WO2015083941A1

WO2015083941A1 - Metal ion sterilizing device

Info

Publication number: WO2015083941A1
Application number: PCT/KR2014/010419
Authority: WO
Inventors: 송철기
Original assignee: 주식회사 씨엔엘
Priority date: 2013-12-02
Filing date: 2014-11-03
Publication date: 2015-06-11

Abstract

A metal ion sterilizing device is disclosed. The disclosed metal ion sterilizing device comprises: a sterilizing case; an ionizing plate; a negative plate; a divider; and an ultrasonic oscillator for applying ultrasonic waves to at least one from among the ionizer plate and the negative plate so as to perform cleaning. The disclosed metal ion sterilizing device has the following advantages: the formation of residue on components of the metal ion sterilizing device can be prevented even over prolonged use; ionization is smoothly implemented despite continuous operation so as to enable the continuous sterilization of water that needs to be sterilized; and portions of the ionizing plate that are points of contact are not directly exposed so that the production of pure ionized water is possible.

Description

Metal ion sterilization device

The present invention relates to a metal ion sterilization apparatus.

The metal ion sterilization apparatus refers to an apparatus for forming sterilizing water used in various fields such as agriculture, commercial, animal husbandry, household, restaurant, etc. by adding metal ions such as silver, copper, or silver copper alloy to sterilized water.

Examples of such a metal ion sterilization apparatus may be registered Patent No. 10-1295507 (Registration Date: 2013.08.05, Name of the invention: Silver ion sterilization apparatus equipped with an automatic control washing unit), Patent No. 10-0768095 (Registration Date: October 11, 2007, Title of Invention: Metal ion sterilizer with automatic control of ionization).

However, according to the conventional metal ion sterilization apparatus, as the operating time of the apparatus accumulates, the electrode gradually wears out, and as time passes, the durability of the removing member such as a scrubber to remove debris, such as scales, stuck on the electrode decreases. There was a problem that the debris removal is not properly performed, and thus, in the end, continuous ionization is not performed in the metal ion sterilization device, so that the continuous sterilization of the sterilization target water is not properly performed.

In addition, according to the conventional metal ion sterilization apparatus, the contact point for energizing the ionization plate is also exposed to the water to be sterilized together with the ionization plate, and thus the contact point is also ionized and worn together with the ionization plate, so that even before all the ionization plates are consumed. In addition, there is a problem in that contact failure occurs and stable operation cannot be performed properly, and the contact wear exposes bolts for connecting electrodes and contacts, and the metals such as bolts can be dissolved as impurities in the water to be sterilized. there was.

It is an object of the present invention to provide a metal ion sterilization apparatus capable of continuously sterilizing the water to be sterilized by making ionization smooth even though continuous operation is performed.

Metal ion sterilization apparatus according to an aspect of the present invention is a sterilization case through which the sterilization target water flows; An ionization plate connected to a positive electrode such that metal ions are applied to the sterilization target water flowing in the sterilization case; A negative electrode plate connected to a negative electrode corresponding to the positive electrode connected to the ionization plate; A partition for inducing the sterilization target water while partitioning the inside of the sterilization case such that the sterilization target water flowing inside the sterilization case flows between the ionization plate and the negative electrode plate; And an ultrasonic vibrator for cleaning by applying ultrasonic waves to at least one of the ionization plate and the negative electrode plate.

Metal ion sterilization apparatus according to another aspect of the present invention is a sterilization case through which the sterilization target water flows; An ionization plate connected to a positive electrode such that metal ions are applied to the sterilization target water flowing in the sterilization case; And a negative electrode plate connected to the negative electrode corresponding to the positive electrode connected to the ionization plate.

The ionization plate includes an ionization plate body and ionization plate contact protrusions formed on both sides of the ionization plate body,

The sterilization case includes an ionization plate support on which the ionization plate is placed, and a plurality of ionization plate fixing portions for fixing the ionization plate,

The ionization plate fixing portion is characterized in that the ionization plate contact projections are coupled while being covered to prevent wear.

