KR101648346B1 - Foot bathing device with electrolytic ionized water and method for supplying the same - Google Patents

Abstract

The present invention relates to a foot bath with electrolytic water and a method for supplying electrolytic water thereof and, more specifically, to a foot bath in which electrolytic water is supplied, and a method for supplying electrolytic water thereof. The foot bath comprises: a porous electrode module; a raw water inlet unit which introduces raw water from the outside to the inside of the porous electrode module; an electrolytic water discharge unit which discharges the electrolytic water generated from the porous electrode module; an electrolytic water supply control module; and an electrolytic water supply unit.

Description

BACKGROUND OF THE INVENTION Field of the Invention [0001] The present invention relates to a foot bath for supplying electrolytic ionized water and a method for supplying electrolytic ionized water thereto,

The present invention relates to a foot bath to which electrolytic ionized water is supplied and a method for supplying electrolytic ionized water thereto. More particularly, the present invention relates to an electrolytic ionized water supply system for improving electrolytic ionized water, To a foot bath to supply electrolytic ion water capable of satisfying a user's desire and a method for supplying electrolytic ion water.

Our bodies are distributed in various menstrual blood, nervous tissue, and blood vessels. When a footbath is made, strained acupuncture points and nervous tissue are softened, and blood vessels are expanded, so that the blood stagnated on the feet is loosened and blood circulation is improved. Various kinds of footbaths have been developed and circulated today because they are very helpful in restoring the vitality of various functions.

Generally, a footbath is immersed in hot water heated to a certain temperature or in a water tank filled with cold water for a certain period of time.

Particularly, recently, foot baths capable of supplying electrolytic ion water produced by electrolysis of water into a water tank have been developed.

The electrolytic ionized water supplied to such a foot bath has an advantage of being excellent in sterilization disinfection effect and organic matter treatment effect while being safe to living body. Particularly, acidic electrolytic ionized water having sterilizing effect has about 20 times higher sterilizing power than conventional disinfectant Alkaline electrolyzed ionized water has various effects that can activate oxidized cells such as seed germination promotion, crop growth effect and drinking water.

In this conventional electrolytic ionized water generating apparatus, an ion separation diaphragm is provided at the center of the electrode, parallel plate electrodes are opposed to each other, and conductive ferrite is used on the positive electrode side and stainless electrode is used on the negative electrode side. It is used in such a way that the charged particles in the water are separated into positive and negative electrodes.

However, the conventional electrolytic ionized water generating apparatus has a problem that space charges are accumulated on the surface of the flat plate electrode, and the efficiency of ion separation and focusing is reduced to waste electric power.

The electrolytic ionized water used once is discarded without being reused, and the water is wasted severely. The conventional electrolytic ionized water generating foot bath has only the function of supplying ionized water, and provides various supplying methods to meet various needs of the user I can not do that.

Therefore, it is possible to overcome the unreasonable point of the foot bath to which the conventional electrolytic ionized water is supplied, to increase the ion separation and focusing efficiency at the electrode, to generate electrolytic ion water at low power, and to supply the electrolytic ion water produced at the electrode to the foot bath in various ways, There is a growing demand for a foot bath and electrolytic ionized water supply method in which electrolytic ionized water capable of satisfying a demand is supplied.

Korean Registration Practical No. 427766 Korean Registration Practical No. 440888

SUMMARY OF THE INVENTION The present invention has been conceived to solve the above-mentioned problems, and it is an object of the present invention to provide a flat plate electrode which is installed so as to be opposed to each other so that space charge can be easily diffused outwardly through the electrode, .

Another object of the present invention is to satisfy various needs of the user by controlling the supply of acidic and alkaline electrolytic ion water supplied to the bathtub in the foot bath in various ways.

Yet another object of the present invention is to recycle electrolytic ion water supplied to a bathtub in a foot bath.

