KR20190064185A - smart Water generation device - Google Patents

Abstract

The present invention relates to a smart hydrogen water generating device. More particularly, the present invention relates to a smart hydrogen water generating device which provides bottled water bottle connector with ring or bolt standardized to a size of a water outlet of each bottled water bottle manufacturer, facilitates discharge of oxygen generated when hydrogen water is generated by forming an electrode in an inclined manner, provides alkali hydrogen water generation and ozone generation by submerging the entire membrane filter in water, can separate a connecting frame including a hydrogen water generating unit from a lower body unit to enable cleaning and replacement, and enables microbial sterilization by forming a UV LED unit.

Description

Smart water generation device {smart water generation device}

The present invention relates to a smart water producing apparatus, and more particularly, to a bottled water bottle connector having a ring type or a bolt type that is standardized in accordance with the size of a water outlet of a manufacturer of a bottled water bottle, And the membrane filter is entirely immersed in water to provide an advantage that no alkaline water is generated and ozone is not generated, and a connecting frame including a hydrogen-producing portion from a lower body portion And a sterilizing device for sterilizing the microorganisms. The present invention relates to a smart water producing device for sterilizing microorganisms.

Water in which hydrogen is dissolved is referred to as hydrogenated water. In general, water containing hydrogen at about 0.2 ppm to 1.6 ppm at ordinary temperature is referred to as hydrogenated water.

Currently, the portable water-based hydrogen generation device that is mainly used is a waterless electrolytic cell in which a platinum electrode or an electrode coated with a platinum group element is used to electrolyze water to generate hydrogen at the cathode side to generate hydrogen-containing water, that is, hydrogen peroxide .

However, in addition to water, there is a very small amount of salt (NaCl) existing in ionic form (Na +, Cl-) in water such as tap water and ground water generally used. When water containing such a salt is electrolyzed, (Cl-) is oxidized to generate chlorine (Cl2 (g)), and a substance other than hydrogen such as sodium hypochlorite (NaOCl), which is a chlorine disinfectant used for tap water disinfection, is generated.

The reaction in which sodium hypochlorite (NaOCl) is produced is as follows.

Anodic reaction

2Cl- > Cl2 + 2e

2H2O - > 4H + + O2 + 4e

Cathode reaction

2H 2 O + 2 e? 2 OH - + H 2

Na + + OH-? NaOH

Total reaction

NaOH + Cl2 -> NaOCl + NaCl + H2O

In addition, when hydrogen-free water is electrolyzed to generate hydrogen peroxide to prevent the formation of sodium hypochlorite (NaOCl), ozone (O3) is generated on the anode side. The water electrolysis reaction is as follows.

Anodic reaction

2H2O - > 4H + + O2 + 4e

Cathode reaction

2H 2 O + 2 e? 2 OH - + H 2

Total reaction

2H2O - > 2H2 + O2

On the other hand, the theoretical voltage for water electrolysis is 1.23V, but in order to actually electrolyze water, a voltage (overvoltage) higher than the theoretical voltage is required by various conditions such as the distance between electrodes and the electrolyte.

2H2O? 4H + + O2 + 4e (E0 = 1.23V)

When an overvoltage is applied to the platinum electrode, ozone is generated and the reaction at this time is as follows.

3H2O? 6H + + O3 + 6e (E0 = 1.51V)

As a result, water containing ozone other than hydrogen is generated.

In order to solve the problem of generating sodium hypochlorite (NaOCl) and ozone in generating hydrogen water, a technique has been developed which includes an activated carbon filter for adsorbing and removing chlorine and volatile substances, 2013-0073831 " Hydrophilic Water Production Apparatus ".

However, in the above-described conventional technique, a separate structure must be applied for the filter mounting, and there is a problem that the filters must be replaced periodically.

In addition, bacterial propagation occurs in the filter, causing hygienic problems.

In addition, since hydrogen as a nonpolar gas is not easily dissolved in water, a means for increasing the amount of dissolved hydrogen is needed.

On the other hand, hydrogen is generated in the cathode of the conventional hydrogen generator, and in the discharge of chlorine and ozone from the anode, a water-soluble polymer electrolyte material is inserted between the cathode and the anode to convert water located at the top of the cathode into hydrogen water. The upper part of the module leaks water, and the module is attached to the lower part of the module with a structure in order to avoid influences such as immersion in the circuit board and the battery of the lower part, and holes are arranged on the side to discharge ozone and chlorine.