According to the metal ion sterilization apparatus according to an aspect of the present invention, as the metal ion sterilization apparatus includes a sterilization case, an ionizing plate, a negative electrode plate, a partition, and an ultrasonic vibrator, the ultrasonic vibrator is removed while the residue such as scale is well removed by the ultrasonic vibrator. Such debris removal performance of the device does not deteriorate over time so that the formation of debris on the components of the metal ion sterilization apparatus can be prevented even after prolonged use, and the amount of current applied according to the wear of the ionizing plate can be controlled to increase. Since the sterilization power may not be degraded even after long time use, the ionization is smoothly performed even after continuous operation, so that the sterilization of the water to be sterilized can be continuously performed, and pure ionized water is produced since the contact point of the ionization plate is not directly exposed. This has a possible effect.

1 is a perspective view showing a top view of an exploded view of a metal ion sterilization apparatus according to a first embodiment of the present invention.

2 is a perspective view showing an exploded view of the metal ion sterilization apparatus according to the first embodiment of the present invention from below.

3 is a cross-sectional view showing an exploded view of the metal ion sterilizing apparatus according to the first embodiment of the present invention from above.

4 is a perspective view showing a sterilization case constituting the metal ion sterilization apparatus according to the first embodiment of the present invention.

5 is a perspective view showing a partition constituting the metal ion sterilization apparatus according to the first embodiment of the present invention.

6 is a perspective view showing an ionization plate constituting the metal ion sterilization apparatus according to the first embodiment of the present invention.

7 is a perspective view showing an anode plate and an ultrasonic vibrator constituting the metal ion sterilization apparatus according to the first embodiment of the present invention.

8 is a perspective view showing a sterilization case and an ionization plate constituting the metal ion sterilization apparatus according to the second embodiment of the present invention.

9 is an enlarged view of a part of the sterilization case constituting the metal ion sterilization apparatus according to the second embodiment of the present invention.

10 is a cross-sectional view showing a state in which the metal ion sterilization apparatus according to the second embodiment of the present invention is cut out.

11 is a perspective view showing a combination of some components of the metal ion sterilization apparatus according to the second embodiment of the present invention.

12 is a cross-sectional view showing a state of a metal ion sterilization apparatus according to a third embodiment of the present invention.

Figure 13 is a perspective view showing a combination of some components of the metal ion sterilization apparatus according to the fourth embodiment of the present invention.

14 is a view showing a negative electrode plate coupled to the base member constituting the metal ion sterilization apparatus according to the fourth embodiment of the present invention.

Hereinafter, a metal ion sterilization apparatus according to a first embodiment of the present invention will be described with reference to the drawings.

1 is a perspective view showing an exploded view of a metal ion sterilization apparatus according to a first embodiment of the present invention from above, and FIG. 2 is an exploded view of a metal ion sterilization apparatus according to a first embodiment of the present invention. Figure 3 is a perspective view showing a look from below, Figure 3 is a cross-sectional view showing a top down view of an exploded view of a metal ion sterilization apparatus according to a first embodiment of the present invention, Figure 4 is a first embodiment of the present invention 5 is a perspective view showing a sterilization case constituting the metal ion sterilization apparatus according to an example, FIG. 5 is a perspective view showing a partition constituting the metal ion sterilization apparatus according to the first embodiment of the present invention, and FIG. 7 is a perspective view showing an ionization plate constituting the metal ion sterilization apparatus according to the embodiment, and FIG. 7 is a negative electrode plate constituting the metal ion sterilization apparatus according to the first embodiment of the present invention; A perspective view showing the acoustic transducer.

1 to 7, the metal ion sterilization apparatus 100 according to the present embodiment includes a sterilization case 110, an ionization plate 130, a cathode plate 140, a partition 120, and ultrasonic waves. It includes a vibrator 145, it is a device that can be sterilized by applying a metal ion to the sterilized water.

The sterilization case 110 is a sterilization target water flows, the sterilization case body 111 is formed therein a space for the sterilization target water flow, and the inlet for the sterilization target water flows into the sterilization case body 111 ( 112 and an outlet 113 through which the sterilized object water sterilized in the sterilization case body 111 flows out.

The inlet 112 is below one side of the sterilization case 110, the outlet 113 is the other side of the sterilization case 110 so that the sterilization target water is filled in the sterilization case 110. It can be formed on top.

Reference numeral 114 is a through hole formed in the sterilization case 110, the through hole 114 formed in the sterilization case 110 through the coupling member (not shown) such as bolts, the partition that the coupling member will be described later By sequentially passing through the through-hole 122 formed in the 120 and the through-hole 132 formed in the ionizing plate 130 together, the sterilization case 110, the partition ( 120 and the ionization plate 130 may be integrally coupled.

