JP7803533B2 - Hydrogen gas inhaler - Google Patents

Description

The present invention relates to a hydrogen gas inhalation device, and in particular to a hydrogen gas inhalation device that is suitable for carrying around.

In recent years, there has been growing interest in the potential of taking hydrogen gas into the body to maintain and improve health. Inhaling hydrogen gas into the body is said to remove active oxygen species such as hydroxyl radicals, which are deeply involved in numerous diseases such as aging, cancer, diabetes, and high blood pressure, and it is being incorporated into advanced medical treatments.

Hydrogen gas is a gas that can be easily produced by electrolysis of water, and Patent Document 1 describes an invention for an inhaler that inhales hydrogen gas generated by electrolysis of water. This inhaler is small enough to be carried around in a bag or the like, and has a large number of parts, such as a built-in battery that supplies power for electrolysis, a control means for controlling the power supply, and a mesh electrode plate connected to a titanium electrode in the electrode section, which makes the operation related to hydrogen gas generation complicated and inevitably expensive.
Since this suction device is made small so that it can be carried around, it is limited in terms of electrode area and battery capacity, and can only generate a relatively small amount of hydrogen gas in a short period of time.

On the other hand, Patent Document 2 describes an invention for a small, lightweight, portable hydrogen gas inhaler that does not rely on water electrolysis. This device has a cylindrical case that houses a tubular nonwoven fabric with closed front and rear ends and a hydrogen gas generator made of magnesium powder, citric acid powder, and powdered cellulose. The front end of the cylindrical case is filled with a water-retaining material, and the rear end is filled with a water-absorbing material. This cartridge is attached to the holder of the inhaler and hydrogen gas is inhaled.

In the hydrogen gas inhalation device described in Patent Document 2, when the tip of the cartridge containing the hydrogen gas generator is immersed in water stored in a container or cup for a few seconds and then pulled out, the water is retained in the water-retaining material packed into the tip of the cartridge. This retained water then permeates the interior of the hydrogen gas generator due to the water-absorbing effect of the powdered cellulose, and the magnesium reacts with citric acid to generate hydrogen gas.
When the generated hydrogen gas begins to be sucked through the suction port of the holder, water is supplied to the hydrogen gas generator from the water-retaining material at the tip of the cartridge, and the reaction continues, generating hydrogen gas for a predetermined period of time.

The hydrogen gas inhalation device described in Patent Document 2 has a cartridge containing a hydrogen gas generator that is approximately 5 cm long, and the holder is also approximately 7 cm long, so it can be carried in a bag, handbag, or clothing pocket.
However, in this invention, hydrogen gas is generated by immersing the tip of the cartridge in water stored in a container or cup for a specified period of time and then pulling it up.However, because the hydrogen gas generation reaction occurs from the tip of the cartridge to the rear end, great care must be taken in operations such as how the tip of the cartridge is immersed in water and how it is tilted, making it somewhat difficult to stably generate hydrogen gas to be inhaled.In addition, it takes time for the hydrogen gas generation reaction to be completed from the tip to the rear end of the cartridge, making it impossible to inhale a relatively large amount of hydrogen gas in a short period of time.

Patent No. 6464385 Patent No. 6436325

In light of these circumstances, the present invention aims to provide a hydrogen gas inhalation device that can be carried in a bag or handbag, generates hydrogen gas stably with simple operation, and allows for the inhalation of relatively large amounts of hydrogen gas in a short period of time.

