KR102077059B1 - Hydrogen Gas Generator - Google Patents

Abstract

The present invention relates to a hydrogen gas generating device, a reservoir in which water is stored is formed on top, and an electrode module for generating ionic water and hydrogen gas by electrolyzing the water stored in the reservoir is provided below the reservoir, and the reservoir and electrode module It includes a base assembly including a water tank housing surrounding the casing, and a cap assembly that is fastened to the base assembly through a first gender and discharges hydrogen gas generated from the base assembly to the outside. In particular, it is configured to separate and discharge hydrogen gas / hydrogen water generated at the cathode and gas generated at the anode and acidic water according to electrolysis of water. Hydrogen, hydrogen water, oxygen, ozone, acid water, etc. can be discharged separately, and it is composed of a portable device and can be used freely with containers such as plastic bottles and tumblers through gender, so it can be used very conveniently. have.

Description

Hydrogen gas generator

The present invention relates to a hydrogen gas generating device, and more specifically, by electrolyzing water to separate and discharge gas and hydrogen water generated from the cathode, gas and acidic water generated from the anode, and more convenient to use It relates to a hydrogen gas generator.

In general, the hydrogen we are referring to is "H2", which is hydrogen in the molecular state. It is known that hydrogen is easily combined with free radicals to detoxify free radicals causing various diseases.

Hydrogen water is an alkaline reduced water and means a hydrogen-rich hexagonal water having a pH of 8.5 or higher. Hydrogen water is excellent in water molecules, so it is easy to absorb in the body, discharges toxic substances in the body, removes free radicals harmful to the human body, improves the acid constitution to an alkaline constitution, and is effective for various adult diseases. It is known.

As an existing technology for producing hydrogen water, "Korea Hydrogen Water Manufacturing Equipment with Functionality" is proposed in Korean Patent Registration No. 10-1120942.

However, this existing invention has a number of problems for use as a portable.

That is, the existing technology as described above presents a configuration having a battery for mobility, but when it has a sealing means or a sealing structure for moving and carrying, hydrogen gas generated in the form of gas during the process of producing hydrogen water There is a problem that it is not suitable for portable use because it is not prepared for the discharge of (H₂).

In addition, in recent years, in various types of outdoor activities such as mountain climbing and trekking, there is an increasing number of requests to carry and drink hydrogen water generators, but the above-described existing technology has not satisfied these requests.

Another conventional electrolysis system for generating hydrogen gas is an electrolysis plate consisting of an ion exchange membrane and a pair of electrode plates in close contact with both sides of the ion exchange membrane, a hydrogen gas generating tank partitioned by the electrolysis plate, and oxygen gas generation It has an electrolytic cell having a tank, a water supply pump for supplying pure water to the electrolytic cell and circulating and discharging hydrogen gas and oxygen gas generated from the electrolysis plate, and a water intake tank for taking in the purified water flowing from the hydrogen gas generating tank and the oxygen gas generating tank respectively. (See Japanese Patent Publication No. 2011-177659).

However, in such a conventional electrolysis system, there is a problem that the pure water overflows from the hydrogen gas generating tank due to the electrophoresis generated when the pure water is electrolyzed.

In addition, in the conventional electrolysis system, it is necessary to have a water supply pump and a water intake tank for generating and circulating hydrogen gas, which makes it difficult to downsize and carry.

In addition, in the conventional electrolysis system, hydrogen gas cannot be efficiently separated from the electrolysis plate or used as a portable hydrogen gas generator, such as a large bolt and nut fixing the electrode plate to the ion exchange membrane adsorbing the hydrogen gas. There are a number of problems that are not suitable for the following.

Accordingly, the present invention has been devised to solve the above problems, and improves various problems in the prior art, which makes it difficult to miniaturize and portability, and separates and discharges gas and ion water generated when electrolysis of water, and is convenient. It is an object of the present invention to provide a hydrogen gas generator that can be used conveniently.

Another object of the present invention is to provide a hydrogen gas generating device capable of providing hydrogen gas generated by electrolysis of water and hydrogen water generated by electrolysis to a waste bottle.

Another object of the present invention is to provide a hydrogen gas generating device that can supply hydrogen gas generated by electrolysis of water and also provide hydrogen water generated by electrolysis to a tumbler type container.

In the first embodiment of the present invention for achieving the above object, a reservoir in which water is stored is formed on the top, and an electrode module for electrolyzing water stored in the reservoir is provided below the reservoir, and the reservoir is And a base assembly including a reservoir housing for surrounding the electrode module casing; And a cap assembly that is fastened to the base assembly through a first gender and discharges hydrogen gas generated in the base assembly to the outside. At this time, the base assembly is configured to separate and discharge gas and acidic water generated at the anode according to the electrolysis of water.

The electrode module includes an upper electrode plate to which negative power is applied, a lower electrode plate to which positive power is applied, and an ion resin film provided between the upper electrode plate and the lower electrode plate. Electrode structures; And it is located at the bottom of the electrode structure, it may be made of an absorbent member made of a material capable of absorbing water, the electrode module may be wrapped through one or more casing members.

In addition, the electrode module, the upper electrode plate to which a negative (-) power is applied, a lower electrode plate to which a positive (+) power is applied, and an ion resin film provided between the upper and lower electrode plates It comprises an electrode structure consisting of, the ion resin film is formed on both sides of the platinum coating layer, the platinum coating layer is formed on a portion of one surface of the ion resin film, or water may pass through the entire surface of the ion resin film It is possible to form a thickness of about.

Here, the electrode module may be located at the bottom of the electrode structure, and may include a function body made of titanium.

The casing member is formed with a first discharge passage for discharging the gas generated from the anode and a second discharge passage for discharging acidic water, and is formed in at least one side surface of the reservoir housing, and the first discharge passage and the first 2 A discharge passage connected to the discharge passage may be provided.

At this time, the hydrogen gas generating device may be configured to include a discharge passage matching portion for guiding gas and acidic water flowing through the recovery passage to the outside of the base assembly.

The first discharge passage may be formed at a position closer to the lower electrode plate than the second discharge passage.

The hydrogen gas generating device may further include a discharge means having an inlet to be connected to the discharge passage matching portion.

The discharge means has an internal space for storing acidic water, and a hole is formed at the top to discharge gas generated from the anode. In addition, the discharge means may be configured to be detachably attached to the base assembly.

The hydrogen gas generating device may be formed with a passage through which water in the reservoir can leak into the space where the absorbing member is placed.

In this case, irregularities may be formed in one or more of the portions where the reservoir housing is in close contact with the casing member supporting the electrode structure so that water in the reservoir is leaked.