According to an aspect of the present invention, there is provided a method of manufacturing a plasma display panel, including a step of providing a porous plate electrode on an inner side of a foot bath, A porous electrode module in which ions are collected and collected by the electrode to generate acidic and alkaline electrolytic ionized water; a raw water inlet portion into which raw water is drawn from the outside to the inside of the porous electrode module; and electrolytic water An electrolytic ionized water supply control module for controlling supply of acidic or alkaline electrolytic ionized water discharged from the electrolytic ionized water discharging portion to the inside of the foot bath, and electrolytic ionized water supply control module for controlling electrolytic ionized water supplied and controlled by the electrolytic ionized water supply control module, And an electrolytic ionized water supply unit for supplying the water into the water tank.

Here, the perforations formed on the porous flat electrode are formed by a plurality of slits arranged in a line or a circular shape.

Further, the porous flat plate electrode having the slit shape is filled with a dielectric filler between the porous flat plate electrodes.

The apparatus further includes an electrolytic ionized water recovery unit connected to the raw water inlet unit from the electrolytic ionized water supply control module.

Here, the water tank of the foot bath is partitioned by the diaphragm so that both feet of the user can be contained.

The electrolytic ionized water discharge unit may include an acidic water discharge pipe through which acidic electrolytic ion water produced in the porous electrode module is supplied to the electrolytic ionized water supply control module and alkaline electrolytic ion water generated in the porous electrode module is supplied to the electrolytic ionized water supply control module And an alkaline water discharge pipe to be supplied.

Further, the electrolytic ionized water supply unit may include an acidic water supply pipe for supplying the acidic electrolytic ionized water supplied and controlled by the electrolytic ionized water supply control module to the bathtub of the foot bath, and an alkaline electrolytic ionized water supplied and controlled by the electrolyzed ionized water supply control module, And an alkaline water supply pipe supplied into the water tank.

An acidic water supply pipe is connected to one side space of the foot bath and an alkaline water supply pipe is connected to the other side space.

The electrolytic ionized water recovery unit includes an acidic water recovery tube in which the acidic electrolytic ionized water is recovered to the raw water intake part in the electrolytic ionized water supply control module and the alkaline electrolytic water recovery tube in which alkaline electrolytic ionized water is recovered to the raw water intake part in the electrolytic ionized water supply control module .

Further, in the electrolytic ionized water supply control module, electrolytic ionized water of one of acid electrolytic ionized water and alkaline electrolytic ionized water is supplied to the foot bath, and another electrolytic ionized water is recovered to the raw water intake part through the electrolytic ionized water collecting part.

The electrolytic ionized water recirculation unit may further include an electrolytic ionized water recirculation unit connected to the raw water inlet unit in the bathtub so that the electrolytic ionized water supplied to the foot bath unit is recirculated to the porous electrode module.

In addition, the water bath of the foot bath may be divided into two spaces by diaphragms so that both feet of the user can be contained, and the electrolytic ionized water recirculation unit is connected to the raw water inlet unit from one side space of the foot bath, And an alkaline water recirculation pipe connected from the space to the raw water inlet portion.

In the electrolytic ionized water supply method of the foot bath, raw water is drawn into the porous electrode module in which the ion separation membrane is interposed between the porous flat plate electrodes so that the ions are separated and concentrated into the porous plate electrodes on both sides, And the alkaline electrolytic ionized water is generated in the porous electrode module, acidic electrolytic ionized water in the electrolytic ionized water generated in the porous electrode module is supplied into the bathtub of the foot bath, and the alkaline electrolytic ionized water generated together with the acidic electrolytic ionized water in the porous electrode module, Wherein the electrolytic ionized water generated in the porous electrode module is supplied into the bathtub of the foot bath, and the acidic electrolytic ionized water produced together with the alkaline electrolytic ionized water in the porous electrode module is collected again into the porous electrode module .

Further, in the step of supplying the acidic or alkaline electrolytic ionized water into the bathtub of the foot bath, the electrolytic ion water in the bathtub of the foot bath is recirculated to the porous electrode module.

