottom surface, here, the second through hole 3d is provided in the bottom surface). This allows the water 6 to be taken in and out at the bottom, making it easier to distribute and uniformly heat the reaction, and reducing deterioration of the container due to heating.

[0018] The suction unit 4 is connected to the inside of the second container 3 and is made up of a tube 4a which is a flow path for hydrogen gas 7b, a stopper 4c which controls the opening and closing of the tube 4a, and a discharge unit 4d for hydrogen gas 7b which is connected to the stopper 4c. Here, the suction unit 4 includes a joint 4b as a means for connecting the tube 4a to the second container 3, and is attached to the cap 3c. The joint 4b fits by pushing one end of the tube 4a, and the tube 4a can be easily pulled out by pushing the fitting portion.

[0019] The suction unit 4 may be an suction unit 8 equipped with a cannula 8a as shown in FIG. 9, instead of the discharge unit 4d.

[0020] The presser 5 prevents the hydrogen gas generating agent 7 placed inside the second container 3 from floating up. Here, a whisk is used, but there are no particular limitations on the device or structure as long as it is capable of preventing floating up.

[0021] By providing the outer water tank 2a of the first container 2, it is possible to suppress the temperature rise of the water 6 in the inner water tank 3a of the second container 3 due to heat generated during the reaction of the hydrogen gas generating agent 7. The water 6 stored in the outer water tank 2a plays the role of a valve that stores hydrogen gas 7b in the second container 3 and the role of releasing the increased hydrogen gas pressure. By setting a water level (mark 2d) in the outer water tank 2a, the suction of the reacted water inside the inner water tank 3a is prevented. By making the outer water tank 2a and the inner water tank 3a transparent, the water level and the hydrogen gas generating reaction can be visually observed. Since the outer water tank 2a and the inner water tank 3a can be separated, cleaning is easy. By arbitrarily selecting from different volumes of the outer water tank 2a and the inner water tank 3a, it is possible to store and suction a large amount of hydrogen gas 7b, or to make it a portable type that is small and easy to carry.

[0022] By providing the through hole 3b in the inner water tank 3a, the hydrogen gas 7b stored inside the second container 3 flows out from the through hole 3b into the outer water tank 2a and is further released into the atmosphere, the water level (water surface 3e) of the inner water tank 3a can be maintained in a state in which the hydrogen gas generating agent 7 is always immersed in the water 6, and hydrogen gas 7b can be generated continuously. If the through hole 3b in the inner water tank 3a is eliminated and only the second through hole 3d is provided, the water level of the inner water tank 3a will drop to the bottom of the inner water tank 3a as the volume of the hydrogen gas 7b stored in the second container 3 increases, and the hydrogen gas generating agent 7 will be exposed from the water 6, which will prevent the hydrogen gas reaction from proceeding efficiently. In addition, the contact part with the inner water tank 6a will become hot due to the heat of the hydrogen gas generation reaction, which may cause deformation or damage.

[0023] The second through hole 3d has the effect of homogenizing the reaction heat of hydrogen gas 7b by circulating water between the outer water tank 2a and the inner water tank 3a, and of allowing water 6 to flow from the outer water tank 2a to the inner water tank 3a in a short time. This allows hydrogen gas 7b to be released vigorously from the discharge part 4d, and the user of the device can inhale a large amount of high-concentration hydrogen gas 7b at once. Note that even if the second through hole 3d is not provided and only the through hole 3b is provided, it has the same function as the second through hole 3d, but its effect is weaker.

[0024] The balance between the water volume and water level (water surface 2e) of the outer water tank 2a and the capacity of the inner water tank 3a and the height position of the through-hole 3b is important to prevent the water 6 from being sucked in when the hydrogen gas 7b is forcefully sucked in, and these capacities and positions are selected appropriately.

[0025] If the inner tank 3a does not have the through hole 3b and the functional second through hole 3d, the accumulation of hydrogen gas 7b will cause the inner tank to burst under pressure. In a cannula type where the generated hydrogen gas 7b is constantly released and then sucked in, the device can function without the through hole 3b and the second through hole 3d on the side of the second container 3, but by having these openings, the present invention can be used with either the cannula type or the suction type where hydrogen gas 7b is accumulated and then sucked in all at once.

[0026] Hereinafter, the procedure for generating and suctioning hydrogen gas will be described with reference to Fig. 5 to Fig. 8. First, as shown in Fig. 5, water 6 is stored in the outer water tank 2a to the extent that the water surface 2e does not exceed the mark 2d. On the other hand, hydrogen gas generating agent 7 is placed in the inner water tank 3a, and then the cap 3c is attached in a state in which the hydrogen gas generating agent is prevented from floating up by the presser 5. Here, the cap 3c is screwed onto the upper part of the inner water tank 3a.