In order to solve the above problems, the present invention employs the following means.
[1] A hydrogen gas inhalation device that has a container consisting of a cylindrical body and a mouth with a bottom, a lid that fits into the mouth, and a core that is housed in the container, and that can inhale hydrogen gas generated by spraying water on a nonwoven fabric package containing a hydrogen gas generator made of magnesium, citric acid, and cellulose, wherein the mouth of the container has a larger cross-sectional area than the body, and a step is formed at the boundary between the mouth and the body of the container, the lid has a hole through which a suction pipe can be inserted, and the core is cylindrical with an open upper end and a closed bottom at the lower end. a flange formed at the edge of the upper end, which is suspended and held by the stepped portion of the container; a hole through which a suction pipe can be inserted, a recess, and a hole at the bottom of the recess through which hydrogen gas can pass, which hole is formed at the bottom of the lower end of the core, the suction pipe is stored in the hole through which the suction pipe can be inserted, and a suction ball is placed in the recess; and when hydrogen gas is to be sucked in, the suction pipe is inserted into the hole formed in the lid and brought into contact with the recess formed at the bottom of the lower end of the core to suck in hydrogen gas.
[2] A hydrogen gas suction tool as described in [1], characterized in that a sloped portion is provided at a location other than the depression at the bottom of the lower end of the core, a hole is formed in the sloped portion through which the suction pipe can be inserted, and a hole is further formed at the lowest part of the sloped portion through which sprayed water can be discharged.
[3] A hydrogen gas inhalation device as described in [1] or [2], characterized in that a gap is formed between a portion of the flange portion of the core and the container, and a water pack is inserted through the gap and stored therein.
[4] A hydrogen gas inhalation device according to [1] or [2], characterized in that a gap is formed between the core and the container, a water pack is inserted through the gap and stored, and a nonwoven fabric packaging body containing a hydrogen gas generator is stored at the bottom of the container.
[5] A hydrogen gas inhalation device according to [1] or [2], characterized in that the depression containing the incense ball of the core is covered with a piece of sponge.

The hydrogen gas inhalation device of the present invention is small and can be carried in a bag or handbag, as it is composed of a container, lid, core, and suction pipe. Furthermore, a nonwoven fabric package containing a hydrogen gas generator is placed in the container, and hydrogen gas is generated by spraying water onto it. The suction pipe stored in the container is then inserted into a hole formed in the lid to inhale the hydrogen gas. This allows for simple operation to generate and inhale hydrogen gas, and the scent of the incense ball is transferred to the hydrogen gas as it is inhaled, providing a real feeling of inhalation. Furthermore, because hydrogen gas is generated by spraying water onto a nonwoven fabric package containing a hydrogen gas generator made of magnesium, citric acid, and cellulose, hydrogen gas can be generated reliably and stably, and a relatively large amount can be generated in a short period of time.

1A and 1B show a front view and a side view of the overall appearance of a hydrogen gas suction tool, respectively. 1A and 1B show a front view and a side view of a container of a hydrogen gas inhalation device, respectively. 1A and 1B show a longitudinal cross-sectional view and a top view of a lid of a hydrogen gas suction tool, respectively. The hydrogen gas suction device is shown in vertical cross section, with the suction pipe inserted and housed in the hole of the core in (a) and the hole of the lid in (b). 1A and 1B show a longitudinal cross-sectional view and a top view of the core, respectively. This shows a depression formed at the bottom of a core suspended in a container, containing an incense ball, covered with a piece of sponge. 1 is a photograph substituted for a drawing showing an example of a nonwoven fabric package containing a hydrogen gas generator. This is a photograph in place of a drawing showing a stick-type water pack. This is a photograph in place of a drawing showing a water pack that is different from the stick type.

An embodiment of the hydrogen gas suction tool of the present invention will be described with reference to the drawings. Hereinafter, the hydrogen gas suction tool will be simply referred to as the "suction tool."
The overall appearance of the suction tool is shown in Figure 1. The suction tool 1 has a container 2 and a lid 3, and a core 4 is placed inside the container 2 (see Figure 4).
As will be described later, the container 2 contains a nonwoven fabric packaging 8 containing a hydrogen gas generator, and when aspirating hydrogen gas, the hydrogen gas generated by spraying water onto the nonwoven fabric packaging 8 containing the hydrogen gas generator can be aspirated through the suction pipe 5, which consists of a tube.

Container 2 is shown in Figure 2. As shown in this figure, container 2 has a cylindrical body 21 with a bottom and a mouth 22, and the cross sections of body 21 and mouth 22 are similar in shape. The cross-sectional area of mouth 22 is larger than that of body 21, and a step 23 is formed at the boundary between the body and mouth.
The step portion 23 makes the container strong and prevents it from being easily deformed even when gripped. As will be described later, the core 4 is suspended on the step portion 23.