In the method of discharging ozone and chlorine by arranging the holes in the side surface of the close contact with the close contact, the ozone can not properly be discharged in the actual product, and the ozone generated in the anode can be discharged from the water soluble polymer electrolyte of the module, And the ozone-containing hydrogen tends to be generated.

The water produced in this way may contain ozone, which can have a deleterious effect on the human body.

Therefore, there is a need for a new method of generating hydrogen water to improve the above problems.

Korean Patent Laid-Open No. 2013-0073831 Hydrophilic Water Production Apparatus (2013.07.03) Korean Registered Patent No. 10-1604804 Hydrophobic generation device (2016.03.18)

SUMMARY OF THE INVENTION Accordingly, the present invention has been made keeping in mind the above problems occurring in the prior art,

SUMMARY OF THE INVENTION It is an object of the present invention to provide a bottled water bottle connector having a ring type or a bolt type that is standardized in accordance with the size of a water outlet of a manufacturer of a bottled water bottle.

Another object of the present invention is to make the electrode part oblique so as to facilitate the discharge of oxygen generated during the generation of hydrogen peroxide.

It is still another object of the present invention to provide an advantage that the entire membrane filter is immersed in water to generate alkali water and ozone.

It is a further object of the present invention to allow the lower frame body to separate and clean the connection frame including the water generating unit.

It is another object of the present invention to provide a UV-ID unit for sterilizing microorganisms.

In order to achieve the object of the present invention,

According to an aspect of the present invention, there is provided a smart water /

A water storage part 100 connected to the connection frame coupled to the hydrogen aquatic part, and an upper part opened,

A lid part 200 fastened or separated on the upper part of the water storage part,

A coupling part 310 formed on the upper side so that the lower side of the water storage part is fastened or separated;

An oxygen discharge port 321 horizontally formed at the lower end of the coupling part for discharging the oxygen generated during the production of hydrogenated water to the outside, and a water inlet 322 for supplying the water to be supplied to the hydrogen- And a horizontal part

And a detachable attachment part 330 formed on a lower side surface of the horizontal part and detachably attaching to the lower body part 500,

A hydrogen aquatic part 400 formed inside the connection frame and having an electrode part therein, for electrolyzing water injected through a water inlet;

And a lower body part 500 having a detachable attachment part 510 formed on a side thereof to rotate with a detachable part 330 having a connection frame formed on one side thereof and a battery part 520 therein, Thereby solving the problems of the present invention.

On the other hand, in the hydrogen-water producing apparatus for producing hydrogen water by dissolving hydrogen generated by the electrolytic method of water according to another embodiment in raw water,

A coupling part 310 formed on the upper side so that the lower side of the water storage part is fastened or separated;

An oxygen discharge port 321 horizontally formed at the lower end of the coupling part for discharging the oxygen generated during the production of hydrogenated water to the outside, and a water inlet 322 for supplying the water to be supplied to the hydrogen- And a horizontal part

And a detachable attachment part 330 formed on a lower side surface of the horizontal part and detachably attaching to the lower body part 500,

A hydrogen aquatic part 400 formed inside the connection frame and having an electrode part therein, for electrolyzing water injected through a water inlet;

And a lower body part 500 having a detachable attachment part 510 formed on a side thereof to rotate with a detachable part 330 having a connection frame formed on one side thereof and a battery part 520 therein, Thereby solving the problems of the present invention.

At this time, according to the present invention, the connection between the detachable attachment portion 330 formed on the connection frame 300 and the detachable attachment portion 510 formed on the lower body portion 500 is released to release the hydrogen aquatic portion 400 from the lower body portion, So that the connection frame 300 can be cleaned.

The smart water producing apparatus according to the present invention comprises:

The bottled water bottle connector having a ring type or a bolt type that is standardized according to the size of the water outlet of the bottled water bottle maker provides the advantage that it can be used irrespective of the size of the water discharge port per bottled water.

In addition, since the electrode portion is inclined to facilitate the discharge of oxygen generated during the generation of hydrogen water, oxygen is leaked along the rim and is combined with hydrogen (H), thereby reducing the hydrogen dissolution amount.

In addition, the entire membrane filter is immersed in water, thereby providing the advantage of not generating alkali water and generating ozone.

