KR101581682B1 - Electrolysis Sterilized Water Apparatus - Google Patents

Abstract

The electrolytic sterilizing water producing apparatus comprises a cylindrical electrode housing into which purified water or concentrated suspended solids and sludge having passed through a filtering filter for filtering suspended solids and sludge are introduced and have a certain space therein, A housing upper cap coupled to the housing, and a housing lower cap coupled to a lower portion of the electrode housing; (+) Electrode or (-) electrode terminal formed to have a predetermined length in the vertical direction of the cylindrical shape inside the case and being supplied with power from the outside are connected to one side of the upper end and the inside diameter of the electrode housing is small And a plurality of circular electrode plates arranged sequentially in the inner direction of the electrode housing at intervals of a predetermined distance and serving as electrodes of (+) or (-) poles, And electrolyzed to generate and discharge sterilized water.

Description

[0001] Electrolysis Sterilized Water Apparatus [0002]

The present invention relates to an apparatus for producing sterilized water and purified water, and more particularly, to an electrolytic sterilization water producing apparatus for electrolyzing filtered water to produce sterilized water.

The water filter is a structural device that takes water, ground water and other raw water and converts it into water that can be consumed through filtration process.

The filtration process is performed by installing a plurality of filters that perform their respective functional roles in order to remove various impurities contained in the raw water and contaminants such as bacteria.

The primary filter removes bulky contaminants such as various floating substances and foreign substances that can be visually recognized and performs exchange and management in approximately 3-6 months.

When it passes through the primary filter, it uses a filter that adsorbs gaseous pollutants contained in water or microscopic substances that are difficult to visually recognize. .

After passing through the secondary filtration filter, the tertiary filtration filter will use a membrane filter that can remove germs or disease causing substances and will be replaced approximately every one year to one year and six months.

After that, the filter is attached to the filter to enhance the aesthetic stability of the consumer and to improve the taste of the water. The filter is exchanged and managed every 1 year to 1 year and 6 months.

As described above, a plurality of filter filters are sequentially installed to perform the filtration process, and the lifetime of each filter is different according to the filtration ability, so that the filter should be replaced and managed periodically.

Since the filter life of the filter described above is not constant depending on the water quality of the raw water and the function life is remarkably lost due to the life expectancy, the irregular life of the filter is very troublesome for the user as well as for the manager, There was a problem to bear.

Despite these problems, consumer complaints were forced to be used because consumers were forced to use the inconvenience caused by structural limitations.

In order to solve such problems, it is an object of the present invention to provide an electrolytic sterilization water producing apparatus for electrolyzing filtered water to produce sterilized water.

According to an aspect of the present invention, there is provided an apparatus for producing electrolytic sterilizing water,

A cylindrical upper electrode housing into which a purified water or concentrated suspended solids having passed through a filtering filter for filtering suspended solids and sludge and sludge are introduced and has a predetermined space therein, a housing upper cap coupled to an upper portion of the electrode housing, A housing lower cap coupled to a lower portion of the electrode housing; And

(+) Electrode or (-) electrode terminal, which is formed in a cylindrical shape in a vertical direction in a vertical direction and supplied with power from the outside, is connected to one side of the upper end and has a constant And a plurality of circular electrode plates arranged sequentially in the inner direction of the electrode housing at intervals of the distance and serving as electrodes of (+) or (-) poles, And electrolyzed while passing through to generate and discharge sterilized water.

According to the above-described configuration, the present invention has the effect of regenerating the function of the filter by performing the backwash function from time to time for floating matters and contaminants adhering to the block filter inside the housing, thereby significantly increasing the life of the filter.

The present invention can expect a considerable economic ripple effect by regenerating the function of the filter using the backwash filter to reduce the cost of the user excessively caused by the replacement period of the filter and to reduce the filter waste that can affect the environment.

In the present invention, the space between each circular electrode plate is formed as a flow path to enlarge the length of the flow path, to cause the rotation and eddy phenomenon of the introduced raw water to maximize the contact time, and to cause the reaction of replacing the electrolyte in the raw water with radicals It has an effect of exhibiting strong sterilizing power and cleaning power.