A lid 3 is fitted to the mouth 22 of the container 2. As shown in FIG. 3 , a hole 31 is formed in the lid 3, through which a suction pipe 5 can be inserted. As will be described later, when sucking hydrogen gas, the suction pipe 5 is inserted into the hole 31 to suck hydrogen gas. The diameter of the hole 31 is equal to the outer diameter of the suction pipe 5, so that no gap is formed between the outer periphery of the suction pipe 5 and the hole 31. This prevents hydrogen gas from easily leaking between the outer periphery of the suction pipe 5 and the hole 31 when sucking hydrogen gas. In the embodiment shown in FIG. 3 , the hole 31 is formed near the edge of the lid 3, but the location is not limited to this position. A recess (no drawing number) is formed in the lid 3 to make the lid 3 less likely to deform, but this recess is not necessary.
In this embodiment, as shown in Figure 4, the lower outer edge of the lid 3 is inserted into and fitted to the inner periphery of the mouth 22 of the container 2, but the reverse is also possible. Also, this is not limiting, and it is sufficient that there is no gap between the container 2 and the lid 3 and that they are detachable.

As shown in FIG. 4, the core is housed in the container 2 in a suspended state.
As shown in FIG. 5, the core 4 is a cylindrical body having an open top end and a closed bottom end.
A flange portion 41 is formed on the edge of the open upper end of the core 4, and this flange portion 41 is supported by the step portion 23 of the container 2, so that the core 4 is stored in the container 2 in a suspended state.

The core 4 is simply supported by the stepped portion 23 and suspended from the container 2, so the core 4 can be easily removed from the container 2. Before aspirating hydrogen gas, the nonwoven fabric packaging 8 containing the hydrogen gas generator can be placed on the bottom of the body 21 of the container 2 with the core 4 removed and stored. When water is sprayed onto the nonwoven fabric packaging 8 containing the hydrogen gas generator, hydrogen gas is generated.

The bottom 42 at the lower end of the core 4 is formed with a hole 42a through which the suction pipe 5 can pass and a recess 42b in which the fragrance ball 6 can be placed. The bottom of the recess 42b is formed with a hole 42c through which hydrogen gas can pass. Furthermore, the bottom 42 at the lower end of the core 4 is formed with a discharge hole 42d to prevent the water sprayed during hydrogen gas suction from accumulating. Therefore, in the embodiment shown in Figure 4, the bottom 42 of the core is closed except for the three holes: hole 42a through which the suction pipe 5 can pass, hole 42c through which hydrogen gas can pass, and hole 42d for discharging the sprayed water.

When hydrogen gas is sucked in, the suction pipe 5 inserted into the hole 42a is pulled out, but the water sprayed when hydrogen gas is sucked in will also drip out of the hole 42a through which the suction pipe 5 can be inserted, so there is no need to provide a discharge hole 42d. If a hole 42d is provided, it is desirable to provide a sloped portion at a location other than the depression 42b on the bottom 42 at the lower end of the core 4, as shown in Figures 4 and 5, and to form the discharge hole 42d for the sprayed water at the lowest point of this sloped portion.

As shown in Figure 4(a), the hole 42a formed in the bottom of the lower end of the core 4 is used to store the suction pipe 5 in the container 2, and also serves as a hole through which water passes to be sprayed onto the nonwoven fabric packaging 8 containing the hydrogen gas generator when hydrogen gas is being sucked in, as described below. The suction pipe 5 is long enough to fit inside the container 2 with the lid 3 fitted, and when not sucking in hydrogen gas, the suction device 1 can be carried with the suction pipe 5 inserted and stored in the hole 42a.

The hole 42c through which hydrogen gas can pass, formed in the bottom portion 42 at the lower end of the core 4, is located at the bottom of the recess 42b in which the incense ball (fragrance ball) 6 is placed. As described below, when hydrogen gas is inhaled, hydrogen gas generated from the nonwoven fabric packaging 8 containing the hydrogen gas generator passes through this hole 42c, then passes around the outer periphery of the incense ball 6, and is inhaled by the suction pipe 5 inserted into the hole 31 in the lid and abutting the recess 42b (see Figure 4(b)). At this time, the scent of the incense ball 6 is transferred to the hydrogen gas, giving the inhaler the feeling that they are inhaling hydrogen gas. Furthermore, in the early stages of hydrogen gas generation, the smell of the metal (Mg) in the hydrogen gas generator may be transferred to the hydrogen gas, but the incense ball 6 also has the effect of mitigating this odor.