In addition, since the connection frame including the hydrogen generation section can be separated from the lower body section, the cleaning and exchange can be performed, thereby eliminating the economic burden of purchasing the expensive hydrogen generation apparatus again.

In addition, it is possible to sterilize the microorganisms by constructing the UV LED unit, thereby providing an advantage that the clean water can be continuously supplied.

1 is a perspective view of a smart water producing apparatus according to an embodiment of the present invention.
2 is a perspective view of a smart water producing apparatus according to an embodiment of the present invention.
FIG. 3 is a view illustrating an example in which a water bottle is placed in a smart water producing apparatus according to an embodiment of the present invention to introduce water.
FIG. 4 is a perspective view illustrating a connector frame and a bottled water bottle connector of a smart water producing apparatus according to an embodiment of the present invention.
FIG. 5 is a perspective view illustrating a connection frame and a lower body portion of the smart water producing apparatus according to an embodiment of the present invention and an example of the present invention.
6 to 7 are exploded perspective views of a hydrogen generating unit of a smart water generating apparatus according to an embodiment of the present invention and an example of the present invention.
FIG. 8 is a perspective view of a power supply module of a hydrogen generating unit of a smart water generating apparatus according to an embodiment of the present invention. FIG.
FIG. 9 is a cross-sectional view of a water generating unit of a smart water producing apparatus according to a second embodiment of the present invention, FIG. 10 is a cross-sectional view taken at another angle, and FIG.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, embodiments of the smart water producing apparatus according to the present invention will be described in detail.

1 is a perspective view of a smart water producing apparatus according to an embodiment of the present invention.

1, the smart water producing system according to an embodiment includes a water storage unit 100, a lid unit 200, a connection frame 300, a hydrogen aquatic part 400, , And a lower body part (500).

More specifically, the water storage unit 100 is open at the top and has a cylindrical shape in which water can be introduced therein.

In this case, the upper side is connected to the lid part on the upper side, and the lower side is coupled to the connection frame connected to the hydrogen aquatic part.

The lid part 200 is fastened or separated to the upper part of the water storage part. When the lid part 200 is used, the lid part is separated and the water is injected. When not used, the lid part 200 is fastened to prevent foreign matter from entering from outside.

At this time, preferably, the coupling between the water storage part and the lid part constitutes a thread and a thread groove, and is used to rotate them, and any method capable of attaching and detaching may be used.

In addition, the hydrogen aquatic part 400 is formed inside the connection frame 300 and the connection frame, and the connection is made between the lower body part 500 and the connection frame.

The connection frame 300, the hydrogen aquatic part 400, and the lower body part 500 will be described in detail below.

2 is a perspective view of a smart water producing apparatus according to an embodiment of the present invention.

FIG. 3 is a view illustrating an example in which a water bottle is placed in a smart water producing apparatus according to an embodiment of the present invention to introduce water.

The smart water producing apparatus according to the embodiment of the present invention shown in FIGS. 2 to 3 is a water producing apparatus using a bottled water bottle without a water storage unit.

That is, it comprises a connection frame 300, a hydrogen aquatic part 400 and a lower body part 500 formed inside the connection frame.

The connection frame 300, the hydrogen aquatic part 400, and the lower body part 500 will be described in detail below.

FIG. 4 is a perspective view illustrating a connector frame and a bottled water bottle connector of a smart water producing apparatus according to an embodiment of the present invention.

FIG. 5 is a perspective view illustrating a connection frame and a lower body portion of the smart water producing apparatus according to an embodiment of the present invention and an example of the present invention.

As shown in FIG. 4, the connection frame 300 includes a coupling part 310 formed on the upper side so that the lower side of the water storage part is fastened or separated,

An oxygen discharge port 321 horizontally formed at the lower end of the coupling part for discharging the oxygen generated during the production of hydrogenated water to the outside, and a water inlet 322 for supplying the water to be supplied to the hydrogen- And a horizontal part

And a detachable part 330 formed on a lower side surface of the horizontal part and detachably attaching to the lower body part 500.

Specifically, the coupling portion 310 is formed to be coupled or separated below the water storage portion on the upper side of the connection frame 300. Inside the coupling portion 310, a screw thread or a screw groove is formed to be fastened to the lower side of the water storage portion .

In addition, the horizontal portion 320 is formed horizontally continuously on the lower end of the coupling portion 310.

