TW201033133A - Electrolytic water purifier - Google Patents

Abstract

A novel electrolytic water purifier is provided by which the amount of hydrogen dissolved in drinking water can be kept in a certain range without decreasing. The water purifier includes a carbon filter (13), etc. for purifying water, a cold-water tank (22) in which the water having passed through the reverse osmosis membrane filter (16), etc. is stored, and a cold-water discharge opening (3) through which the water stored in the cold-water tank (22) is discharged. The water purifier further includes a reverse osmosis membrane filter (16) with which pure water is produced from the water having passed through the carbon filter (13), etc., a supply route through which the pure water produced is supplied from the reverse osmosis membrane filter (16) to the cold-water tank (22), an electrolytic device (32) in which part of the pure water produced with the reverse osmosis membrane filter (16) is electrolyzed to generate hydrogen gas, a circulation route through which the treated water taken out of the cold-water tank (22) is returned to the cold-water tank (22), and a circulation pump (62) which is disposed in the circulation route and through which the treated water taken out of the cold-water tank (22) and the hydrogen gas are returned together to the cold-water tank (22).

Description

[Technical Field] The present invention relates to an electrolytic water purification device for purifying tap water or the like and supplying it to water consumed by a general household, a business office or the like. In the past, the water purification device for purifying the tap water supplied from the sewer is widely used. In particular, the water purification device used in the home has a type in which the water is poured from above, and the weight of the water itself is passed through a filter containing activated carbon, ore, or the like; After the water pipe has passed (4), by using the water (4) or the cock to open, the water pressure of the water pipe is used to make the water flow out; or the water obtained by filtering the tap water supplied by the water pipe is stored in the storage. The trough 'is then properly allowed to flow out of the type of drinking. ◎ It has been proposed so far that the above-mentioned water purifying device is equipped with electric energy. That is, the 'system type is provided by generating hydrogen gas by electrolysis of tap water supplied from the sewer water, and then dissolving the hydrogen gas in the above-mentioned tap water: The main purpose of this water purifying device is to improve the quality of the processing: it is beneficial to: (Oxygen is also used to increase the hydrogen potential by the addition of the original potential). Refer to Patent Documents 1 and 2). (Patent Document 2) Japanese Laid-Open Patent Publication No. Hei. No. Hei. No. Hei. No. Hei. No. Hei. No. Hei. No. Hei. No. Hei. As time passes, it gradually decreases, and most of the dissolved hydrogen hydrazine during drinking becomes extremely small, and the effect of the above-mentioned water reforming is gradually halved with the passage of time. Therefore, the present invention is to solve the above problem. In view of the problems of the conventional electrolytic water purification device, the object of the present invention is to provide a new-type electrolytic water purification device that can maintain a constant range without reducing the amount of dissolved hydrogen in the water to be used. In order to solve the problems described above, the electrolytic water purification device according to the first aspect of the invention (the invention of claim 1) includes a purified water treatment unit for purifying the water purification unit and storing the water purification treatment unit. The treated water storage tank of the water and the water discharge part for supplying the water stored in the treated water storage tank are characterized in that the pure water generating unit that passes through the purified water treatment unit i is used. The hydrogen generation unit that generates hydrogen gas from the pure water generated by the pure water generating unit to the supply passage of the treated water storage tank and a part of the pure water generated by the pure water generating unit is electrolyzed. Taking the treated water from the treated water storage tank, returning it to the water storage tank again, and the treatment water set in the middle of the circulation passage for taking out the treated water storage tank The hydrogen pump is returned to the circulating water pump of the treated water storage tank. x Purifying the two rounds: First, the water such as tap water is beta-formed by the purified water treatment unit, and the pure water generating unit is made pure. Water, in the treatment of water storage tank. Another part, then sent to the ammonia gas: deposit electrolysis. By this electrolysis, the generation of Weng livestock. ^ This is illegally resolved into hydrogen milk. The hydrogen produced by this, by the 201033133 ring pump, It will be dissolved in the water taken out from the water storage tank and stored in the water storage tank through the circulation passage. In addition, the water in the treated water storage tank can be supplied from the water outlet. To the outside ^ ^ Γ ' The user can drink it. Therefore, according to this electrolysis The water purification device, the water stored in the treated water storage tank, is driven by the