[0027] Next, as shown in Fig. 6, the second container 3 is inserted from the opening 2b of the outer water tank 2a. At this time, the plug 4c is closed. As a result, the water 6 in the outer water tank 2a enters the inner water tank 3a from the through hole 3b and further from the second through hole 3d, and the water 6 and the hydrogen gas generating agent 7 react chemically to generate hydrogen gas 7b. The presser 5 prevents the hydrogen gas generating agent 7 from floating up due to the buoyancy of the hydrogen gas bubbles 7a attached to the hydrogen gas generating agent 7.

[0028] 7, hydrogen gas 7b accumulates in the upper part of the second container 3, and pushes down the water surface 3e of the water 6 inside the second container 3 to the through-hole 3b. Accordingly, the water surface 2e of the outer water tank 2a of the first container 2 is pushed up. As a result, a height difference (H) occurs between the water surface 2e and the water surface 3e. The hydrogen gas 7b that exceeds the through-hole 3b leaks from the through-hole 3b into the outer water tank 2a, and is further released into the atmosphere from the gap between the opening 2b of the first container 2 and the second container 3, and the hydrogen gas 7b in the second container 3 is maintained at a constant amount. The hydrogen gas 7b inside the second container 3 does not accumulate below the through-hole 3b.

[0029] When this state is reached, sufficient hydrogen gas 7b has accumulated for suction, so by holding the discharge portion 4d and opening the plug 4c as shown in Figure 8, the water level 2e of the outer water tank 2a will lower and the water level 3e of the inner water tank 3a will rise so that the water levels 2e and 3e are at the same height, and the hydrogen gas 7b inside the second container 3 will be released from the discharge portion 4d.

[0030] Therefore, the user can inhale the high-concentration hydrogen gas 7b simply and safely by holding the discharge part 4d in the mouth and inhaling. The pulse oximeter attached to the finger shows a value of 98-100, but after about 20 seconds, it shows a value of about 90%, which indicates that hydrogen has reached the fingertip. In other words, it shows that the oxygen in the blood and body, and ultimately the active oxygen, have combined with the hydrogen to become water.

[0031] When the heights of both water levels 2e and 3e become equal, the pushing out of the hydrogen gas 7b by the pushing up of the water 6 inside the second container 3 ends, but by continuing suction, the hydrogen gas 7b accumulated in the inner water tank 3a can be sucked in until the water level 3e reaches the through hole 3b. When the water level 3e reaches the through hole 3b, air in the atmosphere passes through the through hole 3b and enters the suction section 4 through the second through hole 3d, preventing the risk of inhaling the water 6 that has reacted with the hydrogen gas generating agent 7. The water 6 that has reacted with the hydrogen gas generating agent 7 contains dissolved aluminum and other substances to promote the reaction, so it is necessary to be careful not to accidentally drink it when inhaling the hydrogen gas 7b.

[0032] Then, by closing the plug 4c, the state returns to the start of accumulation of hydrogen gas 7b in FIG. 6, and hydrogen gas 7b is stored up to FIG. 7 and is then aspirated. With such a simple operation, in the present invention, high-concentration hydrogen gas can be repeatedly aspirated easily and safely. The amount of hydrogen gas 7b generated can be adjusted by the content and amount of hydrogen gas generating agent 7 used. There are no particular restrictions on the amount and frequency of aspirating hydrogen gas 7b.

[0033] FIG. 9 shows the suction unit 8, in which the cannula 8a is connected to the plug 4c as the discharge unit. With the cannula 8a, the hydrogen gas 7b can be constantly inhaled from the nose with the plug 4c open, without having to hold the discharge unit in the mouth and inhale into the lungs all at once. Even people with weak suction power can inhale the hydrogen gas 7b. In the case of the cannula method, the plug 4c is not necessary.

[0034] Another embodiment of the second container is shown in Fig. 10. A cap 9c is placed on the lower part of the second container 9. Water 6 flows in and out through the through hole 9b and the second through hole 9d. In the state shown in Fig. 10, hydrogen gas 7b accumulates inside the second container 3, causing the water level 9e to drop, and water 6 is pushed out of the second container 9 into the first container 2 through the through hole 9b and the second through hole 9d. As a result, the water level 2e is pushed up.