The ionization plate 130 is connected to the positive electrode so that the metal ions are applied to the sterilization target water flowing in the sterilization case 110, made of gold, copper, gold alloys, copper alloys, gold and copper alloys, etc. An ionization plate body 131 and the through hole 132 formed in the ionization plate body 131.

The negative electrode plate 140 is connected to the negative electrode corresponding to the positive electrode connected to the ionization plate 130, the ionization plate 130 and the negative electrode plate 140 is constant so as to face each other inside the sterilization case 110 Spaced apart.

When an anode is applied to the ionization plate 130 and a current is applied while a cathode is applied to the cathode plate 140, metal ions are emitted from the ionization plate 130, and the metal ions are ionized on the ionization plate 130. And disinfect the sterilized water by dissolving in the sterilized water flowing between the negative electrode plate 140.

A pulse current for promoting ionization may be applied to the ionization plate 130. When such a pulse current is applied to the ionization plate 130, ionization of metal ions in the ionization plate 130 may be promoted.

Numeral 101 is a circuit board, which can control the operation of the metal ion sterilization apparatus 100, such as controlling the amount of current supplied to the ionization plate 130.

The circuit board 101 continuously detects a current value flowing between the ionization plate 130 and the negative electrode plate 140 while flowing a constant current between the ionization plate 130 and the negative electrode plate 140. When the current value detected between the ionization plate 130 and the negative electrode plate 140 decreases due to the wear of the ionization plate 130, the circuit The substrate 101 automatically compensates for the reduced current value between the ionization plate 130 and the negative electrode plate 140 through a voltage increase, such that the gap between the ionization plate 130 and the negative electrode plate 140 is changed. It is possible to control the flow of the constant current required again between, so that the use time flows, the performance can be maintained even if the ionization plate 130 wear occurs.

In addition, the discharge PPM of the sterilized target water sterilized while passing through the ionization plate 130 and the negative electrode plate 140 is measured through a PPM measuring instrument (not shown), and the measured discharge PPM is measured at the required PPM reference value. The discharge PPM may be automatically adjusted to the PPM reference value by automatically changing at least one of an applied current value and an applied voltage value in the circuit board 101 according to an inflow rate. Here, the inflow flow rate may be automatically detected by an electromagnetic flow meter (not shown) and transferred to the circuit board 101.

The partition 120 partitions the sterilization case 110 inside the sterilization case 110 so that the sterilization target water flowing in the sterilization case 110 flows between the ionization plate 130 and the negative electrode plate 140. By inducing, the sterilization case 110 includes a partition body 121 which protrudes downward from the inner top surface of the sterilization case 110 and the through hole 122 formed in the partition body 121.

The ionization plate 130 is coupled to the bottom of the partition 120.

When configured as above, the sterilization target water flowing into the sterilization case 110 through the inlet 112 is blocked by the partition 120 is guided between the ionizing plate 130 and the negative electrode plate 140. Accordingly, the sterilization target water may be sterilized while passing between the ionization plate 130 and the negative electrode plate 140.

The ultrasonic vibrator 145 is to apply cleaning to at least one of the ionization plate 130 and the negative electrode plate 140 to perform the cleaning, in this embodiment the ultrasonic vibrator 145 is the negative plate 140 It is connected to the bottom of the vibrating the negative plate 140, and thus the sterilization object 110 inside the sterilization case 110 is vibrated and the ionization plate 130 and the inner wall of the sterilization case 110 is also washed together.

Since the ultrasonic vibrator 145 itself is well known, a description of a specific structure of the ultrasonic vibrator 145 is omitted.

The partition 120 and the ionization plate 130 are installed in the form of hanging in the sterilization case 110, and the lower end of the sterilization case 110 is coupled to the negative electrode plate 140 while blocking the sterilization case 110. Between the 110 and the negative electrode plate 140 is formed a space for accommodating the sterilization target water. In addition, the ultrasonic vibrator 145 is installed at the lower end of the negative electrode plate 140, so that not only the negative electrode plate 140 but also the ionization plate 130, the partition 120, and the inner wall of the sterilization case 110 may be washed. Can be.