A carbon-based odor absorbing material may be provided at the bottom of the lower electrode plate.

A casing member on which the absorbing member is placed may be provided with a third pressing support portion that applies a constant pressure to the electrode structure.

At this time, the third pressing support portion may be configured in the form of a plate protruding perpendicular to the surface on which the absorbing member is placed.

The cap assembly may include a cap body that is fastened to the base assembly through the first gender; A cap lid hingedly coupled to the cap body and configured to open and close the cap body; And it may be configured to include an ion water inlet disposed in the center of the cap body.

The cap body has a hydrogen gas delivery port through the cap body to transmit hydrogen gas collected inside the base assembly to the outside, wherein the cap lid penetrates the cap lid and is closed when the cap lid is closed. It may be configured to have a hydrogen gas outlet communicating with the hydrogen gas delivery port inside the cap lid.

The cap body may have a passage portion having a shape protruding downward from the cap body, and the passage portion may be extended to approach or contact the upper surface of the electrode module.

In addition, the hydrogen gas delivery port may be made of a rubber pipe.

The cap body has an ion water suction unit holder formed to protrude around the ion water suction unit, and the cap lid presses an upper end of the ion water suction unit when the cap lid is closed to push the ion water suction unit holder over the ion water suction unit holder. It may be configured to have a suction portion pressurized portion inside the cap lid.

In addition, the cap body may have a cap sealing on the back surface, and the cap sealing may be configured to have a hydrogen gas delivery opening and closing portion torn in a cross shape (+) at a position corresponding to the hydrogen gas delivery port.

The second embodiment of the present invention further includes a second gender having a first fastening part that can be fastened with the PET bottle at the top, and a second fastening part that can be fastened with the base assembly at the bottom, thereby supplying hydrogen water to the waste bottle. It is configured to.

The third embodiment of the present invention, a storage container that can be combined with the upper portion of the base assembly and the lower portion of the cap assembly, and stores water and hydrogen water; And a mineral supply unit provided inside the storage container and supplying minerals to water and hydrogen water stored in the storage container, and configured to be usable for a tumbler.

The hydrogen gas generating apparatus according to the present invention can generate and supply hydrogen gas and hydrogen water by electrolysis of water. In particular, when electrolyzing water, gas and acidic water, such as hydrogen generated at the cathode and oxygen generated at the anode, can be separated and discharged to the outside of the case.

Therefore, hydrogen gas, hydrogen water, and the like can be conveniently used, and acidic water, etc. generated during the electrolysis process can be used separately or can be conveniently disposed.

For the generation or circulation of hydrogen gas, there is no need for a water supply pump or intake tank, so it is easy to downsize and carry.

In addition, as the gender is used, hydrogen water generated by electrolysis can be stored in various containers such as waste bottles and tumblers, which can be used more conveniently according to the user's purpose or circumstances.

1 is a perspective view showing the appearance of a hydrogen gas generator according to a first preferred embodiment of the present invention,
2 is an exploded perspective view of a component of a hydrogen gas generating device according to a first preferred embodiment of the present invention,
3 is a simplified exploded perspective view of the base assembly,
4 is an exploded perspective view of an example of an electrode module,
Figure 5 is a schematic cross-sectional view of the pressing support shown in Figure 4,
6 is an exploded perspective view of an electrode module showing an example of an ion resin film on which a platinum coating layer is formed,
7 is a simplified cross-sectional view of a base assembly for explaining the separate discharge of gas and ionic water,
Figure 8 is an example for explaining the discharge means detachable to the base assembly,
9 is an example of a casing member for passing gas generated at the anode,
10 is another exploded perspective view of the electrode module,
11 is a cross-sectional view of a specific embodiment of the base assembly,
12 is a top perspective view showing a state in which the cap assembly is opened;
13 is a cross-sectional view showing a closed state of the cap assembly,
14 is a bottom perspective view of the cap assembly,
15 is a perspective view showing the appearance of a hydrogen gas generator according to a second preferred embodiment of the present invention,
FIG. 16 is a perspective view showing an outer shape in which the hydrogen gas generator of FIG. 15 is assembled;
17 is a view showing a use state of the hydrogen gas generating device of FIG. 15,
18 is a perspective view showing the appearance of a hydrogen gas generator according to a third preferred embodiment of the present invention,
FIG. 19 is a perspective view showing an external shape in which the hydrogen gas generator shown in FIG. 18 is assembled.

The present invention can be applied to a variety of transformations and may have various embodiments, and specific embodiments will be illustrated in the drawings and described in detail in the detailed description. However, this is not intended to limit the present invention to specific embodiments, and should be understood to include all conversions, equivalents, and substitutes included in the spirit and scope of the present invention. In the description of the present invention, when it is determined that a detailed description of known technologies related to the present invention may obscure the subject matter of the present invention, the detailed description will be omitted.

The terms used in this application are only used to describe specific embodiments, and are not intended to limit the present invention. Singular expressions include plural expressions unless the context clearly indicates otherwise. In this application, the terms "include" or "have" are intended to indicate the presence of features, numbers, steps, actions, components, parts or combinations thereof described herein, one or more other features. It should be understood that the existence or addition possibilities of fields or numbers, steps, operations, components, parts or combinations thereof are not excluded in advance.

Terms such as first and second may be used to describe various components, but the components should not be limited by the terms. The terms are used only for the purpose of distinguishing one component from other components.

The present invention can be better understood by the following examples, and the following examples are for illustrative purposes of the present invention and are not intended to limit the protection scope defined by the appended claims.

1 is a perspective view showing the outer appearance of a hydrogen gas generator 10 according to a first preferred embodiment of the present invention, and FIG. 2 is a component of a hydrogen gas generator 10 according to a first preferred embodiment of the present invention 3 is a simplified exploded perspective view of the base assembly 200 shown in FIG. 1.

1 to 3, the hydrogen gas generating device 10 according to the first preferred embodiment of the present invention includes a base assembly 200 and a cap assembly 100, and further includes a first gender 310. It can contain.

In the base assembly 200, a water storage tank 202 in which water is stored is formed at the top, and an electrode module 201 for electrolyzing water stored in the water storage tank 202 to generate ionized water and hydrogen gas is provided in the water storage tank 202. ) Is provided below, and includes a reservoir tank 203 for casing surrounding the reservoir 202 and the electrode module 201.

The base assembly 200 has a reservoir 202 in which water is stored at the top of the inside. The shape and size of the water storage tank 202 is not particularly limited. The upper portion of the water storage tank 202 is open so that it can communicate with the cap assembly 100, and its lower bottom is preferably in contact with the electrode module 201 for electrolysis of stored water.