In addition, the pores formed in the porous plate electrode are in the form of slits arranged in a line, and dielectric pores are filled between the porous plate electrodes.

In addition, the pores formed in the porous flat electrode are formed of a plurality of circular holes.

In addition, the porous plate electrode is provided so as to face each other, and the raw water is drawn into the porous electrode module in which the ion separation diaphragm is interposed between the porous plate electrodes so that the ions are separated and concentrated on both porous plate electrodes, The electrolytic ionized water generated in the porous electrode module is supplied into the bathtub of the foot bath, and the electrolytic ionized water supplied to the foot bath is recirculated to the porous electrode module.

In addition, the pores formed in the porous plate electrode are in the form of slits arranged in a line, and dielectric pores are filled between the porous plate electrodes.

In addition, the pores formed in the porous flat electrode are formed of a plurality of circular holes.

According to the present invention, the electrode for generating the electrolytic ionized water by the electrolysis is a porous plate electrode, and the space charge is easily diffused to the outside of the electrode through the pores to prevent the space charges from accumulating on the surface of the electrode The efficiency of ion separation and focusing can be increased and a strong inequality electric field can be formed by concentrating the electric field distribution at the edges of the pores to produce electrolytic ionized water with high efficiency at low power.

In addition, since acidic electrolytic ionized water is first supplied to the foot bath and a predetermined time is elapsed, the alkaline electrolytic ionized water is supplied to the foot bath, so that the foot is first sterilized with the acid electrolytic ionized water and then the skin is activated by the alkaline electrolytic ionized water, So that acidic and alkaline electrolytic ionized water are supplied to the water tank in which the space is separated from the water tank and the water tank, respectively.

In addition, the electrolytic ion water supplied into the bathtub of the foot bath can be recycled back to the electrode module for reuse, thereby saving resources.

1 is a perspective view of a foot bath provided with electrolytic ionized water according to the present invention.
FIG. 2 and FIG. 3 conceptually illustrate a channel through which electrolytic ionized water is supplied from a porous electrode module according to the present invention to a foot bath.
4 is a flowchart showing a procedure of an embodiment in which electrolytic ionized water is supplied to a foot bath according to the present invention.
FIG. 5 is a block diagram briefly illustrating a method of electrolytic ionized water supplied to a foot bath according to the present invention along a channel. FIG.
6 is a flowchart showing a procedure of another embodiment in which electrolytic ionized water is supplied to a foot bath according to the present invention.
7 is a block diagram schematically illustrating another embodiment of the method in which electrolytic ionized water is supplied to a foot bath according to the present invention along a channel.

Hereinafter, a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

FIG. 1 is a perspective view of a foot bath to which electrolytic ionized water according to the present invention is supplied, and FIGS. 2 and 3 conceptually show a channel through which electrolytic ionized water is supplied from a porous electrode module according to the present invention to a foot bath.

The foot bath for supplying electrolytic ionized water according to the present invention includes a porous electrode module 10 built in a foot bath 100 and a raw water inlet 20, an electrolytic ionized water outlet 30, A module 40, an electrolytic ionized water supply unit 50, an electrolytic ionized water recovery unit 60, and an electrolytic ionized water recycling unit 70.

The porous electrode module 10 is installed at the lower part of the foot bath 100 and the porous plate electrode 11 is disposed inside the porous electrode module 10 so as to face each other. (12) is interposed. In FIG. 2, the perforations formed in the porous electrode module 10 are in the form of slits arranged in a line. The ion-exchange membrane 12 is interposed between the perforated plate electrodes 11, Which are separately concentrated to produce acidic and alkaline electrolytic ionized water. Such a slit compensates for the problem of the space charge limitation effect due to the focusing of the ions opposite to the polarity of the electrodes in the vicinity of the electrodes.

