KR20110048708A - A water ionizer - Google Patents

Abstract

PURPOSE: A water ionizer is provided to identically vary the color of a displaying part and a light emitting part according to the pH state of water. CONSTITUTION: A water ionizer(1) equipped with a light emitting part includes a main body(100), a displaying part(300), and a nozzle holder assembly(600). The main body includes an electrolytic cell. The electrolytic cell electrolyzes water. The displaying part is installed in the main body and displays the pH state of water from the electrolytic cell. A water intaking nozzle is in connection with the nozzle holder assembly. A light emitting part(690) is installed in the nozzle holder assembly and displays the same color as the displaying part according to the pH sate of the water.

Description

A water ionizer

The present invention relates to an ionizer.

In general, a water ionizer is an apparatus that ionizes water by electrolyzing it. The water is introduced into an electrolytic cell divided into a cathode and an anode by a diaphragm, and a direct current is applied to the cathode, thereby obtaining calcium ions, magnesium ions, potassium ions and sodium. Ions, alkaline ions, etc. gather to form alkaline ionized water, and chloride ions, sulfur ions, acidic ions, etc., gather at the anode to produce acidic ionized water.

In addition, the alkaline ionized water generated as described above has a small water particle, so it is quickly absorbed in the body, and serves as an antioxidant to remove free radicals, so that the user can drink the acidified constitution to weak alkali constitution.

In addition, the acidic ionized water has a sterilization and bleaching function, and can be used when bathing or washing face, washing a cutting board, tableware and dishcloth, etc., when disinfecting insect bites or skin wounds.

Therefore, as the income level increases and interest in health increases, the interest in the function of the ionizer is increasing. In response, the development and sales of various ionizers have been steadily made.

It is an object of the present invention to provide an ionizer which allows a user to easily recognize the pH state of the water taken out.

Another object of the present invention is to provide an ionizer in which the color of the light emitting means provided in the nozzle holder assembly varies according to the pH level of the water discharged.

Still another object of the present invention is to provide an ionizer in which the color of the display unit and the light emitting means of the ionizer is varied in accordance with the pH level of the water discharged.

The present invention is a nozzle holder that is connected to the main body is provided with an electrolytic cell for the electrolysis of water, the display unit for indicating the pH state of the water generated in the electrolytic cell and the discharge nozzle for the extraction of the ionized water generated in the electrolytic cell Assembly is included, and the nozzle holder assembly is characterized in that it comprises a light emitting means for displaying the light of the same color as the display unit in accordance with the pH state of the water discharged or withdrawn water.

According to the present invention, the display unit for setting the alkaline ionized water, purified water, acidic ionized water and the water output state is configured to display different colors according to the pH of the water discharged from the user. Acidic ionized water can be easily confirmed.

In addition, the nozzle holder assembly to which the extraction nozzle is connected is controlled to generate light having the same color as the display unit, so that the user can easily distinguish alkaline ionized water / purified water or acidic ionized water, thereby preventing misuse of water. You can do it.

In addition, as the light emitting means of the nozzle holder assembly is configured to expose the light to the upper side of the main body, the lighting effect by the light irradiated upward is expected, which has the advantage of more beautiful design of the ionizer.

Hereinafter, specific embodiments of the present invention will be described with reference to the drawings. However, the spirit of the present invention is not limited to the embodiments presented, and those skilled in the art who understand the spirit of the present invention can easily suggest other embodiments within the scope of the same idea.

1 is a view for showing the appearance of the ionizer according to the present invention, Figures 2 and 3 is a view for showing the configuration and coupling structure of the front assembly constituting the front of the ionizer according to the present invention .

Referring to the drawings, the ionizer 1 according to the present invention includes a main body 100 forming an outer shape. The main body 100 is coupled to the front assembly 140 to form a front (front), and the rear cover 120 to form the top / bottom / rear and side are provided with a predetermined space therein.

In addition, a water pipe (see FIG. 6) may be connected to the main body 100 provided as described above, and at least one filter 220 (FIG. 6) for purifying water supplied through the water pipe 720. Reference) may be provided.

The filter 220 may be easily detached by opening and closing the filter cover 122 provided on one side of the rear cover 120.