The electrode module 201 will cause plasma discharge in water by using a water discharge to make the water into the plasma ions, various anions and cations accordingly (O ^-, O ₃ ^-, OH ^-, H ^+, HOCl, H ₂ O ₂ ). The generated anions and cations react with water to generate ionic or hydrogen water and hydrogen gas. To this end, the electrode module 201 is preferably provided below the water storage tank 202 so that it is always in contact with water.

The electrode module 201 may include a pair of electrode plates 403 and 404 for electrolyzing water and an ion resin film 405 provided therebetween (see FIG. 4). So, when the electrode module 201 is operated, water stored in the water storage tank 202 is electrolyzed so that positive ions such as hydrogen rise to the top of the electrode module 201, and negative ions such as oxygen move to the lower part of the electrode module 201. do. In addition, the hydrogen ions rising to the top of the electrode module 201 becomes hydrogen gas and can be discharged to the outside through the cap assembly 100.

The storage tank housing 203 surrounds the storage tank 202 and the electrode module 201. In particular, the reservoir housing 203 is formed to surround the side edge of the electrode module 201, and the upper surface is opened to form a reservoir 202 in which water is stored. The storage tank housing 203 may cascade around the upper portion of the electrode module 201 to naturally form the storage tank 202.

Then, the cap assembly 100 is fastened to the base assembly 200 through the first gender 310 and discharges hydrogen gas generated from the base assembly 200 to the outside. The cap assembly 100 may have a separate outlet for discharging hydrogen gas to discharge hydrogen gas generated in the base assembly 200 to the outside.

The first gender 310 fastens the base assembly 200 and the cap assembly 100 to each other.

To this end, a spiral groove or a spiral protrusion for coupling with the base assembly 200 and the cap assembly 100 may be formed on the inner side of the first gender 310. The first gender 310 has a central portion opened, and delivers hydrogen water and hydrogen gas generated from the base assembly 200 through the opened area to the cap assembly 100.

The base assembly 200 may be directly engaged with the cap assembly 100, but the hydrogen gas generating device according to the present invention can be combined with a general PET bottle as described below (preferred second embodiment), and a tumbler-type storage container In order to be able to be coupled with (a preferred third embodiment), in the basic first embodiment, the base assembly 200 and the cap assembly 100 are coupled through the first gender 310. That is, it is meaningful to use the first gender 310 to couple the PET bottle and / or the tumbler type storage container in addition to the cap assembly 100 to the base assembly 200.

The present invention can serve as a portable hydrogen gas generator that generates hydrogen gas by electrolysis of water and supplies the generated hydrogen gas.

In particular, the base assembly 200 is configured to separately separate and discharge gas and acidic water, such as oxygen or ozone, generated from the anode (+) in addition to hydrogen gas and hydrogen water generated from the cathode (-) according to electrolysis of water. do.

The electrode module 201 basically includes an electrode structure for electrolysis of water. The electrode structure includes an upper electrode plate to which negative (-) power is applied, and a lower electrode plate to which positive (+) power is applied. , And an ion resin film provided between the upper electrode plate and the lower electrode plate.

The electrode module 201 may be variously configured as necessary, and may be configured by including various components in addition to the electrode structure.

4 is an exploded perspective view showing an embodiment of an electrode module.

Referring to Figure 4, the electrode module 201 according to the present invention, the upper electrode plate 403, the lower electrode plate 404, the ion resin film provided between the upper electrode plate and the lower electrode plate facing each other ( 405) may include an electrode structure made of an electrode structure, and pressurization support parts 401 and 407 for pressing the electrode structure from one side or both sides, and an O-ring disposed between the lower electrode plate 404 and the second pressurization support part 407 ( 402), an intermediate casing member 409, an absorbing member 411 made of a material that is located under the electrode structure and capable of absorbing water, and may include a unit base 415.

That is, the electrode structure of the electrode module 201 and the absorbing member 411 are configured to be wrapped through one or more casing members such as the intermediate casing member 409 and the unit base 415.

The pair of electrode plates includes an upper electrode plate 403 and a lower electrode plate 404 facing each other, and the upper electrode plate 403 is positioned on the lower electrode plate 404.

The upper electrode plate 403 and the lower electrode plate 404 may be configured in various ways. As one example, the upper electrode plate 403 may be formed with a plurality of slits in a specific direction, for example, the x-axis direction, and the lower electrode plate 404 may be formed in a specific direction, for example, the y-axis direction perpendicular to the x-axis direction. A plurality of slits can be formed. Accordingly, the slit formed in the upper electrode plate 403 and the slit formed in the lower electrode plate 404 may be arranged to have a predetermined angle, for example, an acute angle, an obtuse angle, 30 to 90 degrees, 45 to 90 degrees, 90 degrees, and the like. .

The width of each slit is not particularly limited, but considering the stiffness of the electrode plate and the flow rate of water, the interval between adjacent slits and the width of the slits may be designed to be the same.

Extensions for applying power are formed at the edges of the upper electrode plate 403 and the lower electrode plate 404. According to another embodiment, at least one hole is formed in each rim of the upper electrode plate 403 and the lower electrode plate 404, and at least one hole is inserted into and fastened by an electrode rod for applying power to each electrode plate. It might be.

In addition, the upper electrode plate 403 and the lower electrode plate 404 are harmless to the human body and may be formed of a metal having excellent corrosion resistance, heat resistance, and mechanical tensile strength. For example, the upper electrode plate 403 and the lower electrode plate 404 may be formed by using titanium as a material, and then coating or depositing a platinum group metal such as platinum, iridium, palladium, osmium, and ruthenium. . According to another embodiment, the upper electrode plate 403 and the lower electrode plate 404 may be manufactured by coating titanium oxide on a general iron plate and then coating or depositing it using a platinum group material to reduce manufacturing cost.

The electrode plates 403 and 404 may include all types known in the art. For example, it may be disclosed in Korean Patent Registration No. 10-0927445 and / or Korean Utility Model Registration No. 20-0419542.

The ion resin film 405 is positioned between the upper electrode plate 403 and the lower electrode plate 404, and moves ions generated by electrolysis of water in different directions based on the electrode plate. For example, cations, such as hydrogen, may rise to the top of the electrode module 201, and anions, such as oxygen, may move to the bottom of the electrode module 201.

If the power supplied to the electrode plates 403 and 404 is changed and changed differently, it is also possible to move it in reverse. In this case, sterilized water by anion may be generated to the top of the electrode module 201. In addition, the final water 405 is the oxygen ions from the decomposition of water molecules to promote the rate of reaction for generating _{^{(O -, O 3 - -}} ) is to continually respond to other water molecules hydroxyl group (OH).