The incense ball 6 has a diameter of approximately 5 mm, and the inner diameter of the recess 42b in which the incense ball 6 is placed is also approximately the same. A diameter of approximately 1 to 3 mm for the hole 42c through which hydrogen gas passes is also sufficient. There is a tiny gap between the incense ball 6 and the recess 42b, and extremely small hydrogen gas molecules can pass through this gap, so the inhalation of hydrogen gas is not impeded.

It is desirable that the inner diameter of the suction pipe 5 be approximately the same as or slightly larger than the inner diameter of the cross section of the opening of the recess 42b. Furthermore, as shown in Figures 4 and 5, it is desirable to cover the opening of the recess 42b with a plate-shaped piece of sponge 7 and then apply suction by placing the suction pipe on top of it. This allows the suction pipe 5 to abut against the recess 42b without shifting position.

As shown in Figure 4(b), when the suction tool 1 is held upright, the recess 42b is formed so that it is located directly below the hole 31 in the lid 3. This makes it easier for the suction pipe 5 to stably abut against the recess 42b when suctioning hydrogen gas. Here, the recess 42b is formed near the edge of the bottom 42 of the core 4, just as the hole 31 is formed near the edge of the lid 3. However, this position is not limiting, and both the hole 31 and the recess 42b may be formed closer to the center.

As shown in Figure 5(b), the cross-sectional shape of the cylindrical portion of the core 4, which is a cylindrical body with a bottom, is irregularly shaped, being constricted near the center, and the flange portion 41 formed at the upper end of the core 4 also does not have a constant flange width; the flange width is narrow in some portions of the cylindrical portion (the lower portion in Figure 5(b)) and wide in other portions (the upper portion in Figure 5(b)). In some of the narrow flange width portions, the flange portion 41 is not supported by the step portion 23 of the container 2, forming a gap between the container 2 and the flange 41 of the core 4. A water pack 9 can be inserted into this gap. In this way, the water pack 9 can be inserted through the gap formed between the flange portion 41 of the core 4, which is supported by the step portion 23 and suspended from the container 2, and the container 2, and the water pack 9 can be stored in the container 2.
The length of flange portion 41, which forms a gap between itself and container 2, is preferably within one-third of the overall circumferential length of flange portion 41. Within this range, core 4 can be stably suspended from container 2.

The water pack 9 is sized so that the top end of the stored water pack 9 slightly protrudes from the gap between the container 2 and the flange portion 41. This allows the water pack 9 stored in the container 2 to be easily removed when inhaling hydrogen gas, and then by opening it, water can be sprayed from above the container 2 onto the nonwoven fabric packaging 8 containing the hydrogen gas generator stored below the core 4 inside the container 2. It is desirable that the water pack 9 be stick-shaped so that it can be easily stored in the gap, as shown in Figure 8.

In the embodiment shown in FIG. 5( b ), the flange width is narrowed in some areas of the cylindrical part of the core 4, forming a gap between the container 2 and the flange 41 of the core 4. However, without forming such a gap, the flange 41 of the core 4 can be supported by the stepped portion 23 of the container 2 at all areas, preventing a gap from being formed between the container 2 and the flange 41 of the core 4.
In this case, the cross-sectional shape of the cylindrical portion of core 4 does not need to be irregularly constricted near the center, and the width of flange 41 can be made roughly constant. In this embodiment, a water pack cannot be inserted into the gap between flange 41 of core 4 and container 2, but core 4 suspended from container 2 can be removed and stored in bottom 42 of container 2 by using a stick-shaped water pack 9 with a shorter side length as shown in Figure 9.