catguin, and is smashed by the cat, and the left side is circulated by the circulation passage, thereby making the dissolved hydrogen in the treated water slow. In the case of the first invention, the second invention (the invention described in claim 2) is characterized in that it is used in the first invention. In the middle of the circulation path, a bubble refining filter for refining the bubble of the hydrogen gas is provided between the circulation pump and the treated water storage tank. The electrolytic water purification device according to the second invention is In the bubble fine refining filter, the hydrogen gas bubbles are finely sized, so that the amount of hydrogen dissolved in the treated water can be further increased. The third invention (the invention according to claim 3) is characterized in that the first or In the second aspect of the invention, the circulation system and the hydrogen generating unit are connected to a control device having a timer built therein, and the control device is connected to the illuminance sensor, and the illuminance sensor is passed through the illuminance sensor. When the illuminance is specified, Over timer, so that the circulation pump with the hydrogen generation unit within a predetermined period of time is repeatedly driven and stopped. In the electrolytic water purifying apparatus according to the third aspect of the invention, the illuminance sensor detects that the illuminance of the predetermined light is reached, and the circulation pump and the hydrogen generating unit start driving together. Further, when the control device determines that the driving of the circulation pump and the hydrogen generating unit has passed the predetermined time 201033133, the control unit only stops the circulating pump and the hydrogen generating drive for a predetermined time, and further controls the device. It is judged that the cycle of α. Na is difficult and the stop of the hydrogen generation unit has been ',', although the control time has passed, the control device has a method of generating m, no device, and then starts the circulation pump and hydrogen gas in this way. (3) The electrolytic water purification device of the invention is made to start and stop the driving of the reverse cycle pumping and gas generating unit, and the electrolytic water purifying device of the third invention can not only maintain the amount of dissolved gas in the treated water at a certain amount. And it can also save electricity. According to the invention of claim 4, in the second or third invention t, the hydrogen generating unit is connected to an oxygen-to-pass passage, and the oxygen is circulated to generate oxygen in the hydrogen gas. The electrolysis of water I is circulated, and the front end of the oxygen flow path is an oxygen discharge port for discharging oxygen absorbed by the user. ^ 4 (4) n water cutting device, the oxygen generated by electrolysis of pure water will be released from the gas circulation passage and released from the gas. Therefore, according to this, the oxygen emitted by the discharge port can be inhaled into the body, and the oxygen generated by the electrolysis can be effectively utilized. According to a fourth aspect of the invention, in the fourth aspect of the invention, a fan that sends the oxygen gas to the middle of the oxygen flow path is provided. The fan is connected to the control unit, and the control unit is connected to the oxygen release opening, and when the driving of the circulating fruit gas generating unit is stopped, when the control unit determines that the oxygen release switch is ON: θ β & The fan and circulation pump and hydrogen generating unit will start driving 7 201033133. When the control device determines that the oxygen release switch is ON, the fan and the secret gas and hydrogen generation unit will be used when the control device determines that the oxygen release switch is turned off. Will start driving. Therefore, by starting to drive the hydrogen generating unit and the circulation pump in the above manner, not only argon gas can be generated, but also the amount of dissolved hydrogen in the treated water storage tank can be forcibly increased, and by initiating driving of the fan, the inflowing oxygen flow can be specified (4) Released from the gas outlet. Therefore, in the electrolytic water purifying device of (4); =, even when the driving of the circulation pump and the gas generating portion is stopped, when the user has the necessity of taking in oxygen, the switch can be turned ON at any time. Draw oxygen. In the invention of claim i (the invention described in the claim!), the hydrogen gas generated by the hydrogen generation P is dissolved in the water taken out from the treated water reservoir by the circulating chestnut edge. Path (4) is in the treatment of water error: I can therefore increase the amount of dissolved hydrogen in the treated water slowly, the user can maintain in the state of dissolved = saturated state (4), and can maintain without reducing the amount of water in the drinking water In a certain range. In the S 2 invention (the invention described in the claim 2), since the bubbles of hydrogen gas are made fine by miniaturization, the amount of dissolved hydrogen in the treated water can be kept within a predetermined range. The amount of cold hydrogen in water, and in the third invention (the dragon is to repeat the circulation pump and hydrogen generation, since the control always drives the circulation