The pressing supports 401 and 407 are located on the upper and lower portions of the electrode plates 403 and 404. Specifically, it includes a first pressing support portion 401 located on the upper electrode plate 403, and a second pressing support portion 407 located under the lower electrode plate 404.

The first pressing support part 401 may be configured to cover at least a portion of the upper electrode plate 403 from the upper portion of the upper electrode plate 403. The second pressing support part 407 may be configured to support at least a portion of the lower electrode plate 404 at the lower portion of the lower electrode plate 404. The pressure supporting portions 401 and 407 prevent the flow of the electrode plates 403 and 404 and press the electrode plates 403 and 404 on both sides. Accordingly, the upper electrode plate 403 and the lower electrode plate 404 are in close contact with the ion resin film 405 positioned therebetween, and as a result, the reaction rate of generating ion water and hydrogen gas can be further increased.

At least one of the first pressing support portion 401 and the second pressing support portion 407 may be configured to have a convex shape in the direction of the electrode structure.

5 shows a cross-sectional view schematically showing the pressing support units 401 and 407. Looking at this, the first pressing support unit 401 has a convex shape of the central portion downward, and the second pressing support unit 407 has a central portion. It has a convex upward shape. Conventionally, the flat pressing support portion is easily extruded over time, so that the pressing force decreases. As described above, the pressing support portions 401 and 407 with convex in the middle further compress the upper electrode plate 403 and the lower electrode plate 404. can do.

According to another embodiment, only one of the pressing supports 401 and 407 may be convex in the direction of the electrode plate structures 403 and 404. For example, only the first pressing support 401 among the pressing supports 401 and 407 may have a convex shape downward, or only the second pressing support 407 may have a convex upward shape.

In addition, as described above, the upper electrode plate 403 and the lower electrode plate 404 may be overlapped so that a plurality of slits formed therein cross each other to form a hole. At this time, the second pressing support portion 407 may be formed of a flat plate having a through portion corresponding to the hole. Then, it can be pressed in close contact with the electrode plate as much as possible.

The present inventors tested by applying a pressing support made of a flat plate having a through portion corresponding to the hole to both the first and second pressing supports 401, 407. So, although it was possible to increase the production efficiency of ionic water and hydrogen gas as much as possible, in the case of the first pressurization support unit 401, the discharge rate of the generated hydrogen gas is slightly slower, and the first pressurization support unit provided on the upper electrode plate 403 401 has found that it is more desirable to design hydrogen gas to pass easily.

Accordingly, the first pressing support 401 includes a circular outer supporting portion 507 having a first diameter to support the outer periphery of the upper electrode plate 403; A circular central support portion 505 having a second diameter smaller than the first diameter to support the center circumference of the upper electrode plate 403; And connecting supports 501 and 503 connecting the outer support and the central support.

The connection support part may include first and second connection support parts 501 and 503 that cross each other based on the central support part 505, and the first and second connection support parts 501 and 503 are perpendicular to each other. You can cross in the direction. As such, the first pressing support unit 401 can more easily discharge hydrogen gas.

On the other hand, the central support portion 505 constituting the first pressing support portion 401 may be designed to be convex downward or have a relatively low height compared to the outer support portion 507. This is to further compress the electrode plates 403 and 404.

The central support 505 has a relatively convex downward shape, so that the upper electrode plate 403 and the lower electrode plate 404 can be further compressed. Specifically, the central support 505 has a relatively convex downward shape, and thus the height of the lower surface of the central support 505 may be lower than the height of the lower surface of the outer support 507.

According to one embodiment, the first and second connection supports 501 and 503 may be disposed to be parallel to or perpendicular to the slits of the upper electrode plate 403 or the lower electrode plate 404. For example, the first connection support part 501 may be positioned parallel to the slit of the upper electrode plate 403 and perpendicular to the slit of the lower electrode plate 405. Alternatively, the first connection support part 501 may be positioned perpendicular to the slit of the upper electrode plate 403 and may be positioned parallel to the slit of the lower electrode plate 405.

In addition, the first and second connection supports 501 and 503 may be positioned to overlap with at least one of a plurality of electrode bridges constituting the upper electrode plate 403. The plurality of electrode bridges are arranged in one direction at specific intervals to form slits. Any one of the first and second connection supports 501 and 503, for example, the first connection support 501 may be positioned to overlap with at least one of the electrode bridges of the upper electrode plate 403.

In this case, the electrode plate 403 can be compressed as much as possible by the connection support portions 501 and 503, and at the same time, it is possible to reduce as much as possible that the movement of hydrogen gas is inhibited by the connection support portions 501 and 503.

The intermediate casing member 409 is one of the casing members surrounding the side edge of the electrode module 201 so that water does not leak out. The intermediate casing member 409 may be configured to form a spiral protrusion or groove on the side edge to engage the pressing supports 401 and 407 and the unit base 415.

The absorbing member 411 functions to create a wet environment under the electrode plate and to absorb water flowing under the electrode plate. To this end, the absorbent member 411 may be composed of a non-woven fabric, cotton, or fibrous foam.

That is, the absorbing member 411 may function to maintain the ion resin film 405 and / or the electrode plates 403 and 404 in a wet environment. When the electrode plates 403 and 404 and / or the ion resin film 405 are kept wet, electrolysis efficiency and generation efficiency of hydrogen gas may be increased.

The unit base 415 is located under the absorbent member 411 to support and casing the components of the electrode module 201 from the bottom. A sealing member 413 having the same shape as the outline of the edge may be further provided at the edge of the unit base 415.

The unit base 415 is fastened to the reservoir housing 203 and has a protrusion 416 on which at least one side protrudes outwardly so as to correspond to the recovery passage 204 provided on the side of the reservoir housing 203.

6 is an exploded perspective view of an electrode module showing an example of an ion resin film on which a platinum coating layer is formed according to another embodiment of the present invention.

As shown here, the electrode module 201 of the present invention, the negative (-) power supply is applied to the upper electrode plate 403, the positive (+) power supply is applied to the lower electrode plate 404, It includes an electrode structure made of an ion resin film 405 provided between the upper electrode plate 403 and the lower electrode plate 404, and the ion resin film 405 has platinum coating layers 405-1 and 405- on both sides. 2) is formed, the platinum coating layer (405-1, 405-2) is formed on a portion of one surface of the ion resin film 405, or water may pass through the entire surface of the ion resin film 405 It is possible to be formed to a sufficient thickness.