At this time, an oxygen discharge port 321 for discharging the oxygen generated during the production of the hydrogenated water to the outside is formed at one side of the horizontal part, and a water inlet 322 for supplying the water supplied to the other side to the hydrogen aquatic part 400 ).

As shown in FIG. 5, a lower body portion 500 is formed on a lower side surface of the horizontal portion, and a detachable attachment portion 330 for detachably attaching the lower body portion 500 is formed.

At this time, the lower body 500 has a detachable part 510 formed at one side thereof to rotate with a detachable part 330 having a connection frame formed at one side thereof, and a battery part 520 is included in the detachable part.

Therefore, the attachment / detachment unit 330 of the connection frame and the attachment / detachment unit 510 of the lower body unit are rotated and detached or separated from each other.

In the meantime, if the screw groove is formed in the inside of the coupling part 310, the bottled water bottle connectors 350a, 350b, 350c (350a, 350b, 350c) having ring type or bolt type standardized to fit the size of the water outlet ) Can be coupled by turning.

That is, the separate water bottle connector is coupled to the screw groove formed on the inner side of the coupling part 310 to be coupled.

Therefore, the water bottle connector has:

And a screw groove for turning and coupling with the screw thread formed in the water outlet of the bottled water bottle is formed inside.

At this time, in the case of the ring shape 350a, a screw thread is formed on the outer side to be engaged with the thread groove formed in the coupling portion.

When the threaded portion is formed on the inner side of the ring-shaped portion, the threaded portion can be engaged with the threaded groove formed in the water outlet of the water tank.

In the case of the ring type, it is a type suited to the size of a discharge port of a water bottle generally manufactured in the Republic of Korea.

On the other hand, in the case of the bolts 350b and 350c, a screw thread is formed in the vertical portion to be coupled to the screw groove formed in the coupling portion.

When the bolt-like inner side is similarly formed with a thread, it is possible to turn it into a screw groove formed in the water discharge port of the water tank.

In the case of the above-mentioned bolt type, it is generally a method suited to the size of the outlet of a water bottle manufactured in foreign countries, especially in the United States.

Namely, it is intended to provide a water bottle connector having a ring type or a bolt type, which is standardized in accordance with the size of the water outlet of the bottled water bottle maker, thereby providing advantages that can be used irrespective of the size of the water outlet per bottled water.

6 to 7 are exploded perspective views of a hydrogen generating unit of a smart water generating apparatus according to an embodiment of the present invention and an example of the present invention.

FIG. 8 is a perspective view of a power supply module of a hydrogen generating unit of a smart water generating apparatus according to an embodiment of the present invention. FIG.

FIG. 9 is a cross-sectional view of a water generating unit of a smart water producing apparatus according to a second embodiment of the present invention, FIG. 10 is a cross-sectional view taken at another angle, and FIG.

6 to 7, the hydrogen aquifer part 400 includes a power supply module 420, a water leakage prevention module 430, an electrode part protection plate 440, and an electrode part 450, ; And

As shown in FIG. 8, the power supply module 420 constitutes a power supply line 421 at regular intervals and receives power from the battery 520 through a power supply line.

In other words, four lines (1, 2, 3, 4) of circular power supply lines are spaced apart from each other at regular intervals, and a wire is connected to the power supply line. The ends of the wires are connected to a titanium rod 422 ), And the power is supplied to the electrode portion through the titanium rod.

In addition, the power supply module may include a power supply board, and the power supply board may be provided with a power supply unit 425.

At this time, by configuring the CPU in the PC board, it becomes possible to control the operation of the power supply control and the water-number generating unit.

The water leakage prevention module 430 is formed on the upper side of the power supply module to prevent the inflow water from flowing out to the power supply module formed on the lower side and form the inclined part 431 on one side.

By forming the inclined portion, the electrode portion protection plate 440 that is seated in the inclined portion can also be inclined.

That is, the inclined portion is formed so as to become thicker toward the end on either side.

As shown in FIG. 7, a vertical portion is formed perpendicularly to one end. However, by forming an LED in the vertical portion, the LED is lit in operation, .

The electrode protection plate 440 is formed on the upper side of the water leakage prevention module.