[0035] The difference in height between the water surface 2e and the water surface 9e becomes a head pressure that pushes the hydrogen gas 7b from the second container to the suction section 4, but by continuing suction, the hydrogen gas 7b that has accumulated in the inner water tank 9a can be sucked in until the water surface 9e reaches the through hole 9b. When the water surface 9e reaches the through hole 9b, the air in the atmosphere passes through the through hole 9b and enters the suction section 4 through the second through hole 9d, preventing the risk of inhaling the water 6 that has reacted with the hydrogen gas generating agent 7. The water 6 that has reacted with the hydrogen gas generating agent 7 contains dissolved aluminum and other substances that promote the reaction, so it is necessary to be careful not to accidentally drink it when inhaling the hydrogen gas 7b.

[0036] Excess hydrogen gas 7b inside the second container 9, that is, the accumulation of hydrogen gas 7b that reaches the through hole 9b, passes through the through hole 9b and is blown out into the inside of the first container 2, and is further released into the atmosphere through the gap between the opening 2b of the first container 2 and the second container 9. As a result, excessive hydrogen gas 7b accumulates inside the first container 2 and the second container 9, becoming high-pressure, and there is no risk of explosion due to the pressure of the hydrogen gas 7b, and the container is safe.

[0037] 10, the presser 10 is a net that prevents the hydrogen gas generating agent 7 from floating up. The cap 9c does not need to be tightly screwed onto the inner water tank 9a, but may be fitted to the extent that it prevents the hydrogen gas generating agent 7 from falling off. EXAMPLES

[0038] Next, a second embodiment of the hydrogen gas suction device according to the present invention will be described. As shown in Figures 11 to 15, the hydrogen gas suction device 11 comprises a first container 12, a connecting portion 16, a second container 13, a suction portion 4, and a presser 5, which are assembled into a frame 17. A hydrogen gas generating agent 7 is placed inside the second container 13, and water 19 and the hydrogen gas generating agent 7 chemically react to generate hydrogen gas 7b.

[0039] The frame 17 consists of a base 17a on which the second container 13 is placed, vertical frames 17b standing on the left and right sides of the base 17a, legs 17c which are two pillars standing up from the base 17a, a table 17d which is horizontally placed between the top of the legs 17c and the middle of the vertical frames 17b on which the first container 12 is placed, a handle 17e which is provided on the top of the vertical frames 17b and is to be held by hand, and hook-and-loop fasteners 17f which are attached at their ends to the left and right sides of the vertical frames 17b and which secure the first container 12 and the second container 13.

[0040] The first container 12 is an upper water tank 12a that has an opening 12b at the top and stores water 19 therein.

[0041] The second container 13 has a through hole drilled in the side surface, and is composed of a sewage tank 13a which is connected to a joint 16c at the other end of the connecting portion 16, and a cap 13c which is detachable from the sewage tank 13a.

[0042] The connecting part 16 consists of a fitting 16b attached to the bottom of the first container 12, a fitting 16c attached to the top of the second container 13, and a connecting pipe 16a connecting fitting 16b and fitting 16c, and the first container 12 and the second container 13 are connected via the connecting part 16.

[0043] As in Example 1, the suction unit 4 is connected to the inside of the second container 13 and is made up of a tube 4a which is a flow path for hydrogen gas 7b, a stopper 4c which controls the opening and closing of the tube 4a, and a discharge unit 4d for hydrogen gas 7b which is connected to the stopper 4c. The tube 4a is hooked to a hook 18 attached to the frame 17, which improves the operability of the tube 4a.

[0044] As in the first embodiment, the presser 5 prevents the hydrogen gas generating agent 7 placed inside the second container 13 from floating up.

[0045] Hereinafter, the procedure for generating and suctioning hydrogen gas in the second embodiment will be described mainly with reference to FIGS.

[0046] Follow the steps below to inhale hydrogen gas: (1) With the hydrogen gas generating agent 7 prevented from floating up by the pressure vessel 5, water 19 is stored in the sewer tank 13a up to the mark 2d, and the cap 13c is then attached. In the second container 13, the hydrogen gas generating agent 7 and the water 19 react chemically to generate hydrogen gas 7b.

[0047] (2) The hydrogen gas 7b pushes the water level 19a of the lower tank 13a down to the through hole to which the fitting 16c is connected, while pushing up the water level 19b of the upper tank 12a, so that the hydrogen gas 7b accumulates inside the lower tank 13a.

[0048] (3) By holding the discharge portion 4d and opening the plug 4c, the water level 19b in the upper tank 12a drops and the water level 19a in the lower tank 13a rises, causing the hydrogen gas 7b inside the second container 13 to be released from the discharge portion 4d.

[0049] (4) The user inhales the hydrogen gas 7b discharged from the outlet 4d in the same manner as in the first embodiment.