The platinum coating layers 405-1 and 405-2 are layers formed by coating platinum on the upper and lower surfaces of the ion resin film 405. The upper surface platinum coating layer 405-1 formed on the upper surface of the ion resin film 405 is in contact with the upper electrode plate 403, and the lower surface platinum coating layer 405-2 formed on the lower surface of the ion resin film 405 is It is in contact with the lower electrode plate 404. Since platinum has excellent conductivity, it is possible to greatly increase the flow of electrons or flow of current between the upper electrode plate 403 and the lower electrode plate 404, and in this case, absorption that creates a wet environment at the bottom of the electrode structure. Even without the member 11, electrolysis of water is possible between the upper electrode plate 403 and the lower electrode plate 404.

In addition, in order to continuously maintain the possible electrolysis effect even without the absorbing member 11 as described above, the platinum coating layers 405-1 and 405-2 are formed on the entire front or rear surface of the ion resin film 405. In this case, it is preferable to be formed to a thickness sufficient to allow moisture to pass through. Further, the platinum coating layers 405-1 and 405-2 may be formed only partially on the entire surface of the ion resin layer 405 or the entire rear surface. For example, the platinum coating layers 405-1 and 405-2 may have holes or paths through which moisture can pass. Then, platinum coating layers 405-1 and 405-2 are formed on the ion resin film 405 to increase the electrolysis efficiency, as well as create a wet environment at the bottom of the electrode structure (or bottom of the lower electrode plate) to electrolyze. The effect can be maintained continuously.

Furthermore, as another example of the present invention, the electrode module 201 may be located at a lower end of the electrode structure and include a function body 406 made of titanium. The water-containing body 406 may be stored or stored in water, for example, may be formed into a flat shape after sintering titanium. The water-containing body 406 is very excellent in absorbing moisture and can be thinly molded into a flat plate. So, this function body 406 is the bottom of the electrode structure. For example, if the lower electrode plate 404 is disposed below or above or below the second pressing support 407, a wet environment is provided at the bottom of the electrode structure (or at the bottom of the lower electrode plate) without a separate absorbing member 411. There is an effect that can be maintained continuously.

On the other hand, the base assembly 200 of the hydrogen gas generating device 10 according to the present invention is configured to separate and discharge gas and acidic water generated at the anode (+) according to the electrolysis of water through separate paths.

Since the electrode plate to which the anode is applied is the lower electrode plate 404, gas from the space between the lower electrode plate 404 and the unit base 415, that is, the space where the absorbing member 411 is located, to the outside of the base assembly 200 The passage should be formed so that and acidic water can flow and discharge.

7 is a simplified cross-sectional view of the base assembly 200 for explaining the separate discharge of gas and acidic water, the first discharge passage 291 for discharging the gas generated from the anode (+), and the second discharge for discharging acidic water A passage 292 is formed.

Both the first discharge passage 291 and the second discharge passage 292 are formed below the lower electrode plate 404, and the first discharge passage 291 is lower electrode plate 404 than the second discharge passage 292. ). The reason for forming the first discharge passage 291 higher than the second discharge passage 292 is to allow the gas to escape before the acidic water, so that the discharge can be smoothly performed.

In the reservoir housing 203, a recovery passageway 204 is formed inside at least one side surface, and the recovery passageway 204 is connected to the first discharge passage 291 and the second discharge passage 292, respectively.

The gas generated at the anode rises through the recovery passage 204 after exiting the first discharge passage 291, as indicated by arrow 705.

As shown by arrow 706, the acidic water generated at the anode rises through the recovery passage 204 after exiting to the second discharge passage 292 along the lower surface of the casing member on which the absorption member 411 is placed.

The recovery passage 204 may be configured to extend to the outside of the base assembly 200. In addition, a passage 297-1 through which gas and acidic water can flow is formed inside, and a discharge passage matching portion 297 for guiding gas and acidic water flowing through the recovery passage 204 to the outside of the base assembly 200. ).

That is, the discharge passage matching portion 297 serves to guide gas and acidic water flowing through the recovery passage 204 to the outside of the base assembly 200. As shown in the example shown in Figure 7, when the recovery passage 204 is formed in the vertical direction to the base assembly 200, the discharge passage matching portion 297 is configured to have a vertical portion and a horizontal portion by bending 90 degrees, vertical It can discharge gas and acidic water flowing horizontally.

The gas and acidic water discharged from the base assembly 200 are not discharged to the outside but are discharged through the discharge means 600, so that the user can conveniently manage the gas and acidic water generated at the anode such as oxygen or ozone. Can be configured to.

Referring to FIGS. 7 and 8 together, the discharge means 600 may be configured to be detachably attached to the base assembly 200, and the user removes the discharge means 600 and then removes the standing acidic water 611. After discarding or using it where necessary, the discharge means 600 may be installed and used again. 8A shows an example of a state in which the discharge means 600 is mounted on the base assembly 200, and FIGS. 8B and 8C show an example of a state in which the discharge means 600 is removed from the base assembly 200. .

The discharge passage mating portion 297 may also be configured to be detachably attached to the base assembly 200. At this time, the discharge passage matching portion 297 is mounted to the base assembly 200 through an O-ring 297-3, and may be connected to the discharge means 600 through another O-ring 297-4, and the discharge means 600 ) The air cap 680 may be detached through another O-ring 297-5 in the hole formed at the top.

The discharge means 600 is connected to the discharge passage matching portion 297 and receives the gas and acid water discharged to the outside, the inlet 623 for storing the acid water, the inner space 610 for storing the acid water 611, at the anode of the electrode module A hole for discharging the generated gas is formed.

When the discharge means 600 is connected, the gas discharged through the discharge passage matching portion 297 rises upwards through a hole formed in the discharge means 600 and a hole 681 formed in the air cap 680. It is discharged to the outside. Then, the acidic water is collected in the inner space 610 of the discharge means 600.

9 is an example of a casing member for passing gas generated at the anode of the electrode module, FIG. 10 is another exploded perspective view of the electrode module, and FIG. 11 is a cross-sectional view of a specific embodiment of the base assembly.

Referring to Figures 9 to 11 to describe an embodiment of forming the first discharge passage 291 and the second discharge passage 292, the first discharge passage 291 is the edge of the middle casing member 409 Intermittently formed on the upper surface may be configured to escape gas such as oxygen or ozone generated in the lower electrode plate 404. That is, the groove 409-1 and the protruding portion 409-2 may be alternately formed along the edge on the upper portion of the intermediate casing member 409. The groove 409-1 is the first discharge passage 291. ).

