KR101783908B1

KR101783908B1 - Hydrogen water container

Info

Publication number: KR101783908B1
Application number: KR1020150089302A
Authority: KR
Inventors: 송태정
Original assignee: 송태정
Priority date: 2015-06-23
Filing date: 2015-06-23
Publication date: 2017-10-10
Also published as: KR20170000273A

Abstract

The water container of the present invention includes a first container portion formed of a mixture of at least one of magnesium and potassium, and when water is contained in the first container portion, hydrogen is produced by the magnesium or potassium .

Description

[0001] HYDROGEN WATER CONTAINER [0002]

The present invention relates to a container for producing hydrogen water.

Active oxygen is attracting attention as a harmful factor.

Active oxygen refers to oxygen which is generated in various metabolic processes and attack oxidative force and damages cells. It is oxygen that is in an unstable state completely different from the oxygen we breathe. Oxygen is overproduced due to environmental pollution, chemicals, ultraviolet rays, blood circulation disorder, and stress. This overproduced free radical oxidizes in the human body. This will damage the cell membrane, DNA, and all other cell structures, and the cells will either lose function or become altered depending on the extent of the damage.

Hydrogen water can be consumed with water containing hydrogen that suppresses active oxygen, so it has an excellent effect in inhibiting active oxygen.

Korean Utility Model Appln. KOKAI Publication No. 2011-0008326 discloses an active hydrogen-containing water generating vessel, but it does not disclose how to generate hydrogen peroxide for a device for managing generated hydrogen water.

Korean Public Utility Model Publication No. 2011-0008326

The present invention is to provide a container for producing hydrogen water.

It is to be understood that both the foregoing general description and the following detailed description are exemplary and explanatory and are not intended to limit the invention to the precise forms disclosed. Other objects, which will be apparent to those skilled in the art, It will be possible.

Since the water container of the present invention includes magnesium or potassium, if water is immersed, hydrogen can be generated.

Some of the generated hydrogen can be introduced into the body when drinking water, which can help to remove active oxygen present in the body.

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a schematic view showing a hydrogen-containing container of the present invention. Fig.
2 is a schematic view showing another water-containing container of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. The sizes and shapes of the components shown in the drawings may be exaggerated for clarity and convenience. In addition, terms defined in consideration of the configuration and operation of the present invention may be changed according to the intention or custom of the user, the operator. Definitions of these terms should be based on the content of this specification.

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a schematic view showing a hydrogen-containing container of the present invention. Fig.

The water container shown in FIG. 1 may include a first container portion 110.

The first container part 110 may have a so-called cup or bowl shape provided with a receiving space 90 for receiving water. The first container portion 110 may be formed of a metal material or a synthetic resin such as plastic to maintain the shape of the upper accommodation space 90.

In the case of the first container unit 110 made of metal or synthetic resin, hydrogen is hardly generated even when water is contained in the accommodation space 90.

Hydrogen water described in this specification is water in which hydrogen is generated, and consequently no hydrogen is produced according to the first container portion 110 made of a metal material or a synthetic resin.

The first container portion 110 may be formed of a special mixture corresponding to the hydrogen generating means 10 in order to produce hydrogenated water. For example, the first container portion 110 may be a mixture of at least one of magnesium (Mg) and potassium (K).

Magnesium can be reacted with water as shown in Formula 1 below.

Magnesium reacts with water to form hydrogen (H ₂ ), through which water, hydrogen-containing water, can be formed. Such hydrogenated water can be produced not only by magnesium but also by the reaction of potassium (K), lithium (Li), beryllium (Be), sodium (Na), calcium (Ca) and water.

Thus, the first container portion 110 can be formed of a mixture containing magnesium or potassium. When water is contained in the first container portion 110 thus formed, hydrogen may be generated by magnesium or potassium.

At this time, the configuration or composition ratio of the first container portion 110 may be important. The first container unit 110 must first maintain the function of receiving water and prevent safety accidents in the process of generating hydrogen water. In addition, it is necessary that the water accommodated in the accommodation space 90 is made to contact magnesium or potassium.