Reference numeral 150 is an ultrasonic vibrator protective case for wrapping and protecting the ultrasonic vibrator 145.

Reference numeral 160 is a control member that can control the amount of current applied to the ionization plate 130 and the negative electrode plate 140, the control member 160 is a current to the ionization plate 130 and the negative electrode plate 140 The application may be turned on or off and the amount of current may be controlled.

That is, the control member 160 is the ionization plate 130 from the input area of the ionization plate 130, the amount of current applied to the ionization plate 130 and the time when the current is applied to the ionization plate 130 The wear rate of the ionizer is calculated, and the amount of current applied to the ionization plate 130 is increased from a previously input table value according to the calculated wear degree of the ionization plate 130 to a current value corresponding to the corresponding operation wear degree. Then, even if the operation time of the metal ion sterilization apparatus 100 is accumulated, the amount of metal ions ionized in the ionization plate 130 may be increased, so that the metal ion sterilization apparatus 100 may be used for the sterilization target water. Constant constant sterilization can be achieved.

Reference numeral 170 is a remote control capable of transmitting a command to the control member 160 at a remote location where the metal ion sterilization apparatus 100 is installed, and a user at the remote location via the remote control 170. Various commands may be passed to 160.

Hereinafter, the operation of the metal ion sterilization apparatus 100 will be described with reference to the drawings.

First, when the sterilization target water is introduced into the sterilization case 110 through the inlet 112, the sterilization target water is guided between the ionization plate 130 and the negative electrode plate 140 by the partition 120. And flow.

At this time, since the electricity is supplied to the ionization plate 130 and the negative electrode plate 140, metal ions are radiated from the ionization plate 130 to be dissolved in the water to be sterilized, thus sterilizing the water to be sterilized. do.

The sterilized water to be sterilized is discharged through the outlet 113 and supplied to the required place.

As described above, as the metal ion sterilization apparatus 100 according to the present embodiment includes a sterilization case 110, an ionization plate 130, a negative electrode plate 140, a partition 120, and an ultrasonic vibrator 145, ultrasonic waves Although the debris such as scale is removed by the vibrator 145 well, such debris removal performance of the ultrasonic vibrator 145 is not deteriorated with time, so that debris is formed on the components of the metal ion sterilization apparatus 100 even for a long time use. This can be prevented, and the amount of current applied according to the wear of the ionization plate 130 can be controlled to increase the sterilization power may not be reduced even after a long time use, even if the continuous operation is made to smoothly ionize the target Sterilization of water can be continued.

Hereinafter, a metal ion sterilization apparatus according to other embodiments of the present invention will be described with reference to the accompanying drawings. In carrying out this description, the description overlapping with the contents already described in the above-described first embodiment of the present invention will be replaced with the description thereof.

8 is a perspective view showing a sterilization case and an ionization plate constituting the metal ion sterilization apparatus according to a second embodiment of the present invention, Figure 9 is a sterilization case constituting the metal ion sterilization apparatus according to a second embodiment of the present invention 10 is an enlarged enlarged view illustrating a part of the metal ion sterilization device according to the second embodiment of the present invention, and FIG. 11 is a metal ion sterilization device according to the second embodiment of the present invention. Some perspective view of the combined configuration.

8 to 11, the metal ion sterilization apparatus 200 according to the present embodiment includes a sterilization case 210, an ionization plate 230, and a negative electrode plate 240.

Reference numeral 201 denotes a circuit board, and reference numeral 245 denotes an ultrasonic vibrator positioned on a bottom surface of the negative electrode plate 240.

In this embodiment, the sterilization case 210 is formed on one side of the sterilization case body 211 and the sterilization case body 211, the primary sterilization target water flowing through the inlet 215 is first received The sterilization target water, which is formed at the other side of the accommodating hole 212 and the sterilization case body 211, is accommodated in the primary accommodating hole 212 and sterilized while passing through the ionization plate 230, is accommodated secondly. An ionization plate support 213 on which the ionization plate 230 is placed on an upper surface of the secondary accommodation hole 214, and the primary accommodation hole 212 and the secondary accommodation hole 214 communicate with each other; A plurality of ionization plate fixing part 205 for fixing the plate 230.