1 is a view showing the construction of a sterilizing cleaner according to an embodiment of the present invention.
2 is a view showing a configuration of a micro bubble device according to an embodiment of the present invention.
3 is a cross-sectional view showing the configuration of the backwashing filter unit according to the first embodiment of the present invention.
4 is a cross-sectional view illustrating the configuration of a backwashing filter unit according to a second embodiment of the present invention.
5 is a cross-sectional view illustrating the configuration of a backwashing filter unit according to a third embodiment of the present invention.
6 is a cross-sectional view showing a configuration of a backwashing filter unit according to a fourth embodiment of the present invention.
7 is a cross-sectional view showing the configuration of a sterilizing water producing section according to the first embodiment of the present invention.
8 is a cross-sectional view showing a configuration of a sterilizing water generating unit according to a second embodiment of the present invention.
9 is a cross-sectional view illustrating the configuration of the elastic sealing structure of the sterilizing water producing unit according to the second embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can easily carry out the present invention. The present invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. In order to clearly illustrate the present invention, parts not related to the description are omitted, and similar parts are denoted by like reference characters throughout the specification.

Throughout the specification, when an element is referred to as "comprising ", it means that it can include other elements as well, without excluding other elements unless specifically stated otherwise.

1 is a view showing the construction of a sterilizing cleaner according to an embodiment of the present invention.

The sterilizing cleaner according to the embodiment of the present invention includes a backwash filter unit 100, a sterilizing water generating unit 200, a block carbon filter unit 300, water exit units 400 and 500, and a cold / .

The backwash filter unit 100 is a filtration filter for filtering floating matters and sludge that can be visually recognized, and performs a backwashing function of concentrating suspended matters and sludge and periodically discharging concentrated suspended sludge and sludge to the outside.

The backwash filter unit 100 discharges the first raw water that has passed through the filtration filter and the second raw water that contains concentrated suspended solids and sludge.

The block carbon filter unit 300 filters the first raw water discharged from the backwash filter unit 100 to remove bacteria or disease-causing substances. Here, the block carbon filter unit 300 may be formed by mixing one or more of various filters such as a membrane filter, a ceramic filter, and the like in addition to the block carbon filter.

The sterilizing water producing unit 200 electrolyzes the second raw water discharged from the backwashing filter unit 100 to generate and discharge sterilizing water.

The water outlet portion includes the water outlet portion 400 and the sterilizing water outlet portion 500.

The sterilizing water receiver 500 passes the sterilizing water passing through the sterilizing water generator 200 through the micro bubble generator 700 to generate microbubbles or mist.

The purified raw water that has passed through the block carbon filter unit 300 is discharged through the water outflow unit 400 or the cold water supply unit 600 and discharged through the water outflow unit 400 in the form of cold water or hot water.

Here, the cold / hot supply device 600 is a vacuum latent hot / cold water supply device. The hot / cold supply device 600 supplies power to an external thermoelectric device, and the generated heat source is cooled through a heat transfer housing closely attached to the thermoelectric device. And direct heat transfer to the inside of the cold / hot supply device 600 through the heat pipe integrated with the heat transfer housing.

The cold / hot supply apparatus 600 uses the technique of the Korean Patent Application No. 10-2013-0002164 (entitled " latent latent heat supply apparatus for supplying cold / hot water "), and detailed description of components is omitted.

2 is a view showing a configuration of a micro bubble device according to an embodiment of the present invention.

The raw water inlet 710 receives sterile water passing through the sterilizing water generator 200.

Here, the sterilizing water producing section 200 may be represented by an electrolytic sterilizing water producing device in another terminology.

The micro bubble generator 700 passes a first fluid spin hole 720 having a helical rotation groove formed in a rim thereof to rotate the sterilizing water introduced through the raw water inlet 710.

The first fluid spin hole 720 is positioned at the front end of the micro bubble generator 700 to increase the speed of water flow.