In addition, the upper surface of the rear cover 120 is provided with a nozzle holder assembly 600 to which the water extraction nozzle 800 for the extraction of the ionized water is provided, the nozzle holder assembly 600 is rotated to the rear cover 120 It is mounted to enable the change of the extraction position of the ionized water through the water extraction nozzle (800).

The front assembly 140 includes a front cover 142 fastened to the rear cover 120, and a tempered glass plate 144 and a decoration plate 142 provided on the front side of the front cover 142.

The front cover 142 is fastened to the rear cover 120 to form an inner space of the main body 100, and the tempered glass plate 144 and the decoration plate 146 are attached to the front surface. . The front cover 142 may further include a front cover support part 141 for supporting the front cover 142 spaced apart from the ground by increasing a friction force with a bottom surface.

The decor plate 146 is formed to have a material and color distinct from the tempered glass plate 144. For example, it may be formed of aluminum.

In addition, one side of the decor plate 146 is provided with a touch operation type operation button 145 to input the operation standby or operation stop command of the ionizer (1).

To this end, the operation button 145 is connected to the power PC 380 is fastened to the front cover 142. Although not shown, the power PC 380 may further include a sensing rod connected to the operation button 145 and an LED disposed along the edge of the sensing rod.

A pattern corresponding to the display unit 300 and the operation unit 400 to be described below is printed on the tempered glass plate 144.

That is, the operation unit 400 for controlling the ionizer 1 and the display unit 300 for controlling the state of the control by the operation unit 400 are located on the rear surface of the drawing. 400 may be operated by a touch method for detecting a change in capacitance caused by the human body of the user in contact with the tempered glass plate 144.

In detail, the operation unit 400 includes a pH selection button 420 for allowing a user to select the pH of the water discharged.

The pH selection button 420 is divided into an alkaline ionized water selection button 422 for the extraction of alkaline ionized water, an integer selection button 424 for the extraction of purified water, and an acidic ionized water selection button 426 for the extraction of acidic ionized water. The alkaline ionized water selection button 422 and the acidic ionized water selection button 426 are configured to adjust the pH level in multiple stages according to the number of presses.

In addition, the control unit 400 may be negatively informed of the control state of the product cleaning button 440 and the ionizer 1 to reduce the scale of the electrode by changing the polarity of the electrolytic cell (see FIG. 4). The voice guidance button 460 is further included.

The operation unit 400 including a plurality of buttons divided as described above is operated in a touch manner as described above, and a plurality of operation unit LEDs 410 for exposing light to the outside when each button is touched along an edge. ) Is provided.

Therefore, when the user touches any one of the buttons of the operation unit 400, light is exposed from the touched button. For example, when the user presses the alkaline ionized water selection button 422, blue light is exposed at the edge of the alkaline ionized water selection button 422.

On the other hand, the display unit 300 has a pH level display unit 320 for showing the pH state of the water to be discharged according to the control signal input through the operation unit 400 to the outside, and the message according to the operating state of the ionizer 1 A control state display unit 340 is shown to illustrate.

The pH level display unit 320 includes a numerical area portion in which the number shown in accordance with the pH level of the water to be withdrawn or withdrawn, and a display area for varying the number of activated according to the pH level of the water to be withdrawn or withdrawn .

That is, the pH level display unit 320 has a plurality of horizontal bars stacked on the display area showing the pH level to the outside and the number corresponding to the pH level in the form of seven segments in the center portion of the display area is shown. It may be formed as a numerical area portion.

In addition, the pH level display unit 320 may be configured to expose light divided into at least three colors or more according to the pH state of the water to be discharged, and the horizontal bar may display four or more levels. Four horizontal bars may be formed to be stacked.

For example, in the case of alkaline ionized water, blue light may be exposed to the horizontal bar in four stages, and the numbers 1 to 4 corresponding to the horizontal bar may be configured to be turned on. Can be configured to be off and only the number “0” is on. In the case of acidic ionized water, yellow light is exposed, and the horizontal bar of step 4 corresponds to the horizontal bar. It can be configured to be On (On).