[0050] Excess hydrogen gas 7b, i.e., hydrogen gas below fitting 16c of second container 13, passes through connecting part 16 and is released into first container 12, and then released into the atmosphere from opening 12b. Since the hydrogen gas does not accumulate under high pressure inside second container 13, there is no risk of explosion due to the pressure of hydrogen gas 7b, and hydrogen gas 7b can be generated and inhaled safely. [Explanation of symbols]

[0051] 1 Hydrogen gas suction device 2 First container 2a outside tank 2b opening 2c Toride 2d landmark 2e water surface 3 Second container 3a Inner tank 3b Through hole 3c Cap 3d second through hole 3e water surface 4 Suction part 4a tube 4b Joint 4c Stopper 4d discharge part 5 Press 6 water 7 Hydrogen gas generator 7a Air bubbles 7b Hydrogen gas 8 Suction part 8a Cannula 9 Second container 9a Inner tank 9b Through hole 9c Cap 9d Second through hole 9e water surface 10 Press 11 Hydrogen gas suction device 12 First container 12a Water tank 12b opening 13 Second container 13a Sewer tank 13c Cap 16 Connecting part 16a Connecting pipe 16b Joint 16c Fitting 17 Frame 17a Base 17b Vertical frame 17c legs 17d Table 17e Toride 17f Hook and Loop Fastener 18 Hook 19 water 19a water surface 19b water surface

Claims

1. a first container for storing water; A second container in communication with the first container; an openable and closable suction part communicating with an upper part of the second container; It consists of: With the suction unit closed, generating hydrogen gas in the second container by a chemical reaction between a hydrogen gas generating agent and water; The generated hydrogen gas pushes down the water level in the second container, Pushing up the water level of the first container; By opening the suction part, the water level of the first container is lowered, The water level in the second container rises and the hydrogen gas accumulated in the second container is pushed out to the suction part, The hydrogen gas that is pushed out is sucked in. Hydrogen gas suction device.

2. A first container is an outer water tank having an opening at an upper portion and configured to store water; a second container including an inner water tank that is inserted into the opening of the first container in a non-sealed manner and has a through hole drilled in a side surface of the container, and a cap that can be attached and detached to a top, side, or bottom surface of the inner water tank; a suction section including a tube communicating with the second container and serving as a flow path for hydrogen gas, a stopper for controlling opening and closing of the tube, and a discharge section connected to the stopper for discharging hydrogen gas; A presser that prevents the hydrogen gas generating agent charged in the second container from floating up; It consists of: Follow the steps below to inhale hydrogen gas: 1) After pouring water into the outer water tank, a cap is attached to the inner water tank while a pressure vessel is used to prevent the hydrogen gas generating agent from floating up, and the second container is inserted through the opening of the outer water tank, so that the water from the outer water tank flows into the inner water tank through the through hole of the inner water tank, and the hydrogen gas generating agent and water react chemically to generate hydrogen gas; 2) The hydrogen gas pushes the water surface of the inner water tank down to the through-hole and pushes the water surface of the outer water tank up, so that hydrogen gas accumulates in the inner water tank; 3) When the valve is opened, the water level of the outer water tank drops and the water level of the inner water tank rises, so that hydrogen gas in the second container is released from the outlet port. 4) The hydrogen gas discharged from the discharge portion is sucked in. Hydrogen gas suction device.

3. 3. The hydrogen gas suction device according to claim 2, wherein a second through hole is provided in the bottom of the inner water tank.

4. A first container is an upper water tank having an opening at an upper portion thereof for storing water; a connector for connecting to a bottom of the first container; a second container including a sewage tank having a through hole on a side surface thereof and connected to the other end of the connecting portion, and a cap detachable from the sewage tank; a suction section including a tube communicating with the second container and serving as a flow path for hydrogen gas, a stopper for controlling opening and closing of the tube, and a discharge section connected to the stopper for discharging hydrogen gas; A presser that prevents the hydrogen gas generating agent charged in the second container from floating up; It consists of: Follow the steps below to inhale hydrogen gas: 1) storing water in the sewer tank while preventing the hydrogen gas generating agent from floating up with a pressure vessel, attaching a cap, and generating hydrogen gas by chemically reacting the hydrogen gas generating agent with the water in the second container; 2) The hydrogen gas pushes the water level of the lower water tank down to the through-hole and pushes up the water level of the upper water tank, causing hydrogen gas to accumulate in the lower water tank; 3) When the valve is opened, the water level of the upper water tank drops and the water level of the lower water tank rises, whereby hydrogen gas in the second container is released from the outlet port; 4) The hydrogen gas discharged from the discharge portion is sucked in. Hydrogen gas suction device.

5. 5. The hydrogen gas suction device according to claim 4, wherein the first container and the second container are detachably fixed to a frame.

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