The role of the second discharge passage 292 may be configured to be performed by the central partial space of the protrusion 416 formed on one side of the unit base 415 as shown in FIGS. 4 and 10. The unit base 415 is a place where the absorbing member 411 is placed, and the center space of the protrusion 416 formed at the bottom of the unit base 415 and the recovery passage 204 are connected to each other.

Therefore, the liquid exceeding the absorption amount of the absorbing member 411 flows in a rising direction through the recovery passage 204 connected to the center space of the protrusion 416 formed at the bottom of the unit base 415.

In addition, the lower electrode plate 404 may be configured to further include a carbon component odor absorbing material capable of absorbing odor. The odor absorbing material may be used to remove undesirable odor components, such as ozone generated when gas and oxygen, for example, react with oxygen.

The odor absorbing material may be configured using a carbon-based material, and may be variously configured such as being included as a component of the absorbing member 411 or disposed on a top surface of the absorbing member 411 in a film form.

On the other hand, in order for the electrolysis to be efficiently performed in the electrode module 201, it is preferable to maintain a sufficient wet state in the space where the lower electrode plate 404 is present. As one example for this, a method of properly supplying the water contained in the water storage tank to the side of the absorbing member 411 may be used.

In this embodiment, the water stored in the water storage tank 202 may leak into the space where the water absorbing member 411 is located in one or more of the portions S1 in which the water storage housing 203 is in close contact with the casing member supporting the electrode structure. So that a gap can be formed.

For example, it is possible to perform an uneven process such that proper water can be impregnated on the surface S1 where the casing member and the reservoir housing meet.

In addition, a passage (S2) is formed to allow water impregnated here to be transferred to the absorbing member (411). Through this gap (S1) and the passage (S2) it is possible to maintain the space with the absorbing member 411 in a wet state.

At this time, the size of the unevenness may be configured to suit the amount of moisture to be transferred from the reservoir 202 to the space where the absorbing member 411 is located.

In addition, as described with reference to FIG. 4, it is important to increase the electrolysis efficiency by applying an appropriate pressure to the upper electrode plate 403 and the lower electrode plate 404 of the electrode module 201 to maintain a constant interval therebetween. Do.

In this connection, the unit base 415 on which the absorbing member 411 is placed may be further provided with a third pressing support part 411-1 which can apply a constant pressure to the electrode structure. The third pressing support part 411-1 may be configured in various ways. As one example, as shown in the example shown in FIG. 10, the third pressing support part 411-1 may be configured in the form of a square plate protruding perpendicular to the surface on which the absorbing member 411 is placed, but is not limited thereto. .

Although not specifically described in order not to obscure the subject matter of the present invention, the base assembly 200 includes a battery unit 207 for supplying power to a portable device, and a printed circuit board (PCB) for providing electrical circuits. Board), power switch, LED for operation indication, external case, fastening structure for supporting each component, and various elements may be included as needed, of course.

12 is a top perspective view showing a state in which the cap assembly is opened. 13 is a cross-sectional view showing a state in which the cap of the cap assembly is closed. 14 is a bottom perspective view of the cap assembly.

12 to 14, the cap assembly 100 is hingedly coupled with the cap body 113 and the cap body 113 that are fastened to the base assembly 200 through the first gender 301. ) Can be configured to include a cap lid 101 configured to open and close, and an ionized water suction unit 111 disposed at the center of the cap body 113.

The cap body 113 is fastened to the base assembly 200 through the first gender 310.

In the center of the cap body 113, a passage part 112 connected to the ionized water suction part 111 is formed, and the passage part 112 is an upper surface of the base assembly 200 through the opening of the first gender 310. And can be connected.

The cap lid 101 is hinged to the cap body 113 in one region of the cap body 113. The material of the cap lid 101 is not particularly limited, and may be made of an opaque or (semi) transparent material, and when transparent, the user can check the inside when the cap lid 101 is closed.

The ionized water suction part 111 may be located in one region of the cap body 113, for example, in the center of the cap body 113. The ionized water suction part 111 is connected to the passage part 112 of the cap body 113 and allows the user to inhale the hydrogen water generated from the base assembly 200 through the passage part 112. The ionized water suction unit 111 may be formed of a flexible material, and may be folded depending on whether the cap lid 101 is opened or closed. For example, the ionized water suction part 111 is formed of a rubber material, and may be configured to be curved in one direction from the upper surface of the cap body 113.

As shown in FIG. 13, the ionized water suction unit 111 may be bent by the pressure of the cap lid 101 when the cap lid 101 is closed. To this end, the cap body 113 has an ionized water suction unit holder 114 formed to protrude around the ionized water suction unit 111, and when the cap lid 101 is closed, press the upper end of the ionized water suction unit 111 to deionized water. The pressurized portion 115 of the ionized water suction portion that is pressed over the suction portion holder 114 may be provided inside the cap lid 101.

In addition, when the passage portion 112 protrudes downward of the cap body 113, the center has an empty shape, and serves to transfer hydrogen water or hydrogen gas generated from the base assembly 200. To this end, the passage portion 112 is preferably coupled to the lower center region of the cap body 113. In addition, one end of the passage portion 112 is an upper surface of the base assembly 200, an upper surface of the electrode module 201 or electrode structure, an upper surface of the upper pressurizing support portion 401, or an upper surface of the upper electrode plate 403. It is preferable that it extends to be close to the vicinity, and it is also possible to contact the upper surface. The present inventors initially designed the lower end of the passage part 112 to be far away from the upper surface of the base assembly 200 or the electrode module 201, but in this case, the efficiency in which hydrogen gas is transmitted from the passage part 112 to the outside I have noticed this low drawback. In order to solve this disadvantage, the present inventors have repeatedly experimented, and as a result, when the lower end of the passage portion 112 is brought close to the upper surface of the base assembly 200 or the electrode module 201 (preferably 0.1 from the upper surface). cm ~ 2.0cm), it was confirmed that the delivery efficiency of hydrogen gas is greatly increased.

In addition, the cap body 113 has a hydrogen gas delivery port 123 that passes through the cap body 113 and transmits the hydrogen gas collected inside the base assembly 200 to the outside, and the cap lid 101 is When the cap lid 101 is penetrated and the cap lid 101 is closed, it is possible to have a hydrogen gas outlet 121 communicating with the hydrogen gas delivery port 123 inside the cap lid 101.

That is, the hydrogen gas delivery port 123 may be configured to penetrate a specific region of the cap body 113. The hydrogen gas delivery port 123 is configured to discharge hydrogen gas collected inside the base assembly 200 to the outside. When the apparatus operates, the hydrogen gas generated in the base assembly 200 is collected to increase the internal pressure of the base assembly 200, but if it increases above a predetermined pressure, through the hydrogen gas delivery port 123 It is released to the outside to prevent bursting or explosion.