The electric force lines formed by the voltages applied to the both side electrodes of the dielectric element 13 by filling the ferroelectric element 13 having a very high dielectric constant in the porous flat electrode 11 reach the interface, that is, the surface of the filled dielectric element 13 The electric field lines are concentrated when passing through a material having a dielectric constant different from that of the surrounding medium, and the concentrated electric field lines form a strong inequality electric field between the dielectric grooves 13. At this time, bubbles are generated by the electrolysis phenomenon between the dielectric solenoids 13, and gas discharge is firstly induced in the bubbles, which greatly increases the electrolysis in water.

The number of ions that can be separated and collected by the discharge in the bubbles generated suddenly increases so that the concentration of the output electrolytic water is increased by combining ions naturally present in the water and ions generated by the bubble discharge.

3, the perforations of the porous plate electrode 11 are formed by a plurality of circular holes. In general, the open plate area of the porous plate electrode 11 is 40% of the total electrode area, that is, Is adjusted to 60%. The space charges generated by the ions concentrated near the electrode are easily diffused to the outside of the electrode through the openings formed with the openings to prevent the space charges from accumulating on the surface of the electrode, So that a strong inequality electric field is formed, so that the electrolytic ionized water can be generated at a lower power than the normal electrode structure.

In addition, oxygen and hydrogen bubbles generated during the electrolysis in the porous electrode module 10 are first discharged in a porous portion capable of forming an unequal electric field, and dissolved in water to enable electrolytic action and ion separation focusing effect simultaneously, Electrolytic ionized water is generated. Accordingly, the electrolytic ionized water of high efficiency can be generated in the porous flat plate electrode 11 having a plurality of circles even if there is no separate dielectric solenoid 13.

The acidic electrolytic ionized water produced on the positive electrode side through the mutually opposed porous flat electrode 11 of the porous electrode module 10 is used for disinfection and deodorization of the foot with strong oxidizing power and the alkaline electrolytic ion water produced on the negative electrode side is used for life Is very rich in minerals essential for the activation of oxidized cells, skin cleansing and is used to prevent skin aging.

The raw water inlet 20 allows the raw water to flow from the outside to the inside of the porous electrode module 10 so that sodium chloride dissolved water is supplied to increase water or water ion concentration in general.

The electrolytic ionized water discharge unit 30 discharges the electrolytic ionized water generated by the porous electrode module 10 and supplies it to the electrolytic ionized water supply control module 40. The electrolytic ionized water produced in the electrolytic ionized water supply control module 40, And an alkaline water discharge pipe 32 for supplying the electrolytic ionized water supply control module 40 with the alkaline electrolytic ion water produced on the negative electrode side.

Thus, the alkali and acidic electrolytic ion water produced through the porous flat electrode 11 are separately discharged.

The electrolytic ionized water supply control module 40 controls the supply or release of the acidic or alkaline electrolytic ion water discharged from the electrolytic ionized water discharging portion 30 into the foot bath, and will be described in more detail in the electrolytic ionized water supplying method of the foot bath do.

The electrolytic ionized water supply unit 50 is a tube for supplying the electrolytic ionized water supplied and controlled by the electrolytic ionized water supply control module 40 to the inside of the foot bath water tank. When the electrolytic ionized water supply control module 40 supplies the acid electrolytic ionized water into the bathtub of the foot bath An acidic water supply pipe 51 and an alkaline water supply pipe 52 in which alkaline electrolytic ionized water is supplied into the bath of the foot bath.

In addition, the water tank of the foot bath 100 has a diaphragm 101 formed on its inner side so that both feet of the user can be separately contained, a space is partitioned on both sides, an acid water supply pipe 51 is connected to one side space, The alkaline water supply pipe 52 is connected to supply the alkaline water and the acidic water to the separate space inside the foot bath.