pump and the hydrogen generating unit instead of the sub-item. Therefore, not only the treatment 201033133 can be processed. The amount of the cold hydrogen is kept at a certain amount, and the power can be saved. In addition, in the fourth invention (the electrolysis described in the claim 4 is performed, and the hydrogen gas is released from the oxygen in the pure water passage) The oxygen outlet is the center of the == Therefore, the user can put oxygen from the oxygen. In the invention, the invention produced by the electrolysis (the invention described in claim 5) can be effectively utilized in the cycle e, the part When the drive is stopped, when the control device determines that the oxygen release switch is ON, the 'fan and the circulation pump and the hydrogen start to drive, and by starting the driving of the gas generation in the above manner::: 杲, not only can the money be generated, Let the county dissolve (4) The system is increased, and by starting to drive the fan, the gas flowing into the oxygen flow path can be released from the oxygen discharge port at a predetermined pressure. Therefore, the electrolytic water purification device according to the invention is even in circulation. When the driving of the gas generating portion is stopped, when the user has the necessity of taking in oxygen, the oxygen can be taken up by turning the switch ON at any time. w [Embodiment] The following is a reference to the drawing. The electrolytic water purification device for carrying out the embodiment of the present invention will be described in detail. The water purification device of the embodiment of the electrolytic water purification device of the present embodiment is formed into a rectangular parallelepiped frame as shown in FIG. In the body 2, a cold water storage tank 22 (the treated water storage tank of the present invention), a warm water storage tank 23, a pressure pump 15, and the like, which will be described later, are housed. Further, the front side of the casing 2 is slightly above the upper side, 9 201033133 The recessed portion 2a is formed in the recessed portion 2a, and is provided with a water outlet 3 for cold water (the water outlet portion of the present invention) and a water outlet 4 for warm water which is arranged in parallel with the outlet 3 for cold water. Supply In the portion of the cold water storage tank (constituting the treated water storage tank of the present invention) 22, the warm water outlet 4' is a portion for supplying drinking water in the warm water storage tank 23 to be described later. The cold water switch operation lever 5 constituting the on-off valve is provided behind the water outlet 3, and the warm water switch operation lever 6 constituting the on-off valve is provided behind the warm water outlet 4. The cold water switch operating lever 5 and the warm water switch operating lever 6 are all connected to an on-off valve (not shown), and are elastically pressed in a front direction (off direction) by an elastic material (not shown). The container such as the cup (or by the user's finger) is pressed rearward by the user, whereby cold water or warm water can be supplied from the cold water outlet 3 and the warm water outlet 4. Further, below the cold water outlet 3 and the warm water outlet 4 in the recess 2a, a support plate 2f () for carrying a cup (not shown) is provided on the support plate 2f, and the cold water is formed. The through hole 2g through which the cold water or the warm water supplied from the water outlet 4 and the warm water outlet 4 can pass is connected to one end of the drain pipe (not shown) below the through hole 2g, and the drain is used for the drain. The other end of the tube is connected to a drain tank (not shown). Further, in the right side plate 2d of the casing 2 shown in Fig. 2, an oxygen suction pipe 7 for sucking oxygen is provided, and the oxygen suction pipe 7 is connected to an electrolysis device 32 (hydrogen generating portion of the present invention) to be described later. The oxygen discharge d 39d is further provided with an upper front panel 上方 above the recess 2a, and the upper front panel 2b is provided with a circular display panel 8 and is provided on the display 10 201033133

The operation panel 9 below the panel 8 is not provided. In this case, a power supply lamp 8A connected to the control device 20 shown in FIG. 4 is provided at the center of the upper display panel 8 shown in FIG. 2(a), and the power supply of the electrolytic water purification device is ON. In the state of the state, it lights up in green, while in the state of 〇ff, it does not light. The warm water state indicator lamp 8B connected to the control device 20 is provided on the left side of the power supply lamp 8A, and is red when the water temperature in the warm water storage tank 23 to be described later is heated to a predetermined temperature. Lights up, and when it is in a normal temperature state, it does not light. In the lower side of the power supply 8a, the cold water state indicator lamp 8C connected to the control device 2 is provided, and when the water temperature in the cold water storage tank 22 to be described later is cooled to a predetermined temperature, it is blue. It lights up, but when it is in normal temperature, it does not light. Further, below the warm water state indicator lamp 8B, a hydrogen and oxygen generating lamp 8D connected to the control device 2G is provided, and the operation of the electrolysis device 32, which will be