First, to maintain the function of receiving water and to prevent a safety accident, a mixture to be a molding material of the first container portion 110 is prepared by blending 92 to 99.5 parts by weight of a synthetic resin, 0.5 to 8 parts by weight of magnesium And 0.5 to 8 parts by weight of potassium.

A lot of heat can be generated in the reaction process of the above formula (1). In addition, an explosion may occur if the reaction progresses rapidly. Therefore, magnesium should be reacted with water in a small amount.

In preparation for an explosion, an experiment was conducted in which a container was made of a mixture having 99.9 parts by weight of a synthetic resin and 0.1 parts by weight of the rest relative to 100 parts by weight of the mixture, followed by observing the temperature rise of water by containing water. Thereafter, when the weight ratio of magnesium exceeded 8, the temperature increase was remarkably increased when the weight of the synthetic resin was reduced and the weight of magnesium was increased. Therefore, it is preferable that the weight portion of magnesium does not exceed 8 in order to prevent a safety accident such as burning or explosion.

In addition, when the weight ratio of magnesium is less than 0.5, the amount of hydrogen generation is very low, so that the weight ratio of magnesium is preferably 0.5 or more. When the content of magnesium is less than 0.5, it is presumed that the generation of hydrogen is extremely low because only a part of the magnesium mixed in the mixture is exposed to water. For example, only magnesium exposed to the water-contacting inner wall surface 111 in the first container portion 110 reacts substantially with water, and the magnesium in the wall (including the bottom) forming the first container portion 110 Magnesium contained does not react with water.

According to the mixing ratio of the mixture as described above, it is possible to minimize an increase in the temperature during the reaction between magnesium, potassium, lithium, beryllium, sodium, calcium and water. Accordingly, an additional effect of allowing the water contained in the first container portion 110 to be consumed as it is at the original temperature is also expected. In addition, an explosion accident can be prevented. In addition, even if a part of the mixture contained in the first container portion 110 is dissolved in water, the first container portion 110 can hold the water receiving space 90.

Since lithium, sodium, and potassium, which belong to group 1, react violently with water, the generation of hydrogen peroxide can be accelerated as compared with the case where only magnesium is used. Group II materials such as beryllium and calcium may be added so as to give sustained release properties in which the generation of hydrogenated water slowly occurs over a long period of time.

Preferably, the weight ratio of lithium, sodium and potassium corresponding to group 1 and the weight ratios of beryllium, magnesium and calcium corresponding to the group 2 are equally mixed. For example, when 5 parts by weight of hydrogen producing means is included in the mixture, 2.5 parts by weight of potassium and 2.5 parts by weight of magnesium are preferably included. In the case where only a Group 1 element is used as the hydrogen generating means, the weight portion of hydrogen generating means relative to 100 parts by weight of the mixture is preferably 0.5 to 5 in order to prevent safety accidents due to a violent reaction.

Magnesium or the like may be mostly exposed to the inner wall surface 111 in the first container portion 110 so that the hydrogen generating means included in the first container portion effectively generates hydrogen. However, according to the present invention, Can be terminated. Therefore, the generation of hydrogen can be remarkably lowered from the time of use two or more times. As a result, the risk of a safety accident can increase because a chemical reaction takes place all at once on the inner wall.

Therefore, it is preferable that the hydrogen generating means 10 such as magnesium or the like is evenly mixed with the mixture constituting the first container portion 110. To this end, the hydrogen generating means 10 is preferably mixed in powder form.

According to this, the hydrogen generating means 10 is present in the wall constituting the first container portion 110. By gradually exposing the hydrogen generating means 10 to water, a plurality of water Even if recovered, hydrogen water can be generated normally.

The wall of the first container portion 110 may include a material that gradually dissolves in water to gradually expose the hydrogen generating means 10 present in the wall to water.