In the control state display unit 340, the filter replacement icon 342 for notifying a replacement time of the filter 220 (refer to FIG. 6) provided in the main body 100, and an error situation for notifying an error state of the ionizer 1 An icon 344, a product cleaning icon 346 for displaying a cleaning state of the electrolyzer (see FIG. 3), and a voice guidance icon 348 for notifying an activation state of the voice guidance function are included.

Each icon may be configured to maintain an On state in an activated state, or may be repeated on / off and off in an inactive state.

On the other hand, a plurality of power lines and signal lines are connected to the display PCB 364 using a harness for transmitting a control signal and supplying power.

In detail, the display PC 364 is drawn out of the main PC connection connecting harness 366 and the LED connection connecting harness 368 to be connected to the main PC (described in Fig. 6) to be described below, the power PC 380 The power PC non-connected harness 382 to be drawn is fitted to be configured to enable power supply and transfer of control signals.

In addition, the front cover 142 is further provided with a display PC cover 390 for protecting the display assembly 360 and the power PC 380, the display PC cover 390 is connected to the main PC A portion is formed to be opened for withdrawal of the harness 366 and the LED PC-connected harness 368.

Figure 4 is a view showing the internal configuration of the body of the ionizer according to the present invention. And, Figure 5 is a view for showing the detailed configuration of the nozzle holder assembly that is the main configuration of the present invention, Figure 6 is a schematic view showing the piping and electrical wiring of the ionizer according to the present invention.

Referring to these drawings, the electrolyzer 200 and the filter 220 described above are provided inside the main body 100.

In detail, the main body 100 is provided with a filter mounting portion 190 to allow the filter 220 for filtering the raw water supplied to the electrolytic cell 200 in a position isolated from the electrolytic cell 200, The filter mounting unit 190 is selectively opened by the filter cover 122 is fastened to one side of the rear cover 120.

The filter 220 is connected to the water supply hose 700 for supplying the raw water to the electrolytic cell 200, the water supply hose 700, one side of the water supply solenoid 760 and the cumulative flow rate for limiting the inflow of raw water A flow sensor 740 is further provided to detect and inform the replacement time of the filter 200.

That is, in the flow sensor 740, when the cumulative flow rate of the raw water supplied to the filter 220 is greater than or equal to a predetermined amount, the flow sensor 740 transmits a detection signal for notifying the replacement time of the filter 220 through the display unit 300. do.

In addition, the display unit 300 shows at least one or more replacement notification states through the filter replacement icon 342, so that the user can confirm this and replace the filter 220.

As an example, when the filter replacement icon 342 is continuously turned on / off, the filter replacement icon 342 is notified, and the filter replacement icon 342 is turned on. If it is to maintain the notification of the replacement of the filter 220.

In addition, the filter mounting unit 190 is further provided with a filter reset switch (not shown) for resetting the cumulative flow rate detection result of the flow sensor 740 after the replacement of the filter 220 is completed.

That is, after the filter 220 is replaced, by pressing the filter reset switch (not shown) for a predetermined time, the accumulated flow rate corresponding to the replaced filter 220 may be detected.

On the other hand, the bottom surface of the main body 100 is provided with a middle plate 130 to provide a receiving space of the electrolytic transformer 530 for supplying power to the electrolytic cell 200 while forming the bottom of the filter mounting portion 190 do.

In addition, the middle plate 130 is fixed to the flow sensor 740 is connected to the water supply hose 700, to adjust the water supplied through the water supply hose 700 to one side of the flow sensor 740. Water supply solenoid 760 is further provided.

In addition, the middle plate 130 has an acidic water extraction hose 940 and a drainage hose 960 for guiding the discharge of the acidic ionized water generated in the electrolytic cell 200, and drainage for adjusting the amount of acidic ionized water discharged therethrough. Solenoid 950 is provided. One side of the bottom surface of the middle plate 130 is exposed to the outer surface of the rear cover 120, and a fitting (not shown) connected to the acidic water outlet hose 940 and the drain hose 960 may be further provided. have.

The fitting (not shown) is connected through an acid water faucet 900 and a hose for withdrawal of the acidic ionized water so that the user can easily use the acidic water.