The micro bubble generator 700 also forms a second fluid spin hole 740 at the rear end of the micro bubble generator 700 to further accelerate the flow rate of sterilizing water passing through the flexible bellows 730.

As described above, the micro bubble generator 700 constitutes two fluid spin holes 720 and 740 and increases the effect of the bubble by mixing a large amount of air when passing through the air inlet 750 with the flow of the accelerated flow velocity.

At the rear end of the second fluid spin hole 740, a magnet 760 is formed, and the cluster of the sterilized water accelerated by passing through the second fluid spin hole 740 is split into small pieces and ionized to soften the water.

The air inlet 750 introduces a sufficient amount of air to form bubbles with a fastening structure of a female screw and a male screw having a gap to allow air to flow therethrough.

The sterilized water that has passed through the second fluid spin hole 740 is mixed with the air introduced by the flow velocity to form micro bubbles.

The mesh network 770 passes the microbubbles before they are ejected to again break the bubble number clusters.

The bubble outlet 780 is sprayed with micro bubble type or mist type bubble passing through the mesh net 770.

3 is a cross-sectional view showing the configuration of the backwashing filter unit according to the first embodiment of the present invention.

The backwashing filter unit 100 according to the first embodiment of the present invention includes a cylindrical outer housing 110 and an outer housing cap 120 coupled to a lower end of the outer housing 110 to prevent water leakage And a raw water receiving portion 122 through which the raw water flows is formed by penetrating the center of the lower surface of the outer housing cap 120. The diameter of the outer housing 110 is smaller than the diameter of the outer housing 110 A small block filter 130 is installed.

The block filter 130 has a cylindrical shape with its interior vertically penetrating, and the opening at the lower end of the block filter 130 communicates with the raw water inlet.

The antibacterial balls 140 are disposed in the inner space 142 of the block filter 130 and the antibacterial balls 140 float in the raw water by the introduced raw water.

The inner space 142 of the block filter 130 is provided with a spin structure 150 having a spiral rotation groove formed in a circular rim in order to enhance the linearity by rotating the incoming water to the lower surface opening, A mesh network 152 is provided to prevent the antibacterial balls 140 from escaping from the outside.

The block filter 130 has a side flow path formation preventing cap 154 formed on a lower surface thereof and an outflow blocking cap 156 formed on an upper surface thereof.

The side flow path formation preventing cap 154 is a member for preventing the introduced raw water or the antibacterial ball 140 from falling off to the side and the outflow blocking cap 156 is a member for preventing the inflowing raw water from escaping without passing through the block filter 130 .

When the raw water flows through the raw water receiving portion 122, the raw water is passed through the side flow path formation preventing cap 154 and the mesh net 152, and the spin structure 150 rotates the raw water to form a flow velocity increase and vortex .

The antibacterial balls 140 are moved with very irregular kinetic energy due to the raw water in which the flow velocity is increased and vortexes are formed in the inner space 142 of the block filter 130 and can not pass through the block filter 130, The floating matters and contamination sources adhering to the inner wall surface are removed.

The backwashing water outlet 160 penetrates the center of the upper surface of the outer housing 110 and communicates with the inner space 142 of the block filter 130 to discharge suspended matters and contaminants.

Such floats and contaminants are concentrated in the inner space 142 of the block filter 130 by the hydraulic pressure and the eddy current and the antibacterial balls 140 and are returned to the backwashing water- The unit 160 is opened and discharged to the outside.

The water outlet 170 is formed through the upper side of the outer housing 110 and communicates with the space between the outer housing 110 and the block filter 130 to discharge purified water.

The backwashing filter unit 100 has the water outlet 170 and the backwash water outlet 160 arranged in parallel on the outer upper surface thereof.

When the raw water is introduced through the raw water intake part 122, the introduced raw water is sterilized by the antibacterial balls 140 and passed through from the inside wall surface of the block filter 130 in the lateral direction of the outside wall surface to be filtered.

The filtered water is discharged to the water outlet 170.