The ionization plate 230 is formed on the ionization plate support 213, for example, a plate-shaped ionization plate body 231 and a plurality of each formed on each lower end of both sides of the ionization plate body 231 And an ionization plate contact protrusion 232. Each of the ionization plate contact protrusions 232 is formed at positions facing each other on both sides of the ionization plate body 231. When each of the ionization plate contact protrusions 232 is slid and fixed to the contact protrusion fixing hole 208, the ionization plate contact protrusions 232 may be electrically energized with the outside through an electrical contact formed in the contact protrusion fixing hole 208.

The ionization plate fixing part 205 is formed at positions facing each other with the ionization plate 230 interposed therebetween, so that each of the ionization plate contact protrusions 232 is fixed. The ionization plate fixing portion 205 is coupled while being covered with the ionization plate contact protrusion 232 to prevent wear.

In detail, the ionization plate fixing part 205 penetrates through the sterilization case body 211 in the up and down direction, and the contact protrusion lowering hole 206 which can be inserted while the ionization plate contact protrusion 232 is lowered, and the contact point. The contact protrusion fixing hole 208 communicated with the protrusion lowering hole 206 and is bent in the contact protrusion lowering hole 206, for example, a vertically bent shape, and the contact protrusion lowering hole 206. And a hole forming protrusion 207 protruding in a bent shape such as an 'L' shape to form the contact protrusion fixing hole 208.

When the ionizer 230 is configured as described above, when the ionization plate 230 is placed on the ionization plate support part 213, each of the ionization plate contact protrusions 232 is provided in the respective contact protrusion lowering holes of the respective ionization plate fixing parts 205. When the ionization plate 230 slides in a state in which the ionization plate 230 is in close contact with the ionization plate support part 213 in a state in which the lowering is completed, the respective ionization plate contact protrusions 232 are fixed to the respective contact protrusions. It is fixed while sliding in the hole 208. Then, the contacts passing through the respective ionization plate contact protrusions 232 as well as the respective ionization plate contact protrusions 232 are covered by the hole forming protrusions 207, so that the ionization plate 230 is ionized. Wear of the ionization plate contact protrusions 232 and the contacts may be prevented, and thus the ionization plate 230 may be formed until the ionization degree of the ionization plate 230 reaches its end of life. It can be in a state capable of stably energizing with the outside, there is an advantage that can be produced pure ion water because the contact portion of the ionization plate 230 is not directly exposed.

12 is a cross-sectional view showing a state of the metal ion sterilization apparatus according to the third embodiment of the present invention.

Referring to FIG. 12, in the present embodiment, the metal ion sterilization apparatus 300 has a miniaturized shape so that the metal ion sterilization apparatus 300 may be directly connected to a pipe through which sterilization target water flows.

In detail, the sterilization case 310 may include a primary accommodating hole forming part 311 in which sterilization target water is primarily received, and the primary accommodating hole forming part 311 in a narrower width than the primary accommodating hole forming part 311. The plate holding portion 312 extending from the, the secondary receiving hole forming portion 313 to receive the secondary sterilized water via the plate fixing portion 312 and the fixed surface on the outer surface of the plate fixing portion 312 And circuit

board support protrusions

314 and 315 that protrude to length to support the circuit board 380.

On the inner surface of the plate fixing part 312, an ionization plate 330 and a negative electrode plate 340 are installed to face each other, and sterilization is performed while the water to be sterilized flows between the ionization plate 330 and the negative electrode plate 340.

Two divided circuit boards 380 are placed on the circuit

board support protrusions

314 and 315, and a conductive metal such as copper is embedded in the circuit

board support protrusions

314 and 315 so that the circuit board support protrusions are embedded. The circuit board 380, the ionization plate 330, and the negative electrode plate 340 are electrically connected to each other through 314 and 315.

In this embodiment, the primary connecting member 390 and the secondary connecting member 395 are connected to the primary receiving hole forming part 311 and the secondary receiving hole forming part 313, respectively.

The primary connection member 390 is a primary connector 391 connected to the primary accommodating hole forming portion 311 by thread coupling, etc., and protrudes from the primary connector 391 to be sterilized, such as a water pipe. And a primary pipe connection 392 connected to the pipe to which the water is supplied.

The secondary connection member 395 includes a secondary connector 396 connected to the secondary accommodating hole forming portion 313 by thread coupling, and a pipe protruding from the secondary connector 396 to the demand destination. And a second pipe connection part 397 connected to the pipe through which the sterilized target water flows.