The electrolytic ionized water recovery unit 60 is connected to the raw water inlet unit 20 from the electrolytic ionized water supply control module 40. When the electrolytic ionized water supply control module 40 supplies the acidic water to the foot bath 100, And the alkaline water produced together with the water is returned to the raw water inlet 20 through the electrolytic ionized water recovery unit 60. The electrolytic ionized water recovery unit 60 includes an acidic water recovery pipe 61 in which the electrolytic ionized water supply control module 40 recovers the acidic electrolytic ionized water to the raw water inlet 20 and the alkaline electrolytic ionized water to the raw water inlet 20, And an alkaline water recovery pipe (62) that is recovered to the outside.

The electrolytic ionized water recirculation unit 70 is connected to the raw water inlet 20 in the bathtub of the foot bath so that the electrolytic ionized water supplied to the inside of the bathtub of the foot bath is recirculated back to the porous electrode module 10, An alkaline water recirculation pipe 71 connected to the raw water inlet 20 in the other space of the foot bath and an acidic water recirculation pipe 71 connected to the raw water inlet 20 in one side space of the foot bath, 72) so that the acidic water and the alkaline water are recycled separately.

FIG. 4 is a flowchart showing the sequence of an embodiment in which electrolytic ionized water is supplied to a foot bath according to the present invention, FIG. 5 is a block diagram schematically showing a method of supplying electrolytic ionized water to a foot bath according to the present invention along a duct, .

Referring to the drawings, the foot bath according to the present invention is drawn into the porous electrode module 10 through the raw water inlet 20. The porous electrode module 10 is provided with porous plate electrodes 11 facing each other and raw water supplied inside by the electrolytic decomposition diaphragm 12 between the porous plate electrodes 11, Ions are separated and concentrated to produce acidic and alkaline electrolytic ionized water (S410).

Here, the perforations formed in the perforated plate electrode 11 may be in the form of a slit arranged in a row, and the dielectric apertures 13 are filled between the perforated plate electrodes 11 in the form of slits. In addition, the pores formed in the porous flat electrode 11 may be formed by a plurality of circular holes. In this type of electrode, high efficiency can be exhibited even if the dielectric free ends 13 are not filled yet.

The electrolytic ionized water generated in the porous electrode module 10 is discharged to the electrolytic ionized water supply control module 40 through the electrolytic ionized water discharge portion 30 and the electrolytic ionized water supply portion 50 is discharged from the electrolytic ionized water supply control module 40 So that the electrolytic water is supplied into the water tub of the foot bath 100 (S420).

The electrolytic ionized water supply control module 40 adjusts the supply amount constantly so that the user can immerse the electrolytic ionized water into the water bath of the foot bath 100 so that the foot bath is formed. The electrolytic ionized water supplied into the foot bath 100 is allowed to undergo bathing for a certain period of time and then the electrolytic ionized water is recycled to the raw water inlet 20 through the electrolytic ionized water recirculation unit 70, The electrolytic ionized water is recycled and used continuously (S430).

In the other embodiments described below, the electrolytic ionized water supply control module 40 separately supplies and controls the acidic or alkaline electrolytic ion water supplied to the inside of the water tank of the foot bath 100 as described above to satisfy various needs of the user.

FIG. 6 is a flow chart showing the sequence of another embodiment in which electrolytic ionized water is supplied to a foot bath according to the present invention, and FIG. 7 is a block diagram schematically showing another embodiment in which electrolytic ionized water is supplied to a foot bath according to the present invention along a channel. .

Referring to the drawings, in the foot bath according to the present invention, water is drawn into the porous electrode module 10 through the raw water inlet 20 as in the above embodiment, ions are separated and concentrated in the electrode plate, Alkaline electrolytic ionized water is generated (S610).

The electrolytic ionized water generated in the porous electrode module 10 is discharged to the electrolytic ionized water supply control module 40 through the electrolytic ionized water discharge portion 30. The electrolytic ionized water is discharged through the acidic water discharge pipe 31 and the alkaline water discharge pipe 32, To be separately supplied to the supply control module 40.