The antibacterial balls 140 reciprocate by water pressure along the inner wall surface of the block filter 130 in addition to the sterilization and antibacterial function, thereby dropping suspended matters adhering to the inner wall surface of the block filter 130.

The separated suspended matter and contaminants are forcibly discharged through the backwash water outlet 170, which is often opened.

The principle of backwashing, which forcibly discharges these floats and contaminants, restores the function of the filter normally, extends the life of the filter, and increases water purification capacity.

4 is a cross-sectional view illustrating the configuration of a backwashing filter unit according to a second embodiment of the present invention.

FIG. 4 is a diagram for explaining the components of the backwash filter unit 100 according to the first embodiment of the present invention.

The backwashing filter unit 100 of the second embodiment of the present invention includes a cylindrical outer housing 110 and an outer housing cap 120 formed at a lower end of the outer housing 110 to prevent water leakage, An outer case is formed.

The outer housing 110 forms a raw water receiving portion 122 through which raw water flows into a central portion of the upper surface.

The water outlet 170 is formed through the center of the lower surface of the outer housing 110 and communicates with the inner space 142 of the block filter 130 to discharge purified water.

The upper surface of the block filter 130 is formed with a spin structure in such a manner that the circular rim of the block filter 130 is closed by the water intake blocking cap 158 and the water blocking cap 158 is surrounded.

This structure is such that the raw water introduced through the raw water receiving portion 122 is guided by the intake blocking cap 158 between the inner wall surface of the outer housing 110 and the outer wall surface of the block filter 130, From the wall surface to the inner wall surface and is filtered. The filtered water moves downward from the inner space 142 of the block filter 130 and is discharged to the water outlet 170.

The block filter 130 must transmit strong impact or pressure to the outer wall surface of the block filter 130 in order to smoothly discharge the float material and contaminants that are attached to the outer wall surface of the block filter 130 when performing the backwash function .

For this purpose, the spin structure is installed so as to surround the outer rim of the water shut-off cap 158 so as to increase the flow velocity of the raw water and increase the kinetic energy, thereby preventing floating matters and contaminants from adhering to the outer wall surface of the block filter 130 do.

These spin structures can be selectively applied depending on the quality of raw water.

The backwashing water outlet 160 is formed to penetrate the upper side of the outer housing 110 and communicates with the inner wall surface of the outer housing 110 and the space of the outer wall surface of the block filter 130 to discharge suspended matters and contaminants.

The backwash filter unit 100 has a backwashing outflow unit 160 and a raw water intake unit 122 arranged in parallel on an outer upper surface thereof.

The raw water introduced through the raw water intake part 122 is filtered by the water pressure into the inner space 142 of the block filter 130 along the inner wall surface of the outer housing 110 and the outer wall surface of the block filter 130.

The raw water flowing into the inner space 142 of the block filter 130 is sterilized by the antibacterial balls 140 and discharged to the water outlet 170 through the mesh net 152.

The floating matters and contaminants that have not passed through the block filter 130 are discharged to the outside when the backwash outflow portion 160 is opened by the action of water pressure to normally restore the function of the filter, extend the life of the filter, and increase the water purification ability.

5 is a cross-sectional view illustrating the configuration of a backwashing filter unit according to a third embodiment of the present invention.

5, description of components that are the same as those of the backwash filter unit 100 of the first embodiment of the present invention will be omitted and differences will be mainly described.

The backwashing filter unit 100 of the third embodiment of the present invention has a structure in which a cylindrical outer housing 110 and an outer housing cap 120 formed at the lower end of the outer housing 110 to prevent water leakage are connected An outer case is formed, a center portion of the upper surface of the outer housing 110 is formed to penetrate, and a water outlet 170 is formed in which raw water is discharged.

The raw water receiving portion 122 is formed by penetrating the lower center portion of the outer housing cap 120, and raw water flows in.