On the other hand, the main body 100 is provided with a control unit for controlling the power supply and water supply and drainage and the discharge of ionized water, and the display unit 300, the operation unit 400 and the like.

The controller includes a main PC 510, a display PC 364, a power PC 380, and an LED PC 670 for controlling the aforementioned mood LED 620.

In addition, the main PC 510 provides a first transformer 530 for power supply and distribution and power provided from the first transformer 530 to the display PC 364 to provide the display unit 300 and an operation unit. A second transformer 540 for supplying power for the operation of the 400 is connected. Here, the second transformer 540 may be mounted on the main PC ratio 510.

The first transformer 530 is supplied with a commercial power provided through the power cord 500 to provide a part of the power decompressed to the second transformer 540, a part of the power decompressed to the electrolytic cell 200 Will be provided.

That is, when the power plug is inserted into the power socket, the power is supplied from the first transformer 530 provided inside the main body 100 to the electrolytic cell 200 and the display unit 300 and the operation unit 400. The power to be supplied is provided separately.

To this end, the secondary side of the first transformer 530 is further divided into parts, and in the divided secondary side, the pressure is reduced to the voltage level required by the electrolytic cell 200 and the voltage level used in the display PCB 364. do. The main PC 510 may be protected by the main PC cover 550 fixed to one side of the main body 100.

On the other hand, the electrolytic cell 200 provided inside the main body 100 has a flow path formed so that the alkaline ionized water is discharged to the upper side and the acidic ionized water is discharged to the lower side, and the five platinum titanium electrode plates are arranged side by side and in a short time. Ionized water can be generated. In addition, in the electrolyzer 200, the electrode and the discharge passage are changed at each discharge to prevent generation of scale on the electrode.

To this end, the electrolytic cell 200 is provided with a connecting pipe 272 connecting the cathode and the anode, and a drain pipe 274 provided below the connecting pipe 272.

In addition, the connection pipe 272 and the drain pipe 274 are selectively connected by the water supply valve 260 and the drain valve 280 having the same structure so that the discharge flow path is variable according to the movement position of each valve. Can be.

In detail, the connection pipe 272 is provided in the horizontal direction of the electrolytic cell 200, one end is connected to the cathode side, the other end is connected to the anode side, and is connected to the alkaline ionized water outlet tube 210 to the upper side.

In addition, the drain pipe 274 is not directly connected to the electrolytic cell 200, but is located in parallel with the connection pipe 272 to be connected by the water supply valve 260 and the drain valve 280.

To this end, the water supply valve 260 and the drain valve 280 are perforated with two drain holes formed in a tubular rod, and the gap between the drain holes is between the connection pipe 272 and the drain pipe 274. Corresponds to the separation distance of.

Therefore, the discharge passage of the alkaline ionized water or the acidic ionized water generated in the electrolytic cell 200 is changed according to the positional movement state of the connection pipe 272 and the drain pipe 274 of the water supply valve 260 or the drain valve 280. Can be.

For example, when the alkaline ionized water is discharged, the alkaline ionized water generated in the electrolytic cell 200 is not connected to the connection pipe 272 and the drain pipe 274 by a water supply valve 260 located on the left side of the electrolytic cell 200. Is moved to a position where the alkaline ionized water is withdrawn through the alkaline ionized water outlet pipe 210.

On the contrary, the drain valve 280 is discharged through the acidic water outlet hose 940 or the drainage hose 960 without the acidic ionized water generated in the electrolytic cell 200 flowing into the alkaline ionized water outlet tube 210. The connection pipe 270 and the drain pipe 280 is moved to a position to connect.

As a result, the acidic ionized water generated in the electrolytic cell 200 is guided to the acidic water outlet hose 940 or the drainage hose 960 along the drain valve 280 to the acidic water outlet hose 940 or the drainage hose 960. ), Acidic ionized water can be discharged to the outside.

In addition, when the alkaline ionized water is discharged again, the polarity of the electrolytic cell 200 may be controlled.

When the polarity of the electrolyzer 200 is changed as described above, acidic ionized water is generated in the electrolyzer 200 shielded by the water supply valve 260 and alkali in the electrolyzer 200 shielded by the drain valve 280. Ionized water is produced.