In the electrolytic ionized water supply control module 40, only the acidic electrolytic ionized water is supplied to the bathtub 100 of the foot bath 100, and the alkaline electrolytic ionized water produced together with the acidic electrolytic ionized water in the porous electrode module 10 is supplied to the electrolytic ionized water collecting portion 60 (Step S620). [0051] As shown in FIG. The acidic water supplied into the water bath of the foot bath 100 in the electrolytic ionized water supply control module 40 is supplied through the acidic water supply pipe 51 and the alkaline electrolytic ion water recovered into the raw water inlet 20 is supplied to the alkaline water recovery pipe (62).

The user's feet are immersed in the water bath of the foot bath 100 supplied with only the acidic electrolytic ionized water, so that the sterilizing action is performed for a predetermined time. After a preset time has elapsed, the acidic electrolytic ionized water in the bathtub 100 is recycled to the porous electrode module 10 through the electrolytic ionized water recirculation unit 70. The electrolytic ionized water supply control module 40 allows the alkaline electrolytic ionized water among the electrolytic ionized water generated in the porous electrode module 10 to be supplied into the water tank of the foot bath 100 through the alkaline water supply pipe 52, The acidic electrolytic ionized water produced together with the alkaline electrolytic ionized water in the electrolytic cell 10 is collected again into the raw water inlet 20 through the acidic water recovery pipe 61 and supplied to the porous electrode module 10 in operation S630.

The acid electrolytic ionized water is first supplied and sterilized, and then the electrolytic ionized water is supplied to activate the oxidized skin, thereby achieving skin cleansing and anti-aging effects.

In addition, acidic electrolytic ionized water and alkaline electrolytic ionized water are simultaneously supplied separately into the foot bath 100 where the space inside the water tank is partitioned by the diaphragm 101, and one foot is sterilized by acidic electrolytic ionized water, The foot can also be activated by alkaline electrolytic ionized water.

Although the present invention has been described in connection with the above-mentioned preferred embodiments, it is possible to make various modifications and variations without departing from the spirit and scope of the invention. Accordingly, the scope of the appended claims should include all such modifications and changes as fall within the scope of the present invention.

10: porous electrode module 11: porous flat electrode
12; Ion separation diaphragm 13: Dielectric element
20:
30: electrolytic ionized water discharge part 31: acidic water discharge pipe
32: alkaline water discharge pipe
40: electrolytic ionized water supply control module
50: electrolytic ionized water supply unit 51: acidic water supply pipe
52: Alkaline water supply pipe
60: electrolytic ionized water recovery unit 61: acidic water recovery pipe
62: alkaline water recovery pipe
70: electrolytic ionized water recirculation unit 71: acidic water recirculation pipe
72: Alkaline water recirculation tube
100: Foot bath 101: Diaphragm

Claims (19)