In this case, an electrode unit lower end protection module 441 for coupling the lower side of the electrode unit, an electrode unit 450 having one side connected to the electrode lower side protection module and the other side coupled to the electrode side protection module, Thereby forming the electrode floating terminal protection module 442 for coupling.

9, one side of the electrode portion protection plate is formed to be higher than the other side, as shown in FIG.

For example, it is intended to increase the oxygen-discharging site so that the oxygen can move upward by riding on the oblique line.

That is, since oxygen rises upward, it is intended to naturally move along the slope line.

In other words, the electrode unit 450 is formed to be inclined so that the oxygen generated during the production of the hydrogenated water can be easily discharged along the inclined surface when the oxygen is discharged to the oxygen outlet 321.

This is because if the angle of inclination is not given, oxygen is leaked out of the rim, and the hydrogen is combined with the hydrogen on the upper side to lower the hydrogen dissolution amount.

The conventional hydrogen water generating apparatus has a disadvantage in that oxygen is discharged to the rim because the oxygen generating apparatus discharges oxygen from the horizontal plane.

To improve this, a structure having the above-mentioned inclination angle is developed.

11, the electrode unit 450 includes a positive electrode and a negative electrode. The positive electrode 451 is sloped downwardly inside the electrode unit protection plate, and the positive electrode 451, which is formed obliquely above the inside of the electrode unit protection plate, (452) and a membrane filter formed between the positive electrode and the negative electrode.

And, the water supplied by the bottled water is introduced into the water leakage preventing module 430, so that the membrane filter is immersed so that the alkaline hydrogen water is generated, and no ozone is generated.

That is, as shown in FIG. 9, since the water is filled from the upper surface of the water leakage preventing module 430, the membrane filter between the electrode portions is naturally immersed.

In the case of the prior art, only the upper part of the membrane filter is immersed, thereby causing ozone generation.

However, when the membrane filter is completely immersed in water, alkaline hydrogen water is produced, chlorine is dissolved in water, and acidic chloric acid is generated.

Therefore, ozone is not generated.

The principle of this is specifically described in Korean Patent Registration No. 10-1604804, which is a hydrogen-water generating device, and therefore, a detailed description thereof will be omitted.

In the meantime, the power supply module 420,

And a UV LED part 425 is formed at a certain area. The UV lamp part 425 is connected to a power supply line and is supplied with power and is lighted to perform a sterilizing action.

That is, by operating the UV LED unit when it operates, the sterilizing action is performed.

An operation signal is obtained upon operation according to lighting control of a CPU formed on the PCB, and the UDY LED unit operates.

The coupling between the detachable part 330 formed on the connection frame 300 and the detachable part 510 formed on the lower body part 500 can be rotated and released.

Therefore, the connection frame 300 including the hydrogen aquatic part 400 can be cleaned from the lower body part.

That is, most of the conventional hydrogen generating apparatuses are formed integrally with the hydrogen generating unit.

Therefore, it is impossible to clean the electrode unit, and the expensive water-producing apparatus can not be reused, resulting in a problem of being discarded after a lapse of a predetermined time.

In order to solve the problem, the above-described detachment and attachment method is introduced.

Accordingly, the connection frame 300 containing the hydrogen aquatic part 400 can be separated from the lower body part after a lapse of a predetermined time, thereby providing an advantage that the connection frame 300 can be cleaned.

By providing the bottled water bottle connector having the ring type or the bolt type that is standardized according to the size of the water outlet of each bottled water manufacturer through the above-described structure and operation, it can be used regardless of the size of the water outlet of each bottled water do.

In addition, since the electrode portion is inclined to facilitate the discharge of oxygen generated during the generation of hydrogen water, oxygen is leaked along the rim and is combined with hydrogen (H), thereby reducing the hydrogen dissolution amount.

In addition, the entire membrane filter is immersed in water, thereby providing the advantage of not generating alkali water and generating ozone.

In addition, since the connection frame including the hydrogen generation section can be separated from the lower body section, the cleaning and exchange can be performed, thereby eliminating the economic burden of purchasing the expensive hydrogen generation apparatus again.

In addition, it is possible to sterilize the microorganisms by constructing the UV LED unit, thereby providing an advantage that the clean water can be continuously supplied.

It will be understood by those skilled in the art that the present invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. It is to be understood, therefore, that the embodiments described above are to be considered in all respects as illustrative and not restrictive.