The backwashing filter unit 100 communicates the inner space 142 of the upper block filter 132 and the inner space 142 of the lower block filter 134 by the separation diaphragm 180 and the inner space 142 of the outer block 110 The space between the wall surface and the outer wall surface of the block filter 130 is closed to partition the upper block filter 132 and the lower block filter 134.

The block filter is formed by inserting a circular separating diaphragm 180 in the horizontal direction by a predetermined thickness and connecting the other end of the separating diaphragm 180 to the inner wall surface of the outer housing 110 to separate the upper block filter 132 and the lower block filter 134 ).

The bottom face of the lower block filter 134 is closed by the raw water inflow blocking cap 157 and the upper face of the upper block filter 132 is closed by the constant flow blocking cap 159 do.

This structure is such that the raw water introduced through the raw water intake portion 122 is guided by the raw water inflow blocking cap 157 between the inner wall surface of the outer housing 110 and the outer wall surface of the lower block filter 134, To the inner wall surface and is filtered.

The water filtered into the inner space 142 of the lower block filter 134 moves to the inner space 142 of the upper block filter 132 positioned in the upper direction by the water pressure and is moved to the inner space 142 of the lower block filter 134 Sterilized by the antibacterial balls 140 in the inner space 142 of the upper block filter 132 and the antibacterial balls 140 in the upper block filter 132 and passed from the inner wall surface of the upper block filter 132 to the outer wall surface and filtered again.

The water filtered by the upper block filter 132 moves upward along the outer wall surface of the upper block filter 132 and the inner wall surface of the outer housing 110 and is discharged to the water outlet 170.

The lower side surface of the outer housing 110 communicates with the inner wall surface of the outer housing 110 and the space of the outer wall surface of the lower block filter 134 to communicate with the backwash water outlet 160 for discharging suspended matters and contaminants.

The backwash filter unit 100 has a backwashing outflow unit 160 and a raw water intake unit 122 arranged side by side on an outer lower surface.

6 is a cross-sectional view illustrating the structure of a backwashing filter unit according to a fourth embodiment of the present invention.

FIG. 6 is a diagram illustrating the structure of the backwash filter unit 100 according to the first embodiment of the present invention.

The backwash filter unit 100 of the fourth embodiment of the present invention implements a membrane filter 190 having micropores as compared to the block filter 130 or a filter that performs a backwash function using a ceramic filter.

The backwashing filter unit 100 of the fourth embodiment of the present invention has a structure in which a cylindrical outer housing 110 and an outer housing cap 120 formed at the lower end of the outer housing 110 to prevent water leakage are connected And the water outlet 170 is formed in the center of the upper surface of the outer housing 110 to discharge raw water.

The outer housing 110 has a raw water receiving portion 122 through which raw water flows into the center of the lower surface and a backwash water receiving portion 160 through which droplets and contaminants are discharged from the side surface.

The backwash filter unit 100 is divided into an upper block filter 132 and a lower block filter 134 by a separation diaphragm 182 to separate the inner space 142 and the lower block filter 134 of the upper block filter 132, So as not to communicate with each other.

The block filter horizontally separates the space of the upper block filter 132 and the lower block filter 134 by horizontally passing the circular separating diaphragm 182 in the horizontal direction and separates the inner space 142 of the upper block filter 132 The inner space 142 of the lower block filter 134 is closed and the outer wall surface of the upper block filter 132 and the outer wall surface of the lower block filter 134 are communicated.

The lower portion of the lower block filter 134 is provided with a membrane filter 190.

The raw water introduced through the raw water inlet 122 passes through the inside of the membrane filter 190 and is filtered and moves to the inside space 142 of the upper downstream block filter 134.

The water moved into the inner space 142 of the lower block filter 134 is sterilized by the antibacterial balls 140 and passed from the inner wall surface of the lower block filter 134 to the outer wall surface to be filtered.

The water introduced between the inner wall surface of the outer housing 110 and the outer wall surface of the lower block filter 134 is filtered from the outer wall surface of the upper block filter 132 through the inner wall surface.

The water filtered into the inner space 142 of the upper block filter 132 is sterilized by the antibacterial balls 140 and moved upward by the water pressure to be discharged to the water outlet 170.