The porous plate electrodes are disposed on the inner side of the foot bath, and the porous plate electrodes are disposed so as to face each other. The ion separation membrane is interposed between the porous plate electrodes. The ions are separated and concentrated on both porous plate electrodes, An electrode module;
A raw water inlet for receiving raw water from the outside into the porous electrode module;
An electrolytic ionized water discharge unit for discharging the electrolytic ionized water generated in the porous electrode module;
An electrolytic ionized water supply control module for controlling the supply of the acidic or alkaline electrolytic ion water discharged from the electrolytic ionized water discharge portion into the foot bath;
And an electrolytic ionized water supply unit for supplying the electrolytic ionized water supplied and controlled by the electrolytic ionized water supply control module to the bath of the foot bath.
The method according to claim 1,
Wherein the porous plate electrode is formed with a plurality of holes formed in a slit shape or a circle arranged in a line.
3. The method of claim 2,
Wherein the slit-shaped porous flat-plate electrode is filled with a dielectric filler between the porous flat-plate electrodes.
The method according to claim 1,
Further comprising an electrolytic ionized water recovery unit connected to the raw water inlet unit from the electrolytic ionized water supply control module.
5. The method of claim 4,
Wherein the water tank of the foot bath is partitioned by the diaphragm so that both feet of the user can be contained therein.
6. The method of claim 5,
The electrolytic ionized water discharge portion
An acidic water discharge pipe for supplying the electrolytic ionized water produced in the porous electrode module to the electrolytic ionized water supply control module,
Wherein the electrolytic ionized water generated by the porous electrode module is supplied to the electrolytic ionized water supply control module.
The method according to claim 6,
The electrolytic ionized water supply unit
An acidic water supply pipe in which supply of acidic electrolytic ionized water supplied from the electrolytic ionized water supply control module is supplied into the bath of the foot bath;
Wherein the electrolytic ionized water supply control module supplies alkaline electrolytic ionized water to the bath of the foot bath.
8. The method of claim 7,
Wherein an acidic water supply pipe is connected to one side space of the foot bath and an alkaline water supply pipe is connected to the other side space.
5. The method of claim 4,
The electrolytic ionized water recovery unit
An acidic water recovery tube in which the acidic electrolytic ionized water is recovered to the raw water inlet portion in the electrolytic ionized water supply control module,
Wherein the electrolytic ionized water supply control module includes an alkaline water recovering pipe for recovering the alkaline electrolytic ionized water to the raw water inlet portion.
10. The method of claim 9,
Wherein the electrolytic ionized water supply control module controls the electrolytic ionized water of one of the acid electrolytic ionized water and the alkaline electrolytic ionized water to be supplied to the foot bath and the other electrolytic ionized water to be recovered to the raw water intake part through the electrolytic ionized water recovering part Which is supplied with electrolytic ionized water.
The method according to claim 1,
Further comprising an electrolytic ionized water recirculation unit connected to the raw water inlet part of the foot bath so that the electrolytic ion water supplied into the foot bath is recirculated back to the porous electrode module.
12. The method of claim 11,
The water tank of the foot bath is partitioned by the diaphragm so that both feet of the user can be contained,
The electrolytic ionized water recycling unit
An acidic water recirculation pipe connected to the raw water inlet part from one side space of the foot bath,
And an alkaline water recirculation pipe connected to the raw water inlet portion from the other space of the foot bath.
And the ions are separated and concentrated into the porous plate electrodes on both sides so that acidic and alkaline electrolytic ionized water is produced. step;
The acidic electrolytic ionized water in the electrolytic ion water produced in the porous electrode module is supplied into the bathtub of the foot bath, and the alkaline electrolytic ionized water generated together with the acidic electrolytic ionized water in the porous electrode module is collected again into the porous electrode module;
The alkaline electrolytic ionized water generated in the porous electrode module is supplied into the bath of the foot bath and the acidic electrolytic ionized water generated together with the alkaline electrolytic ionized water in the porous electrode module is collected again into the porous electrode module The electrolytic ionized water supply method of the foot bath.
14. The method of claim 13,
Wherein the electrolytic ionized water in the bathtub of the foot bath is recycled to the porous electrode module when the acidic or alkaline electrolytic ionized water is supplied into the bathtub of the foot bath.
14. The method of claim 13,
Wherein the porous plate electrode has slits arranged in a row and the dielectric pores are filled between the porous plate electrodes.
14. The method of claim 13,
Wherein the porous plate electrode is formed with a plurality of holes each having a circular shape.
And the ions are separated and concentrated into the porous plate electrodes on both sides so that acidic and alkaline electrolytic ionized water is produced. step;
Selectively supplying acidic or alkaline electrolytic ion water produced in the porous electrode module to the inside of the foot bath through the electrolytic ionized water supply control module;
Wherein the electrolytic ionized water supplied to the foot bath is recirculated to the porous electrode module.
18. The method of claim 17,
Wherein the porous plate electrode has slits arranged in a row and the dielectric pores are filled between the porous plate electrodes.
18. The method of claim 17,
Wherein the porous plate electrode is formed with a plurality of holes each having a circular shape.

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