When the configuration is configured as described above, a pipe through which water to be sterilized, such as a water pipe, is supplied directly to the primary pipe connection part 392, and a pipe that is directed to a demand destination may be directly connected to the secondary pipe connection part 397. Since the metal ion sterilization apparatus 300 for water sterilization can be miniaturized and applied, it can be utilized for home use.

FIG. 13 is a perspective view showing a combination of some components of the metal ion sterilization apparatus according to the fourth embodiment of the present invention, and FIG. 14 is a base member constituting the metal ion sterilization apparatus according to the fourth embodiment of the present invention. The negative electrode plate is combined.

13 and 14 together, in the present embodiment, the base member 402 is coupled to the side where the ionization plate of the sterilization case 410 is installed to cover the sterilization case 410.

A negative plate mounting hole 403 is recessed in a surface of the base member 402 facing the ionization plate, and a negative plate 440 is installed on the negative plate mounting hole 403.

That is, the sterilization case 410 and the base member 402 are coupled to each other to form a space in which the sterilization target water can flow for sterilization, and each of the sterilization case 410 and the base member 402 is mutually different. The ionization plate and the negative electrode plate 440 are installed to face each other.

When configured as described above, when the negative plate 440 is worn and needs replacement, only the negative plate 440 is separated from the base member 402 without having to replace the entire portion covering the sterilization case 410. There is an advantage to replace.

On the other hand, the negative electrode plate contact projections and the negative electrode plate fixing part 404 are formed on both sides of the negative electrode plate 440 and inside the negative plate mounting hole 403 of the base member 402, respectively.

The negative plate fixing part 404 is formed at positions facing each other with the negative plate 440 interposed therebetween, and each of the negative plate contact protrusions is fixed. The negative electrode plate fixing portion 404 is coupled while covering the negative electrode plate contact projection to prevent wear.

Here, the negative electrode plate fixing part 404 and the negative electrode plate contact protrusion may be formed in the same shape as the ionization plate fixing part 205 and the ionizing plate contact protrusion 232 in the above-described second embodiment.

That is, the cathode plate fixing part 404 is in contact with the contact projection lowering hole which can penetrate the base member in the vertical direction and can be inserted while the cathode plate contact projection lowers, and communicates with the contact projection lowering hole in the contact projection lowering hole. A contact protrusion fixing hole formed in a bent form, for example, a vertically bent form, and a hole projecting in an 'L' shape or the like to form the contact protrusion lowering hole and the contact protrusion fixing hole. It may include forming protrusions.

When configured as described above, while the replacement of the negative electrode plate 440 is easy, wear of the contact portion of the negative electrode plate 440 can be prevented.

While the invention has been shown and described with respect to specific embodiments thereof, those skilled in the art can variously modify the invention without departing from the spirit and scope of the invention as set forth in the claims below. And that it can be changed. Nevertheless, it will be clearly understood that all such modifications and variations are included within the scope of the present invention.

According to the metal ion sterilization apparatus according to an aspect of the present invention, even if the continuous operation is made, since the ionization can be made smoothly, since the sterilization of the sterilization target water can be made continuously, its industrial applicability is high.

Claims

A sterilization case through which sterilization target water flows;

An ionization plate connected to a positive electrode such that metal ions are applied to the sterilization target water flowing in the sterilization case;

A negative electrode plate connected to a negative electrode corresponding to the positive electrode connected to the ionization plate;

A partition for inducing the sterilization target water while partitioning the inside of the sterilization case such that the sterilization target water flowing inside the sterilization case flows between the ionization plate and the negative electrode plate; And

And an ultrasonic vibrator for cleaning by applying ultrasonic waves to at least one of the ionization plate and the negative electrode plate.
The method of claim 1,

And the ultrasonic vibrator is connected to the negative electrode plate to vibrate the negative electrode plate, thereby washing the ionization plate and the inner wall of the sterilization case while vibrating the water to be sterilized in the sterilization case.
The method of claim 1,

The metal ion sterilization device

And a control member capable of controlling the amount of current applied to the ionization plate and the negative electrode plate.
The method of claim 3, wherein

The control member

The wear degree of the ionization plate is calculated from the area of the ionization plate, the amount of current applied to the ionization plate, and the time when the current is applied to the ionization plate,

Metal ion sterilization apparatus, characterized in that for increasing the amount of current applied to the ionization plate in accordance with the calculated wear degree of the ionization plate.
The method of claim 3, wherein

The metal ion sterilization device

And a remote control capable of transmitting a command to the control member at a remote location where the metal ion sterilization device is installed.
The method of claim 1,

Metal ion sterilization apparatus, characterized in that the ionization plate is applied with a pulse current for promoting the ionization.
The method of claim 1,

The metal ion sterilization device

And a circuit board for controlling the operation of the metal ion sterilization apparatus.