For example, the mixture may contain starch that retains the shape of the first container portion 110 and gradually dissolves due to the contact of water. The starch may be hardened by kneading and then dried, so that it can be used as a first receptacle. In addition, the surface that is contacted with water can gradually dissolve in water.

That is, in the first container portion 110 formed of a mixture containing starch, the inner wall surface 111 which is in contact with water can be dissolved in water by starch. In this process, the hydrogen generating means 10 in the wall where the contact with water is blocked by starch can be exposed to water. In other words, the hydrogen generating means 10 included in the wall of the first container portion 110 can react with water by dissolving the inner wall surface 111.

In addition to the starch, zeolite, clay, and other additives such as defoamers and plasticizers may be mixed in the mixture in small amounts. Zeolite has a function of purifying water, and clay has been found to have a sterilizing function.

On the other hand, in the case of the first container portion 110 including starch, the hydrogen generating means 10 included in the first container portion 110 is advantageously used. However, due to the dissolution of the starch, May be destroyed. Particularly, this phenomenon can be seriously generated in the process of washing the first container portion 110 with water. Likewise, even if the first container portion 110 is made of a component that is not soluble in water, it is required to preserve the hydrogen generating means 10 consumed in washing with water. Consumption of the hydrogen generating means 10 can also be caused by water vapor in the atmosphere.

To prevent the hydrogen generating means 10 from being inadvertently consumed, the present invention may include a cover 190 that covers the inlet of the containing space 90 containing the water to seal the containing space 90. The lid 190 prevents the hydrogen generating means 10 present in the inner wall surface 111 of the first container portion 110 from being consumed by water vapor or washing water.

When the first container portion 110 includes a material soluble in water, it is difficult to wash the outer wall surface of the first container portion 110 with water. In order to solve this problem, the water container of the present invention may include the second container portion 120.

2 is a schematic view showing another water-containing container of the present invention.

The second container portion 120 may include metal, synthetic resin, or the like that is not water-soluble. And, the second container portion 120 can have a receiving space 90 in which water is received by itself. At this time, at least a portion of the first container including starch is dissolved in the water, and the first container may be detached from the receiving space 90 of the second container portion 120.

In addition, a lid 190 for sealing the accommodation space 90 may be attached to or detached from the second container part 120. When the first container portion 110 is inserted into the receiving space 90 of the second container portion 120 and then the lid 190 is contacted with the first container portion 110, contact of the first container portion 110 with the outside can be completely blocked have. Accordingly, consumption of the hydrogen generating means 10 by water vapor can be prevented. Also, even if the outer surface of the second container part 120 is washed with water, the cleaning water does not contact the first container part 110. When the inner surface of the second container portion 120 is cleaned, the first container portion 110 may be removed from the second container portion 120 and then worked. In addition, even if the first container portion 110 is punctured by dissolution, water can be prevented from flowing out to the outside by the second container portion 120.

In addition, when the first container part 110 is worn out due to long use, a new first container part 110 can be installed in the second container part 120. [

As can be seen from the above, according to the water-containing container, hydrogen which inhibits active oxygen can be produced when consumed.

However, since the color, taste, and the like of hydrogenated water are almost similar to ordinary water, it is difficult for the user to recognize the fact that the water is produced. In addition, it is difficult to know how long it will take after a certain amount of time has elapsed since the water was added. In order to solve this problem, the display unit may be provided in the water container of the present invention.

The display unit can display the PH change of the water contained in the first container unit 110. The PH of the water contained in the first container portion 110 is increased by the chemical reaction of Formula 1. [ Therefore, if the PH can be sensed and displayed, the user can know that the hydrogen is generated.

For example, a methylene blue solution (not shown) may be used. When the methylene blue solution is mixed with water having high pH, the color changes from blue to purple, and the user can recognize that the hydrogen is generated by the hydrogen generating means 10.