As another embodiment, the backwash filter unit 100 may include at least two membrane filters 190 or a ceramic filter connected in series, a membrane filter 190 for microfiltration or a ceramic filter mixed with a block filter The backwash function can be performed by using the

7 is a cross-sectional view showing the configuration of a sterilizing water producing section according to the first embodiment of the present invention.

The sterilizing water generating unit 200 according to the first embodiment of the present invention includes a cylindrical electrode housing 210 and a housing lower cap 212 coupled to a lower end of the electrode housing 210, And an outer case is configured by a structure in which a housing upper cap 213 coupled to an upper end is connected.

The housing lower cap 212 is formed with a raw water inflow portion 220 for introducing raw water in the lateral direction and a sterilizing water supply portion 220 for electrolyzing the inflow raw water and discharging sterilized water Thereby forming the discharge portion 222.

The sterilizing water discharge part 222 and the raw water inflow part 220 are formed in a horizontal direction and are formed in a direction perpendicular to the circular electrode plates 230, 232, and 234.

The sterilized water discharge portion 222 is formed to be smaller in diameter than the raw water inlet portion 220 so that a back pressure is generated in the sterilized water discharge portion 222 and eddy flow, which is an eddy phenomenon, is formed.

In the present invention, the raw water inflow part 220 is connected to the backwash outflow part 160, and the sterilizing water discharge part 222 is connected to the sterilizing water discharge part 500 through the water pipe. However, the sterilization water discharge unit 222 and the raw water inflow unit 220 may be directly connected to water pipes or ground water pipes, or may be installed in other equipment or appliances.

The electrode housing 210 includes three cylindrical electrode plates 230, 232, and 234 that are mounted in the inner space.

In the electrode housing 210, the first circular electrode plate 230, the second circular electrode plate 232, and the third circular electrode plate 234 are arranged in the electrode housing 210 at predetermined intervals in the order of small diameter, As shown in Fig.

In other words, a first circular electrode plate 230 is provided inside the electrode housing 210, a second circular electrode plate 232 is provided inside the first circular electrode plate 230, And a third circular electrode plate 234 is provided on the inner side of the plate 232.

232, and 234 are fixed to a fixed-type structure for keeping the electrode intervals of the circular electrode plates 230, 232, and 234 constant.

The first circular electrode plate 230 and the third circular electrode plate 234 form positive (+) or negative (-) electrodes by applying an anode and a cathode or a cathode and an anode.

Electrode terminals 270 and 272 of positive polarity or negative polarity for receiving external power are brought into contact with the upper ends of the first circular electrode plate 230 and the third circular electrode plate 234, (213) in the upper direction and exposed to the outside.

(+) And (-) poles are applied to the first circular electrode plate 230 and the third circular electrode plate 234 when at least three electrodes are used, and the second circular electrode plate 232 are not applied.

When an electric current is applied to the first circular electrode plate 230 and the third circular electrode plate 234, an induced current is formed in the second circular electrode plate 232 which is close to the first circular electrode plate 230 and the third circular electrode plate 234, do.

The present invention can use a non-diaphragm electrolysis method in which various kinds of radicals are produced by a chemical reaction occurring during electrolysis using an electrolyte in water in the water without using a diaphragm.

The circular electrode plates 230, 232, and 234 of the present invention are composed of three, but at least two or more circular electrode plates 230, 232, and 234 may be provided to maximize the length of the flow path of water.

The electrode housing 210 forms a raw water inlet 220 at the lower side of the side so that raw water flows in the lateral direction.

The reason for allowing the raw water to flow in the lateral direction is to guide the introduced raw water to rotate inside the electrode housing 210.

The space between the circular electrode plates 230, 232, and 234 is provided with a spring spindle structure 250 to maintain the continuous spinning of the introduced raw water.

The spring spindle structure 250 increases the contact time and area between the raw water and the circular electrode plates 230, 232, and 234, and maintains the rotational force of the raw water, thereby maximizing the efficiency of electrolysis.