Therefore, in order to discharge the alkaline ionized water generated as described above, the drain valve 280 is moved to a position where the connection pipe 272 and the drain pipe 274 are not connected, and the water supply valve 260 is connected to the connection pipe. 272 and the drain pipe 274 is moved to the position, the acidic ionized water moves along the water supply valve 260 is discharged through the acidic water outlet hose 940 or drainage hose 960, the connection Alkaline ionized water may be withdrawn through the pipe 272 and the alkaline ionized water outlet tube 210.

The discharge water discharged from the acidic water may include an acidic water discharge hose 940 or a drainage hose 960 and a drainage solenoid 950 and an acidic water faucet 900 or an acidic water discharge hose 940 and a drainage solenoid connected thereto. 950 and an acidic water faucet 900 connected thereto, and a check valve 980 may be provided at one side of the acidic water discharge hose 940 to prevent backflow.

On the other hand, the calcium case 240 is further provided on the water supply path into which the raw water flows into the electrolytic cell 200 for smooth electrolysis.

That is, calcium glycerate is provided inside the calcium case 240 so that calcium glycerate is dissolved in raw water and supplied to the electrolytic cell 200 so that electrolysis can occur more effectively.

To this end, the calcium case 240 is accommodated in the calcium case mounting portion 126 formed on the upper surface of the rear cover 120 to be rotated and mounted, the raw water flowing into the electrolytic cell 200 in the mounted state, the calcium case It is provided to be able to pass through (240).

In addition, a nozzle holder coupling part 124 to which the nozzle holder assembly 600 is mounted is further formed on an upper surface of the rear cover 120.

The nozzle holder fastening portion 124 is formed with a depression having a shape and size corresponding to the edge of the nozzle holder 620, the central portion of the depression is an alkaline ionized water outlet pipe 210 to be described below It penetrates and is formed to be connected to the water extraction nozzle 800.

On the other hand, the nozzle holder assembly 600 is provided in the nozzle holder 620 and the nozzle holder 620 to be seated in the nozzle holder fastening portion 124 so that the water extraction nozzle 800 can be fastened. Light emitting means 690 to expose the light to the outside is included.

In detail, the nozzle holder 620 is formed in a disc shape having a predetermined height and provided with a predetermined space therein, and the upper side is opened. In addition, the nozzle holder 620 is provided with a pipe connection fitting 610 for connecting the water discharge pipe 210 and the water discharge nozzle 800.

The pipe connection fitting 610 is formed in a substantially "A" shape, the portion bent to the lower portion of the nozzle holder 620 is connected to the outlet pipe 210 and the portion bent toward the nozzle holder 620 side is the water extraction nozzle ( 800 is connected to the nozzle holder 620, and a fitting connection hole 612 is formed at the side of the nozzle holder 620 so that the pipe connection fitting 610 may be connected to the water outlet nozzle 800.

On the other hand, the nozzle holder 620 is further provided with the above-described light emitting means 690.

The light emitting means 690 is for processing a control signal so that the color or light emitting pattern of the light exposed to the outside according to the use state of the ionizer 1 can be changed, the light of the light exposed through the display unit 300 It is configured to interlock with the color or the light emission pattern.

To this end, the light emitting means 690 includes an LED PC 670 equipped with a plurality of light emitting elements, such as a mood LED 672, a nozzle holder housing 640 surrounding the LED PC 670, and the nose holder housing 640. It includes a LED cover 680 and a nozzle holder cap 660 that shields the upper surface of the nozzle holder housing 640 is fastened to the () to expose the light generated by the LED PC 670 to the outside.

In detail, the LED PC 640 is fitted into the nozzle holder 620. The nozzle holder housing 640 surrounding the nozzle holder 620 is mounted on an outer surface of the nozzle holder 620 on which the LED PC 640 is mounted.

That is, the nozzle holder housing 640 is formed in a ring shape surrounding all of the side portions of the nozzle holder 620, and the nozzle fastening nozzle 400 is mounted at the position corresponding to the fitting connection hole 612. The hole 642 is provided.

The nozzle fastening hole 642 is formed with a spiral on the inner surface, so that the water extraction nozzle 800 can be fastened while rotating in one direction.