The sprayed water passes through holes 42a and 42d formed in the bottom 42 of the core and drips onto the nonwoven fabric packaging 8 containing the hydrogen gas generator. It is desirable to provide an inclined portion on the bottom 42 of the core, as shown in Figures 4 and 5, and to provide a drainage hole 42d at the lowest portion of the inclined portion, so that the sprayed water does not stagnate.
In this way, the suction device 1 of the present invention can generate and inhale hydrogen gas even in places where water cannot be secured, by storing the nonwoven fabric packaging body 8 containing the hydrogen gas generator, the water pack 9, and the suction pipe 5 in the container 2.

The inhaler 1 is thick enough to be gripped by the person inhaling hydrogen gas, and it is desirable for its height to be around 80 mm for portability. There are no particular restrictions on the cross-sectional shape of the container 2, but a roughly rectangular, elliptical, or egg-shaped cross section is preferable for easy gripping. Furthermore, the container 2 is easier to grip if it tapers toward the bottom.
The container 2, lid 3, and core 4 of the suction tool 1 can be integrally manufactured by injection molding a resin material, or may be manufactured from a paper material.

The water sprayed onto the nonwoven fabric packaging 8 containing the hydrogen gas generator can be tap water or bottled water, but the water pack 9 contains an appropriate amount of water to match the hydrogen gas generation reaction in the nonwoven fabric packaging 8 containing the hydrogen gas generator, which has the advantage of avoiding the spraying of too much or too little water.

FIG. 7 shows an example of a nonwoven fabric package 8 containing a nonwoven fabric containing a hydrogen gas generator.
The nonwoven fabric packaging 8 containing the hydrogen gas generator can be produced, for example, by folding a rectangular nonwoven fabric in half and sealing the combined width edges to form a bag, placing the hydrogen generator inside through the opening, and then closing the opening. As the nonwoven fabric, for example, a hydrophilic food-grade nonwoven fabric such as that used in tea bags can be used.
When water is sprayed onto the nonwoven fabric packaging 8 containing the hydrogen gas generator, the water easily passes through the nonwoven fabric and permeates the hydrogen gas generator, generating hydrogen gas.

A mixture containing metallic magnesium and citric acid can be used as a hydrogen gas generator that generates hydrogen gas by spraying water, but as described in Patent Document 2, a mixture of magnesium powder, citric acid powder, and powdered cellulose can also be used. When water is sprayed onto this mixture, the magnesium and citric acid react to generate hydrogen gas. This reaction does not generate oxygen gas, as occurs with the electrolysis of water.
Here, "powder" means that the particles constituting the powder include powder-like particles and granular particles with a particle size of about 1 mm or less (see Patent Document 2).

When using a mixture of magnesium powder granules, citric acid powder granules, and powdered cellulose, preventing the materials from separating will allow the chemical reaction to continue and enable more stable and efficient generation of hydrogen gas. Therefore, it is desirable to use an agglomerated mixture of the three materials: magnesium powder granules, citric acid powder granules, and powdered cellulose. The agglomeration method is also described in Patent Document 2.

When approximately 3 g of hydrogen gas generators made by mixing magnesium powder, citric acid powder, and powdered cellulose in a mass ratio of approximately 1:3 to 9:1 to 3 and granulating them is placed in a nonwoven fabric package and water is sprayed on them to cause a reaction, the reaction continues for about 1 minute, generating a total of approximately 80 ml of hydrogen gas during that time. In this case, approximately 2.5 cc of water is required for the reaction, but to be on the safe side, 3 to 5 cc of water sprayed on is sufficient.

As mentioned above, the hydrogen gas generator may weigh approximately 3 grams, and the nonwoven fabric packaging body 8 containing the hydrogen gas generator can be flat with a closing margin of approximately 8 mm, with a length and width of approximately 50 mm and a thickness of approximately 8 mm, including the closing margin.
The flat nonwoven fabric packaging body 8 containing hydrogen gas is flexible, so that it can be easily placed in contact with the surface of the bottom 42 of the container 2 from which the core 4 has been removed, and stored in the space between the bottom 42 of the core 4 and the bottom of the container 2.

The nonwoven fabric package 8 containing the hydrogen gas generator and the water pack 9 are stored in the container 2, and the suction tool 1 can be carried in a bag or handbag, so that hydrogen gas can be inhaled anywhere.
Furthermore, if the nonwoven fabric package 8 containing the spare hydrogen gas generator and the water pack 9 are carried in a bag or handbag, hydrogen gas can be repeatedly inhaled using the suction device.