Rotation of the raw water inside the electrode housing 210 maximizes the contact time with the electrode to maximize the efficiency of electrolysis.

The electrode housing 210 includes a plurality of circular electrode plates 230, 232, and 234 arranged in parallel and a space between the circular electrode plates 230, 232, and 234 is formed as a channel to enlarge the length of the channel The rotation and eddy phenomenon of the incoming raw water is caused to maximize the contact time, and the reaction of substituting the electrolyte in the raw water with radicals is performed, thereby exhibiting a strong sterilizing power and cleaning power.

The elastic sealing structure 240 is formed at a lower portion of the housing upper cap 213 and is coupled to the upper end surface of the plurality of circular electrode plates to maintain a constant distance between the circular electrode plates 230, 232, and 234, And the circular electrode plates 230, 232, and 234 are closely contacted and fixedly supported (FIG. 9 below).

The elastic sealing structure 240 forms two or more terminal grooves 244 for forming spin holes 242 in the form of water and for inserting electrode terminals of positive and negative poles.

In the elastic sealing structure 240, a step is formed in a region where the spin hole 242 is formed, and the water falls downward while rotating along the direction of the spin hole 242.

The raw water flows in the direction of the electrode housing 210 from the backwashing outflow unit 160 and moves upward while rotating between the first circular electrode plate 230 and the second circular electrode plate 232.

At this time, the spring structure formed between the first circular electrode plate 230 and the second circular electrode plate 232 allows electrolysis while maintaining the rotational force of the raw water.

The incoming raw water is electrolyzed in the space between the first circular electrode plate 230 and the second circular electrode plate 232 and moves upward to move the first circular electrode plate 230 and the second circular electrode plate 232, The second circular electrode plate 232 and the third circular electrode plate 234 are lowered into a space between the second circular electrode plate 232 and the third circular electrode plate 234 while causing the spin holes 242 of the elastic sealing structure 240 formed at the upper end of the first circular electrode plate 232 to swirl.

The raw water moved to the space between the second circular electrode plate 232 and the third circular electrode plate 234 flows into the space between the second circular electrode plate 232 and the third circular electrode plate 234, (250) maintains the rotational force of the raw water and moves downward while being electrolyzed.

The present invention forms a plurality of circular electrode plates (230, 232, 234) and forms a separate flow path between the circular electrode plates (230, 232, 234) to extend the contact area and contact time between the raw water and the electrodes. The electrolyzed sterilizing water is discharged through the sterilizing water discharging portion 222.

8 is a cross-sectional view showing a configuration of a sterilizing water generating unit according to a second embodiment of the present invention.

FIG. 8 is a flow chart illustrating the operation of the sterilizing water generator 200 according to the first embodiment of the present invention.

The housing lower cap 212 forms a raw water inflow portion 220 through which the raw water flows.

A sterilizing water discharging part 222 is formed through one side of the housing upper cap 213 and the elastic sealing structure part 240 so that the inflow water is electrolyzed and discharged as sterilizing water.

The housing lower cap 212 has a stepped portion formed along a circular rim inward, and a spin structure 260 having a helical groove formed in a circular rim is mounted on the stepped portion to maintain the continuous spinning of the introduced raw water.

The spin structure 260 forms a rotational force on the raw water introduced through the raw water inlet 220 and is engaged with and fixed to the lower ends of the circular electrode plates 230, 232, and 234.

The sterilized water discharge part 222 is formed through one side of the housing upper cap 213 and one side of the elastic sealing structure part 240. Thus, the elastic sealing structure 240 forms a sterilizing water discharge groove 246 on one side (FIG. 9).

The raw water inlet 220 and the sterilized water outlet 222 can be configured in various ways according to the installation environment of the module.

The sterilizing water generator 200 of the first embodiment described above is configured such that the raw water inlet 220 and the sterilizing water outlet 222 are formed in a direction perpendicular to the circular electrode plates 230, 232, and 234, The sterilizing water generating unit 200 constitutes the raw water inlet 220 and the sterilizing water discharge unit 222 in a horizontal direction with the circular electrode plates 230, 232 and 234.