100: Water storage section
200:
300: Connection frame
400: hydrogen aquatic part
500: Lower body part

Claims (5)

1. A hydrogen generation device for producing hydrogen water by dissolving hydrogen generated by an electrolysis method of water in raw water,
A water storage part 100 connected to the connection frame coupled to the hydrogen aquatic part, and an upper part opened,

A lid part 200 fastened or separated on the upper part of the water storage part,

A coupling part 310 formed on the upper side so that the lower side of the water storage part is fastened or separated;
An oxygen discharge port 321 horizontally formed at the lower end of the coupling part for discharging the oxygen generated during the production of hydrogenated water to the outside, and a water inlet 322 for supplying the water to be supplied to the hydrogen- And a horizontal part
And a detachable attachment part 330 formed on a lower side surface of the horizontal part and detachably attaching to the lower body part 500,

A hydrogen aquatic part 400 formed inside the connection frame and having an electrode part therein, for electrolyzing water injected through a water inlet;

And a lower body portion 500 having a detachable attachment portion 510 formed on a side thereof to rotate with a detachable attachment portion 330 having a connection frame formed on one side thereof and including a battery portion 520 therein Characterized in that it comprises:
1. A hydrogen generation device for producing hydrogen water by dissolving hydrogen generated by an electrolysis method of water in raw water,
A coupling part 310 formed on the upper side so that the lower side of the water storage part is fastened or separated;
An oxygen discharge port 321 horizontally formed at the lower end of the coupling part for discharging the oxygen generated during the production of hydrogenated water to the outside, and a water inlet 322 for supplying the water to be supplied to the hydrogen- And a horizontal part
And a detachable attachment part 330 formed on a lower side surface of the horizontal part and detachably attaching to the lower body part 500,

A hydrogen aquatic part 400 formed inside the connection frame and having an electrode part therein, for electrolyzing water injected through a water inlet;

And a lower body portion 500 having a detachable attachment portion 510 formed on a side thereof to rotate with a detachable attachment portion 330 having a connection frame formed on one side thereof and including a battery portion 520 therein Characterized in that it comprises:
3. The method of claim 2,
A screw groove is formed in the coupling part 310,
350a, 350b, and 350c having a ring type or a bolt type that is standardized in accordance with the size of the water outlet of the manufacturer of the bottled water bottle can be coupled to the screw groove.
Wherein the water bottle connector comprises:
And a screw groove formed in the water discharge port of the bottled water bottle for rotation coupling with the screw thread,
In the case of a ring type, a screw thread is formed on the outside and is engaged with a thread groove formed in the coupling portion,
And a screw thread is formed in the vertical portion when the screw is a bolt type so as to be coupled to the screw groove formed in the engaging portion.
3. The method according to claim 1 or 2,
The hydrogen-aquatic part (400)
A power supply module 421 that constitutes a power supply line 421 at regular intervals to supply power to the power supply line through the battery unit 520 and supply power to the titanium rod 422 formed on both sides to supply power to the electrode unit 420);
A water spill prevention module 430 formed on the upper side of the power supply module to prevent the inflow water from flowing out to a power supply module formed on the lower side and forming an inclined part 431 on one side;
An electrode unit lower end protection module 441 formed on the upper side of the water leakage prevention module and adapted to connect the lower side of the electrode unit and an electrode lower end protection module 441 formed on one side of the electrode lower end protection module, And an electrode part protection plate 440 constituting an electrode part protection module 442 for coupling the upper part of the electrode unit 450 and the upper part of the electrode part and having one side inclinedly connected to the inclined part 431 so that the electrode part is inclined. and
An electrode unit 450 including a positive electrode 451 sloped downwardly inside the electrode unit protection plate, a negative electrode 452 sloped above the inside of the electrode unit protection plate, and a membrane filter formed between the positive electrode and the negative electrode, And a controller for controlling the operation of the smart water generator.
5. The method of claim 4,
The electrode unit 450 is formed to be inclined so that the oxygen generated during the production of the hydrogenated water can be easily discharged along the inclined surface when the oxygen is discharged to the oxygen outlet 321,
The supplied water flows into the water outflow prevention module 430 so that the membrane filter is submerged to generate alkaline hydrogen water and ozone is not generated,
The power supply module (420)
Wherein the UV LED part (425) is formed at one of the two parts and is connected to the power supply line and is supplied with power and is lighted to perform the sterilizing action.

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