The hydrogen gas delivery port 123 may be made of a soft or rigid material.

That is, the hydrogen gas delivery port 123 may be made of rubber, plastic, or metal. Among them, when the hydrogen gas delivery port 123 is made of a pipe made of rubber, the surface of an auxiliary device (for example, a needle) inserted into the hydrogen gas delivery port 123 can be brought into close contact with surface contact, so that It has the effect of blocking the gas leak.

In addition, a hydrogen gas outlet 121 corresponding to the hydrogen gas delivery port 123 may be formed in a specific region of the cap lid 101. The hydrogen gas outlet 121 communicates with the hydrogen gas delivery port 123 when the cap lid 101 is closed. The hydrogen gas outlet 121 may include a first cover made of a rubber material corresponding to the diameter of the hydrogen gas delivery port 123, and a second cover surrounding and supporting the first cover.

In addition, the cap body 113 has a cap sealing 119 on the back surface, and the cap sealing 119 is a hydrogen gas delivery opening and closing portion 125 torn in a cross shape (+) at a position corresponding to the hydrogen gas delivery port 123. It is preferred to have. According to one embodiment, the hydrogen gas delivery opening and closing portion 125 may be formed by tearing a portion of the cap sealing 119 into a cross shape (+), as shown. Alternatively, it may be configured in a circular or polygonal shape.

That is, a cap sealing 119 may be formed on the rear surface of the cap body 113 so that water does not leak out, and the cap sealing 119 may be made of rubber or silicone as a flexible material. According to an embodiment, the cap sealing 119 has a hole formed at a position in communication with the hydrogen gas delivery port 123 (for example, a position overlapping with the hydrogen gas delivery port), and hydrogen gas having a predetermined pressure or more in the base assembly 200 When is formed, it serves to eject it to the hydrogen gas delivery port (123). To this end, an embodiment of the present invention may further include an auxiliary device (eg, an injection needle), and the auxiliary device is formed with a tube through which a gas or a fluid can pass, and an upward direction of the cap body 113 It is possible to be inserted into the hydrogen gas delivery port (123). The auxiliary mechanism may pass through the hydrogen gas transmission opening and closing portion 125 of the cap sealing 119 to communicate with the base assembly 200.

15 is a perspective view showing the appearance of a hydrogen gas generator according to a second preferred embodiment of the present invention. FIG. 16 is a perspective view showing an external shape in which the hydrogen gas generator shown in FIG. 15 is assembled. 17 is a view showing a state of use of a hydrogen gas generating device according to a second preferred embodiment of the present invention.

15 to 17, the hydrogen gas generator according to the second embodiment of the present invention has a first fastening part 321 that can be fastened with a PET bottle 330, and can be fastened with the base assembly 200. It characterized in that it further comprises a second gender 320 having a second fastening portion 322 at the bottom, to supply hydrogen water to the waste bottle 330.

A first fastening portion 321 protruding to be engaged with the spout of the PET bottle 330 is formed on one side of the second gender 320, for example, an upper surface. On the other side of the second gender 320, for example, a lower surface, a second fastening portion 322 protruding to be engaged with an upper portion of the base assembly 200 is formed.

The first fastening part 321 is formed in a circular shape having a first diameter to correspond to the spout diameter of the PET bottle 330. The first fastening part 321 is formed with a spiral groove or protrusion to correspond to the spiral protrusion formed on the spout of the PET bottle 330. The second fastening portion 322 is configured as a circle having a second diameter to correspond to the diameter of the water storage tank 202 located on the upper portion of the base assembly 200. The second fastening portion 322 is formed with a spiral groove or protrusion to correspond to the spiral protrusion formed in the water storage tank 202.

Here, the second gender 320 may be configured to have an inner wall 323 having a cross section of upper and lower light in a direction from the first fastening part 321 to the second fastening part 322.

That is, the first diameter of the first fastening portion 321 is smaller than the second diameter of the second fastening portion 322. When the hydrogen water is generated in the electrode module 201 and is ejected in the narrow inlet direction of the PET bottle 330, a large amount of hydrogen water and hydrogen gas are generated temporarily, so that a large amount of water is generated inside or above the second gender 320. When hydrogen water and hydrogen gas collide, they are formed there, and thus stagnant hydrogen water and hydrogen gas reduce efficiency and reduce the amount of hydrogen water supplied into the PET bottle 330.

Indeed, the inner wall of the second gender 320, which was first manufactured by the present inventor, was vertically formed on the side surface and the top surface, and the efficiency of hydrogen water generation was low, and the amount of hydrogen water supplied into the PET bottle was remarkably small. Thus, the present inventors configured the inner wall 323 having a cross section of upper and lower light inside the second gender 320, and finally it was possible to increase the efficiency and supply of hydrogen water.

The present invention may be configured to convert the water stored in the PET bottle 330 into sterile water by fastening the PET bottle 330 to the base assembly 200.

Since the size of the spout is standardized, the container of the PET bottle 330 can be easily obtained on a daily basis, and the device of the present invention has an advantage of excellent compatibility in generating sterilized water.

18 is a perspective view showing the appearance of a hydrogen gas generating device according to a third preferred embodiment of the present invention, and FIG. 19 is a perspective view showing the appearance of the hydrogen gas generating device shown in FIG. 18 assembled.

18 and 19, a hydrogen water generator according to another embodiment of the present invention includes a storage container 350 and a mineral supply unit 340. That is, the upper assembly of the base assembly 200 and the lower portion of the cap assembly 100 can be combined, and is provided inside the storage container 350 for storing water and hydrogen water, and the storage container 350, the storage container ( Including the mineral supply unit 340 for supplying minerals to water and hydrogen water stored in 350), it is characterized in that it can be used for tumblers.

The storage container 350 is a tumbler type container designed to be combined with an upper portion of the base assembly 200 and a lower portion of the cap assembly 100.

The water stored in the storage container 350 may be converted into hydrogen water or sterilized water by the base assembly 200. In addition, the hydrogen gas generated by the base assembly 200 is supplied to the cap assembly 100 through the interior of the storage container 350, the cap assembly 100 is configured to discharge the supplied hydrogen gas to the outside.

The storage container 350 may be formed of a transparent material, and configured to allow a user to visually check the process of generating hydrogen water or sterilized water during operation of the device of the present invention.

The mineral supply unit 340 may be inserted into the storage container 350 to purify water stored in the storage container 350 and supply it to the base assembly 200. To this end, the mineral supply unit 340 has a cylindrical shape arranged in the longitudinal direction of the storage container 350, and the lower end of the cylindrical shape is preferably smaller in diameter.