The raw water flows from the backwashing water outlet 160 through the raw water inlet 220 of the housing lower cap 212 and flows between the first circular electrode plate 230 and the second circular electrode plate 232, Direction.

The incoming raw water is electrolyzed in the space between the first circular electrode plate 230 and the second circular electrode plate 232 and moves upward to move the first circular electrode plate 230 and the second circular electrode plate 232, The second circular electrode plate 232 and the third circular electrode plate 234 are brought down to the space between the second circular electrode plate 232 and the third circular electrode plate 234 while causing the spiral holes 242 of the elastic sealing structure 240 formed at the upper end of the first circular electrode plate 232 9).

The sterilized water electrolyzed through this process moves upward in the lower direction of the inner space of the third circular electrode plate 234 and is discharged through the sterilizing water discharge part 222.

The embodiments of the present invention described above are not implemented only by the apparatus and / or method, but may be implemented through a program for realizing functions corresponding to the configuration of the embodiment of the present invention, a recording medium on which the program is recorded And such an embodiment can be easily implemented by those skilled in the art from the description of the embodiments described above.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, It belongs to the scope of right.

100: backwash filter unit 110: outer housing
120: outer housing cap 122: raw water inlet section
130: Block filter 132: Upper block filter
134: Lower block filter 140: Antibacterial balls
142: inner space 150: spin structure
152: mesh net 154: side flow path forming cap
156: Water blocking cap 157: Water blocking cap
158: Obstruction blocking cap 159: Water purifying blocking cap
160: Backwash heading 170: Watering head
180, 182: Separation diaphragm 190: Membrane filter
200: sterilizing water generating section 210: electrode housing
212; Housing Lower Cap 213: Housing Upper Cap
220: raw water inflow part 222: sterile water discharge part
230: first circular electrode plate 232: second circular electrode plate
234: third circular electrode plate 240: elastic sealing structure
242: Spin hole 244: Terminal groove
246: Disinfection water discharge groove 250: Spring spindle structure
260: Spin structure 270: (+) electrode terminal
272: (-) electrode terminal 300: block carbon filter unit
400: water outlet unit 500: sterilization water outlet unit
600: cold / hot supply device 700: micro bubble device
710: raw water inlet part 720: first fluid spin hole
730: Flexible bellows 740: Second fluid spin hole
750: Air inlet 760: Magnetic
770: mesh network 780: bubble outlet

Claims (11)

delete delete delete delete delete delete A raw water inflow portion into which raw water flows from outside;
A sterilizing water generator for generating sterilizing water by electrolyzing the raw water introduced through the raw water inflow portion;
A spin structure for guiding the raw water flowing through the raw water inflow portion to rotate in the sterilizing water generating portion; And
A spin hole having a step is provided inside the plurality of cylindrical electrode plates so as to be able to move downward while rotating the raw water electrolyzed in a space between the plurality of cylindrical electrode plates, The sealing structure
And a sterilizing device for sterilizing the sterilized water. 8. The method of claim 7,
In the spin structure,
Wherein the raw water inflow portion is provided adjacent to the raw water inflow portion and induces rotation of the raw water flowing through the raw water inflow portion. 8. The method of claim 7,
In the spin structure,
And a spring structure provided in a space between the plurality of cylindrical electrode plates. 8. The method of claim 7,
In the spin structure,
Wherein the sterilizing water generator is provided adjacent to a sterilizing water discharge unit for discharging the sterilizing water generated by the sterilizing water generator and induces rotation of the sterilizing water discharged through the sterilizing water discharging unit. 8. The method of claim 7,
And a countercurrent chamber provided inside the sterilizing water generating unit,
Wherein the backflow preventing opening is opened when a back pressure is generated in the sterilizing water generating portion to mix the sterilizing water in the sterilizing water generating portion with the raw water flowing in from the raw water inflow portion.

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