However, since the methylene blue solution is preferably not used, it is preferable that the methylene blue solution is provided in a space separate from the accommodation space 90 of the first container unit 110. For example, a transparent handle 130 may be provided on a side surface of the first container unit 110. At this time, the handle 130 may be formed with a hollow to communicate water contained in the first container unit 110. The flow of the fluid from the accommodation space 90 to the handle 130 is allowed so that the methylene blue solution contained in the handle 130 does not flow into the accommodation space 90 of the first container unit 110, Way valve is provided between the handle 130 and the partition wall of the first container unit 110 or between the handle 130 and the partition wall of the second container unit 120, Respectively. The one-way valve at this time is opened by the switch 131 attached to the handle 130 so that water can flow in the direction from the accommodation space 90 toward the handle 130.

The water introduced into the handle 130 is mixed with the methylene blue solution, and when the pH is high, the color of the methylene blue solution is changed. Accordingly, the user can recognize that the number of hydrogen is generated when the color of the handle 130 changes to purple.

Alternatively, the PH sensor 151 may be used. The water-containing container may include a PH sensor 151 exposed on the inner wall of the first container portion 110 or the inner wall of the second container portion 120. Further, it may include display means 153 for displaying the measured value of the PH sensor 151. The PH sensor 151 can measure the PH of water. The display means 153 can display the PH of the water by outputting a sound when the PH of the water satisfies the set value or by various methods for turning on the visual PH concentration or the LED.

While the invention has been shown and described with reference to certain preferred embodiments thereof, it will be understood by those skilled in the art that various changes and modifications may be made without departing from the spirit and scope of the invention as defined by the appended claims. Accordingly, the true scope of the present invention should be determined by the following claims.

10 ... hydrogen generating means 110 ... first container portion
111 ... inner wall surface 120 ... second container portion
130 ... handle 131 ... switch
151 ... PH sensor 153 ... display

Claims

Hydrogen generating means including at least one of sodium and potassium corresponding to a Group 1 metal and at least one of magnesium and calcium corresponding to a Group 2 metal;
A first container portion in which water is received in the inner wall surface and the inner wall surface is dissolved in the received water;
A second container part having an accommodation space for covering the outer wall surface of the first container part to prevent the outer wall surface of the first container part from melting and consuming in the washing water and for removing the first container part, Lt; / RTI >
Wherein the hydrogen generating means is kneaded together with starch as a powder state, and then dried in a state of being evenly mixed with each other to form the first container portion,
When water is contained in the first container portion, the starch of the inner wall surface of the first container portion which is in contact with the water among the starch constituting the first container portion is dissolved in the water, and the starch is blocked by the starch The hydrogen generating means is exposed to water contacted with the inner wall surface of the first container portion as the starch of the inner wall surface is dissolved, the hydrogen generating means exposed to the inner wall surface reacts with the water to generate hydrogen,
The state where the hydrogen generating means is exposed to the water contacting the inner wall surface is controlled according to the rate at which the starch constituting the inner wall surface of the first container portion melts in the water,
The first container portion is detachably coupled to the second container portion so that the first container portion can be replaced when the first container portion is consumed due to dissolution of the starch and the hydrogen generating means,
A handle made of a transparent material is provided on a side surface of the first container portion and communicated with water contained in the first container portion,
The handle is provided with a methylene blue solution whose color changes according to the pH of the water,
Wherein the handle is formed with a hollow through which water contained in the first container portion communicates,
The flow of the fluid flowing from the receiving space of the first container portion to the handle is allowed so that the methylene blue solution contained in the handle is not introduced into the water contained in the first container portion, Wherein a one way valve is provided between the handle and the first container portion or between the handle and the second container portion.

The method according to claim 1,
A PH sensor exposed on an inner wall of the first container portion, and display means (153) for displaying a measured value of the PH sensor,
The PH sensor is connected to the display means 153,
The PH sensor connected to the display means 153 is installed so as to be exposed to the inner wall of the first container portion through the second container portion and the first container portion and to measure the PH of water contained in the first container portion Small containers.

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