The circuit board continuously detects a current value flowing between the ionization plate and the negative electrode plate while flowing a constant current between the ionization plate and the negative electrode plate, and between the ionization plate and the negative electrode plate due to wear of the ionization plate. When the current value detected between the ionization plate and the negative electrode plate is lowered, the circuit board automatically compensates for the reduced current value between the ionizing plate and the negative electrode plate, whereby the gap between the ionized plate and the negative electrode plate is changed. The metal ion sterilization apparatus which can control so that constant current required again may flow in between.
The method of claim 1,

The metal ion sterilization device

And a circuit board for controlling the operation of the metal ion sterilization apparatus.

The circuit board is automatically changed by changing at least one of an applied current value and an applied voltage value according to the inflow flow rate so that the discharge PPM of the sterilized water to be sterilized while passing through the ionizing plate and the negative electrode plate meets the required PPM reference value. And the discharge PPM can be adjusted to the PPM reference value.
A sterilization case through which sterilization target water flows;

An ionization plate connected to a positive electrode such that metal ions are applied to the sterilization target water flowing in the sterilization case; And

And a cathode plate to which a negative electrode corresponding to the positive electrode connected to the ionization plate is connected.

The ionization plate is

Ion plate body,

It includes an ionization plate contact protrusions formed on both sides of the ionization plate body,

The sterilization case

An ionization plate support on which the ionization plate is placed;

It includes a plurality of ionization plate fixing for fixing the ionization plate,

The ionization plate fixing portion is metal ion sterilization apparatus, characterized in that coupled to the ionization plate contact projections to prevent wear.
The method of claim 9,

The ionization plate fixing part

A contact projection falling hole which can be inserted while the ionization plate contact projection is lowered,

A contact projection fixing hole communicating with the contact projection lowering hole and formed in a bent shape in the contact projection lowering hole;

And a hole forming protrusion protruding in a bent form to form the contact protrusion falling hole and the contact protrusion fixing hole.

When the ionizing plate is placed on the ionizing plate support, the ionizing plate contact protrusion is lowered through the contact protrusion lowering hole, and the ionizing plate slides in a state in which the ionizing plate is in close contact with the ionizing plate support when the lowering is completed. The contact protrusion is fixed while sliding in the contact protrusion fixing hole, and the contacting current passing through the ionization plate contact protrusion and the ionization plate contact protrusion is covered by the hole forming protrusion, so that the ionization plate contact protrusion when the ionization plate is ionized. Metal ion sterilization apparatus, characterized in that wear due to the ionization of the contact can be prevented.
The method of claim 9,

Metal ion sterilization apparatus, characterized in that the ionization plate is applied with a pulse current for promoting the ionization.
The method of claim 9,

The metal ion sterilization device

And a circuit board for controlling the operation of the metal ion sterilization apparatus.

The circuit board continuously detects a current value flowing between the ionization plate and the negative electrode plate while flowing a constant current between the ionization plate and the negative electrode plate, and between the ionization plate and the negative electrode plate due to wear of the ionization plate. When the current value detected between the ionization plate and the negative electrode plate is lowered, the circuit board automatically compensates for the reduced current value between the ionizing plate and the negative electrode plate, whereby the gap between the ionized plate and the negative electrode plate is changed. The metal ion sterilization apparatus which can control so that constant current required again may flow in between.
The method of claim 9,

The metal ion sterilization device

And a circuit board for controlling the operation of the metal ion sterilization apparatus.

The circuit board is automatically changed by changing at least one of an applied current value and an applied voltage value according to the inflow flow rate so that the discharge PPM of the sterilized water to be sterilized while passing through the ionizing plate and the negative electrode plate meets the required PPM reference value. And the discharge PPM can be adjusted to the PPM reference value.