If the mineral supply unit 340 is formed in a cylindrical shape, and the diameter of the cylinder is designed to become narrower as it gets closer to the base assembly 200, it is possible to increase the supply period of the mineral supply unit 340 while increasing the mineral supply efficiency. Because there is.

The mineral supply part 340 is disposed in the longitudinal direction of the storage container 350 in the central portion of the storage container 350. A plurality of openings through which water stored in the storage container 350 penetrates is formed on the outer side of the mineral supply unit 340.

In the above, the present invention has been illustrated and described in relation to a specific preferred embodiment, but the present invention may be variously modified and changed within the limits that do not depart from the technical features or fields of the present invention provided by the following claims. Being able is obvious to those of ordinary skill in the art.

10: hydrogen gas generator
100: cap assembly
101: cap lid
111: ion water intake
112: passage
113: cap body
114: Ion water suction unit holder
115: ion water suction section pressurization section
119: cap sealing
121: hydrogen gas outlet
123: hydrogen gas delivery port
125: hydrogen gas transmission opening and closing part
200: base assembly
201: electrode module
202: water tank
203: reservoir housing
204: recovery passage
207 battery
291: first discharge passage
292: Second discharge passage
297: discharge channel matching portion
310: first gender
320: second gender
321: first fastening
322: second fastening
323: inner wall
330: PET bottle
340: mineral supply
350: storage container
401: first pressing support
403: upper electrode plate
404: lower electrode plate
405: ion resin membrane
405-1, 405-2: Platinum coating layer
406: function body
407: second pressing support
409: intermediate casing member
411: absorbent member
411-1: Third pressing support
415: unit base
416: protrusion
600: discharge means
610: internal space of the discharge means
680: air cap

Claims (21)

A reservoir assembly in which water is stored, an electrode module for electrolyzing the water stored in the reservoir is provided below the reservoir, and a base assembly including a reservoir tank housing the reservoir and the electrode module for casing; And
It is fastened to the base assembly through a first gender, and includes a cap assembly for discharging the hydrogen gas generated in the base assembly to the outside,
The base assembly is configured to separate and discharge gas and acidic water generated at the anode according to the electrolysis of water,
The electrode module includes an upper electrode plate to which negative (-) power is applied, a lower electrode plate to which positive (+) power is applied, and an ion resin film provided between the upper and lower electrode plates. An electrode structure,
The electrode module is wrapped through at least one casing member,
The casing member is formed with a first discharge passage for discharging the gas generated at the anode and a second discharge passage for discharging acidic water,
The reservoir housing is provided with a recovery passage formed in at least one side and connected to the first discharge passage and the second discharge passage,
The first discharge passage is formed in a position closer to the lower electrode plate than the second discharge passage, the hydrogen gas generating device. According to claim 1,
The electrode module is located at the bottom of the electrode structure, the hydrogen gas generating device characterized in that it comprises an absorbent member made of a material capable of absorbing water. According to claim 1,
The ion resin film is a hydrogen gas generating apparatus characterized in that a platinum coating layer is formed on both sides. The method of claim 3,
The electrode module is located at the bottom of the electrode structure, hydrogen gas generating apparatus comprising a water-containing body made of titanium. According to claim 1,
Hydrogen gas generating apparatus characterized in that it comprises a discharge passage matching portion for guiding the gas and acidic water flowing through the recovery passage to the outside of the base assembly. delete The method of claim 5,
Further comprising a discharge means having a suction port to be connected to the discharge passage mating portion,
The discharge means has an internal space for storing the acidic water, a hydrogen gas generating apparatus characterized in that the hole is formed to discharge the gas generated from the anode at the top. The method of claim 7,
The discharge means is a hydrogen gas generating device, characterized in that configured to be detachably attached to the base assembly. According to claim 2,
Hydrogen gas generating apparatus, characterized in that a passage is formed through which the water in the water tank can leak into the space where the absorption member is placed. The method of claim 9,
Hydrogen gas generating apparatus characterized in that the reservoir housing is formed in the concavo-convex so that the water of the reservoir is leaking to at least one of the parts in close contact with the casing member supporting the electrode structure. According to claim 2,
Hydrogen gas generating apparatus, characterized in that the lower electrode plate is provided with a carbon-based odor absorber. According to claim 2,
A hydrogen gas generating device characterized in that the casing member on which the absorbing member is placed is provided with a third pressing support portion that applies a constant pressure to the electrode structure. The method of claim 12,
The third pressurizing support unit is a hydrogen gas generating device, characterized in that it is configured in the form of a plate protruding perpendicular to the surface on which the absorbing member is placed. According to claim 1,
The cap assembly may include a cap body that is fastened to the base assembly through the first gender; A cap lid hingedly coupled to the cap body and configured to open and close the cap body; And an ion water suction part disposed at the center of the cap body. The method of claim 14,
The cap body, through the cap body, has a hydrogen gas delivery port for transmitting the hydrogen gas collected in the interior of the base assembly to the outside,
The cap lid, the hydrogen gas generating device characterized in that it has a hydrogen gas outlet inside the cap lid that penetrates the cap lid and communicates with the hydrogen gas delivery port when the cap lid is closed. The method of claim 15,
The cap body has a passage portion having a shape protruding downward from the cap body,
The passage portion is a hydrogen gas generating device, characterized in that extended so as to approach or contact the upper surface of the electrode module. The method of claim 15,
The hydrogen gas delivery port is a hydrogen gas generator, characterized in that made of a pipe made of rubber. The method of claim 14,
The cap body has an ion water suction unit holder formed to protrude around the ion water suction unit,
The cap lid, a hydrogen gas generating device characterized in that it has a pressurized ion water suction unit pressurizing portion inside the cap lid to press the top of the ion water suction unit when the cap lid is closed so as to span the ion water suction unit holder. The method of claim 17,
The cap body has a cap sealing on the back, and the cap sealing has a hydrogen gas delivery opening and closing portion torn in a cross shape (+) at a position corresponding to the hydrogen gas delivery port. According to claim 1,
Further comprising a second gender having a first fastening portion that can be fastened to the PET bottle, and a second fastening portion that can be fastened to the base assembly at the bottom,
Hydrogen gas generator, characterized in that for supplying hydrogen water to the PET bottle. According to claim 1,
A storage container that can be combined with an upper portion of the base assembly and a lower portion of the cap assembly and stores water and hydrogen water; And
It is provided inside the storage container, including a mineral supply for supplying minerals to the water and hydrogen water stored in the storage container,
Hydrogen gas generator, characterized in that it can be used for tumblers.

Images