After the nozzle holder housing 640 is mounted, an LED PC cover 680 may be provided above the LED PC 640.

The LED cover 680 is formed of a material that can transmit light only at the edge portion, or formed in a ring shape corresponding to the inner circumference of the nozzle holder housing 640 is configured to be mounted on the nozzle holder housing 640 do. Therefore, the light of the mood LED 672 provided in the LED PC 680 may be exposed to the outside while forming a ring shape.

To this end, the LED cover 680 is partially exposed between the nozzle holder housing 640 and the nozzle holder cap 660, the exposed portion is formed of a material capable of transmitting light.

The nozzle holder cap 660 is further provided on an upper side of the nozzle holder housing 640.

The nozzle holder cap 660 is formed so as not to shield an edge portion of the LED cover 680 so that the LED cover 680 is exposed to the outside to emit the LED light, the nozzle holder housing 640 It can be mounted on.

Therefore, when the water extraction nozzle 800 is mounted to the nozzle holder assembly 600 configured as described above, the user can rotate the water extraction nozzle 800 in the desired direction to use the ion water generated in the electrolytic cell 200, Upon exiting, the LEDs may cover various colors of light through the LED cover 680.

Hereinafter, the main functions mentioned in the present embodiment having the above configuration will be described with reference to the accompanying drawings.

Figure 7 is a view showing a state showing the pH information according to the type of water discharged from the ionizer according to the present invention.

Referring to the drawings, when the user wants to extract alkaline ionized water using the ionizer 1 according to the present embodiment, the alkaline ionized water selection button 422 is pressed.

When the user presses the alkaline ionized water selection button 422, the alkali ionized water level of the previous water extraction state is shown in the form of numbers and level bars on the display unit 300, and the alkaline ionized water selection button 422 and the display unit 300 And the light of the light emitting means 690 of the nozzle holder assembly 600, the light of the same color is generated.

For example, when the pH level of the alkaline ionized water discharged previously is one step, when the user presses the alkaline ionized water selection button 422 to extract the alkaline ionized water as described above, an edge of the alkaline ionized water selection button 422 is used. Blue light is exposed to the part.

In the display unit 300, the lowest level bar of the four level bars is turned on to generate blue light, and the number “1” is shown in blue in the center portion shown in the seven segment form.

In addition, the blue light is exposed in a ring shape along the upper edge by the light emitting means 690 of the nozzle holder assembly 600, so that the user can see the nozzle holder assembly 600, the display unit 300, and the operation unit 400. Through the color change of the ionized water can be confirmed that the alkaline ionized water.

When the user presses the acidic ionized water selection button 426 to extract acidic ionized water, yellow light is exposed to an edge portion of the acidic ionized water selection button 426.

In the display unit 300, the bottom level bar of the four level bars is turned on to emit yellow light regardless of the exit level of the acidic ionized water, and the numeral “1” is shown in yellow in the center portion. do.

That is, in the case of acidic ionized water, it is fixed so that one level of acidic water is withdrawn regardless of the level of the acidic ionized water previously discharged.

Therefore, when the user wants to adjust the pH level of the acidic ionized water to be discharged, the acidic ionized water selection button 426 is pressed a plurality of times to adjust the extraction level of the acidic ionized water.

When the extraction level of the acidic ionized water is manipulated as described above, the number of On of the level bar and the number of the center portion are varied in the display unit 300.

In addition, even when the acidic ionized water is selected, the yellow light is exposed along the upper edge by the light emitting means 690 in the nozzle holder assembly 600, so that the user can easily check the exit state of the acidic ionized water. Will be.

When the user presses the integer selection button 424 to take out the integer, green light is exposed along the edge of the integer selection button 424.

In the display unit 300, only the number “0” is shown in green in the center portion, and the level bar is turned off.

In addition, in the nozzle holder assembly 600, the green ring-shaped light is exposed to the edge portion through the light emitting means 690, so that the user can easily confirm that the user is in the air or the state of purified water extraction.

On the other hand, when the user presses the voice guidance button 460 provided on the operation unit 400, a function of guiding the operation state of the product by voice may be activated.