Figure 8 shows a stick-shaped water pack 9. This stick-shaped water pack is long (the long side is longer than the short side) and contains water wrapped in a laminated film of polyethylene resin and aluminum foil. If a slit is made in one end, it can be easily torn from the slit and the enclosed water can be sprayed. However, a flat water pack containing water wrapped in a transparent resin film, as shown in Figure 9, can also be used.

The water pack 9 only needs to contain water equivalent to the amount of hydrogen gas generator. If the hydrogen gas generator weighs about 3 g, 3 to 5 cc of water will be sufficient, so it can be made large enough to fit into the container 2.
In addition, the use of the water pack 9 allows the spraying of an amount of water commensurate with the amount of hydrogen gas generator, thereby avoiding the spraying of too little water, which would result in insufficient hydrogen gas being generated, or the spraying of too much water.

Hydrogen gas is generated when water is sprayed from above the core 4 onto the nonwoven fabric packaging 8 containing the hydrogen gas generator placed at the bottom of the container 2. At this time, the sprayed water drips from the holes 42a and 42d of the core 4 and immediately reaches the nonwoven fabric packaging 8 containing the hydrogen gas generator, so the water quickly penetrates the hydrogen gas generator in the nonwoven fabric, causing a reliable reaction and stable generation of hydrogen gas.
In this way, the person who inhales hydrogen gas can pull out the suction pipe 5, spray water onto the nonwoven fabric packaging 8 containing the hydrogen gas generator inside the container 2, and then insert the suction pipe 5 into the hole 31 in the lid 3 after attaching it (see Figure 4(b)).

As already described, by spraying water onto the nonwoven fabric package 8 containing about 3 g of a hydrogen gas generator, it is possible to generate approximately 80 ml of hydrogen gas per minute. The suction device described in Patent Document 2 generates at most about 80 ml of hydrogen gas in 15 minutes. Furthermore, the suction device described in Cited Document 1 is also a small electrolysis type, so the amount of hydrogen gas generated is thought to be at most a few ml per minute.
In this way, the suction device of the present invention can suck a relatively large amount of hydrogen gas in a short time, and can shorten the time spent sucking a predetermined amount of hydrogen gas.

The reaction between the magnesium hydrogen generator and citric acid is exothermic, so when hydrogen is generated inside the container 2, the surface of the container 2 may reach approximately 50°C. This can be addressed by using a container 2 with insulating properties, such as an embossed surface, or by wrapping a cardboard sleeve around a paper cup.

There is no particular restriction on the size of the suction device 1 as long as it is small enough to be held by a person, but if the hydrogen gas generator packaged in the nonwoven fabric packaging body 8 weighs about 3 g, the height of the suction device 1 with the lid body 3 fitted can be about 80 mm, the cross-sectional length of the mouth 22 of the container 2 can be about 60 mm, and the cross-sectional length of the bottom 42 can be about 40 mm.
In this case, the amount of water in the water pack 9 may be about 3 to 5 cc, so the water pack 9 can be sized to fit in the container 2.

The basic procedure for sucking hydrogen gas from the suction device 1 is shown below in steps 1 to 3. It is assumed that the container 2 of the suction device 1 is previously fitted with a nonwoven fabric packaging 8 containing a hydrogen gas generator, a water pack 9, and a suction pipe 5. The nonwoven fabric packaging 8 containing the hydrogen gas generator is placed on the bottom of the container 2 after removing the core 4, the water pack 9 is stored in the gap formed between the side of the core 4 and the body 21 of the container 2 or in the bottom 2 of the container 2, and the suction pipe 4 is inserted into the hole 42a formed in the bottom 42 of the core and stored. Note that the procedure for sucking hydrogen gas is not limited to steps 1 to 3.