The function of guiding the operation state of the product by voice as described above may be classified into a mute mode, a normal mode, and a friendly mode, and the state is changed according to the number of pressing of the voice guidance button 460. The display state of the voice guidance icon 348 of the display unit 300 also varies according to the number of pressing of the voice guidance button 460.

In detail, when the ionizer 1 is in the mute mode by manipulating the voice guide button 460, the voice guide icon 348 is deactivated, and no button sound is generated even when the user operates the button.

When the ionizer 1 is in the normal mode by operating the voice guide button 460, the voice guide icon 460 is activated in the first form, and a button sound is generated when the user operates the button.

In addition, in the normal mode, a warning sound may be generated when an error code or product cleaning of the ionizer 1 occurs.

Examples of the error code that generates the above-mentioned warning sound may include leakage of the electrolytic cell 200, communication failure between the main PC ratio 510 and the display PC ratio 364, and the like.

When the ionizer 1 is operated in the friendly mode by operating the voice guidance button 460, the voice guidance icon 460 is activated in a second form, and when the user manipulates the button, a button sound and a warning sound are generated as well as a voice. The guidance function is made.

In this case, the voice guide icon 460 may be formed to add an additional form for further highlighting it while maintaining the first shape.

In addition, the voice guidance function is to inform the voice of the pH state of the extraction water, product washing state, replacement information of the filter 220 and the like.

For example, when alkaline ionized water is extracted, a negative message such as "alkali ionized water is being taken out" may be output.

1 is a view for showing the appearance of the ionizer according to the present invention.

2 and 3 are views for showing the configuration and coupling structure of the front assembly constituting the front of the ionizer according to the present invention.

4 is a view showing the internal configuration of the body of the ionizer according to the present invention.

5 is a view for showing a detailed configuration of a nozzle holder assembly which is a main component of the present invention.

Figure 6 is a schematic view showing the piping and electrical wiring of the ionizer according to the present invention.

7 is a view showing a state of pH information according to the type of water discharged from the ionizer according to the present invention.

Explanation of symbols on the main parts of the drawings

100 ..... Body 200 ..... Electrolyzer

300 ..... Display 400 ..... Control panel

500 ..... Power Cord 600 ..... Nozzle Holder Assembly

690 ..... light emitting means

Claims (8)

A main body provided with an electrolytic cell for electrolysis of water; A display unit provided in the main body and configured to display a pH state of water generated in an electrolytic cell; A nozzle holder assembly is connected to the water extraction nozzle for taking out the ion water generated in the electrolytic cell, The nozzle holder assembly includes a light emitting means for displaying light of the same color as the display unit in accordance with the pH state of the water outlet air or water taken out. The display unit of claim 1, wherein the display unit includes: A pH level indicator showing the pH level of the water discharged or withdrawn; An ionizer comprising a control state display unit for displaying the operating state of the ionizer. The pH level display of claim 2, A display area in which the number of activations varies depending on the pH of the discharged water or the extracted water; An ion water group includes a numerical region in which the number shown varies depending on the water extraction atmosphere or the pH level of the extracted water. The method of claim 1, In the display unit and the light emitting means, an ionized water group in which light of different colors is exposed when the acidic ionized water, the alkaline ionized water and the purified water are extracted. The method of claim 1, The main body is provided with respective pH selection buttons corresponding to alkaline ionized water, purified water, and acidic ionized water. In the pH selection button, a button having a corresponding pH is activated by touch to expose light of the same color as the display unit and the light emitting means. Water ionizer. According to claim 1, wherein the light emitting means, An ionizer which is equipped with a light emitting body, and includes an LED PC which is processed a control signal for controlling the light emitting body. The method of claim 6, The LED PC is connected to the display PC for controlling the display unit ionizer for causing the display unit and the light emitting means to generate light of the same color in accordance with the pH level of the water to be discharged or drawn out. The method of claim 6, wherein the light emitting means, A nozzle holder housing surrounding the LED PC, The LED PC cover is fastened to the nose holder housing to allow the light generated by the LED to be exposed to the outside; A nozzle holder cap for shielding the upper surface of the nozzle holder housing is included, The LED PC cover is a water ionizer is partially exposed between the nozzle holder housing and the nozzle holder cap.

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