<Step 1>
The lid 3 is removed from the container 2, and the suction pipe 5 inserted into the hole 42a of the core inside the container 2 is pulled out and removed. The water pack 9 is also removed from the gap formed between the side of the core 4 and the body 21 of the container 2, or from the bottom of the container 2 by removing the core 4.
<Step 2>
The water pack 9 is opened, and water is sprayed onto the core 4 that is again suspended in the container 2. The water drips from the holes 42a and 42d formed in the bottom 42 of the core 4 and permeates the nonwoven fabric packaging 8 containing the hydrogen gas generator, generating hydrogen gas.
<Step 3>
The lid is immediately fitted onto the mouth 22 of the container 2, and the suction pipe 5 is inserted into the hole 31 formed in the lid and brought into contact with the opening of the recess 42b formed in the bottom 42 of the core 4, and hydrogen gas is sucked in.

As shown in steps 1 to 3, by carrying the suction device 1 which contains the nonwoven fabric package 8 containing the hydrogen gas generator, the water pack 9, and the suction pipe 5, it is possible to inhale hydrogen gas even in places where water is not available.
Furthermore, if a nonwoven fabric package 8 containing a spare hydrogen gas generator and a water pack 9 are prepared, the container 2 and lid 3 of the suction device 1 used in steps 1 to 3 can be used repeatedly to inhale hydrogen gas.

By storing the suction pipe 5, the nonwoven fabric package 8 containing the hydrogen gas generator, and the water pack 9 in the container 2 of the suction device 1 and carrying it around, hydrogen gas can be conveniently inhaled even in places where water is difficult to obtain. In this case, if the nonwoven fabric package 8 containing the hydrogen gas generator and the water pack 9 are carried as spares in a bag or handbag, hydrogen gas can be inhaled repeatedly with simple operations.

The present invention allows hydrogen gas to be inhaled with simple operations, and the inhalation device can be reused, meeting the expectations of people who want to inhale hydrogen gas on a daily basis.

1: Hydrogen gas suction tool 2: Container 21: Body 22: Mouth 23: Step 3: Lid 31: Hole (through which the suction pipe can be inserted) 4: Core 41: Flange 42: Bottom 42a: Hole 42b (through which the suction pipe can be inserted) 42c: Hole 42d (through which hydrogen gas can pass) 42d: Drainage hole for sprayed water 5: Suction pipe 6: Fragrance ball (fragrance ball)
7: Sponge piece 8: Nonwoven fabric packaging containing hydrogen gas generator 9: Water pack

Claims (5)

A hydrogen gas inhaler having a container consisting of a cylindrical body with a bottom and a mouth, a lid that fits into the mouth, and a core that is housed in the container, and capable of inhaling hydrogen gas generated by spraying water onto a nonwoven fabric package containing a hydrogen gas generator made of magnesium, citric acid, and cellulose,
The mouth of the container has a larger cross-sectional area than the body, and a step is formed at the boundary between the mouth and body of the container,
The cover has a hole through which the suction pipe can be inserted.
the core is cylindrical with an open upper end and a closed lower end, and a flange portion is formed on the edge of the upper end, and the flange portion is suspended and held by a stepped portion of the container;
The bottom of the lower end of the core is formed with a hole through which a suction pipe can be inserted, a recess, and a hole at the bottom of the recess through which hydrogen gas can pass, the suction pipe is housed in the hole through which the suction pipe can be inserted, and a suction ball is housed in the recess,
A hydrogen gas suction device characterized in that, when suctioning hydrogen gas, the suction pipe is inserted into a hole formed in the lid body and abutted against a recess formed in the bottom of the lower end of the core to suction hydrogen gas. The hydrogen gas suction device described in claim 1 is characterized in that a sloped portion is provided at a location other than the depression at the bottom of the lower end of the core, a hole is formed in the sloped portion through which the suction pipe can be inserted, and a hole is further formed at the lowest point of the sloped portion through which sprayed water can be discharged. The hydrogen gas inhalation device described in claim 1 or 2, characterized in that a gap is formed between a portion of the flange portion of the core and the container, and a water pack is inserted and stored through this gap. The hydrogen gas inhalation device described in claim 1 or 2, characterized in that a gap is formed between the core and the container, a water pack is inserted through the gap, and a nonwoven fabric package containing a hydrogen gas generator is stored in the bottom of the container. A hydrogen gas inhalation device as described in claim 1 or claim 2, characterized in that the recess containing the core's incense ball is covered with a piece of sponge.