described later, is blue in the generation of hydrogen gas and oxygen gas. Lights up. Further, below the cold water state indicator lamp 8C, a hydrogen/oxygen suspension lamp 8E connected to the control device is provided, and when the electrolysis device described later stops operating to stop the generation of hydrogen gas and oxygen gas, it is illuminated in orange. . Further, in the central portion below the hydrogen and oxygen generating middle lamp 8D and the hydrogen and oxygen rest light 8E2, a filter exchange warning lamp 8 connected to the control device 2 is provided, and the filter exchange warning lamp 8F is used. The operation signal of the set time is reached by the filter exchange timer 9G connected to the control device 2Q, and is illuminated by the precipitator filter 12 and the carbon filter 13 (the purified water treatment unit of the present invention). The red color of the exchange period does not normally light up. Further, the set time of the filter exchange timer 9G is set to 11 201033133 for about 4400 hours (about 6 months) in order to maintain the clean water content of the tap water. Moreover, it is the left end of the other operation panel 9 shown in FIG. 2(b). An oxygen release switch 9 is connected to the control device 2 shown in FIG. 4 and is shown as "Γ〇χΙ", and the oxygen release switch 9 is not lit, and the hydrogen and oxygen are stopped. In the lighting, at any time during which the electrolysis device 32 does not generate oxygen, the ON/OFF display portion of the oxygen release switch 9A can be turned on by manual pressing, and the electrolysis device 32 can be operated. Oxygen is taken up from the oxygen suction pipe 7 described above. Further, on the right side of the oxygen discharge switch 9A, a warm water temperature switch 9B connected to the control device 2 and displayed as "HOT" is provided. In the warm water temperature switch 9B, the warm water temperature switch 9B and the warm water state indicator lamp 8B are turned on, and the water temperature in the warm water storage tank 23 to be described later is heated to a predetermined temperature (the state of warm water) At any time, the temperature of the warm water temperature switch 9b can be turned on and the display portion of the warm water temperature switch 9b can be turned on, and the heater 27, which will be described later, is stopped, and the water temperature in the warm water storage tank 23 is not The state of heating to a predetermined temperature (state at normal temperature). Further, on the right side of the warm water temperature switch 9B, an illuminance sensor 9C connected to the control device 20 is provided. The illuminance sensor 9c can sense the illuminance in the room to set the illuminance. When the illuminance is reached, the bright signal is output. When the illuminance is not reached, the dark signal is output, for example, when the brightness of the set illuminance is reached. 'The output light signal enables the electrolytic water purification device to start working, maintains automatic operation, and when the set illumination is small, the dark signal is output, and the automatic operation of the electrolytic water purification device i is stopped, and the state of rest is maintained. 12 201033133 Further, on the right side of the illuminance sensor 9C, a cold water temperature switch 9d connected to the control device 20 and displayed as "COLD" is provided. In the cold water temperature switch 9D and the cold water state indicator lamp 8C, the water temperature in the cold water storage tank 22 to be described later is cooled to the temperature (the state of the cold water) at any time. By the manual pressing, the cold water temperature switch 9D is turned ON and the OFF display portion is turned on, and the cooler 24 described later is stopped, and the water temperature in the cold water storage tank 22 is not maintained at a predetermined temperature. (State of normal temperature). Further, on the right side of the cold water temperature switch 9D, a timer reset switch 9E connected to the control device 2 and displayed as "RESET" is provided. This timer reset switch 9E, in order to exchange the warning lamp 8F according to the above filter. The warning of the lighting, after exchanging the sediment filter 12 and the carbon filter 13, which will be described later, causes the filter exchange timer 9G to start operating, and the timer reset switch 9E' can be reset by pressing the timer reset switch 9E' The ON and OFF display portions of 9E are turned on, and the count time is reset to zero (〇" _. Further, a detachable lower front panel 2c is attached below the recess 2a, and the lower front panel 2c is attached thereto. (in the above-mentioned housing 2), a cold water storage tank 22, a warm water storage tank 23, a drainage storage tank (not shown), and the like, which will be described later, are housed, and the like, and the following is shown in FIG. The electrolytic water purification device 1 of the embodiment will be described. The electrolytic water purification device 1 is connected to a common upper water channel through a pipe (not shown) and a water stop valve ', and the pipe is connected with a sediment filter. 12. The sediment filter 12 removes rust, sand, dust, and the like from the water supplied from the sewer by 13 201033133 by a hole of 5 to 6 cm, not shown. 12, the carbon filter 13 is connected, and by the adsorption of activated carbon (not shown) of the carbon filter 13, the gas compound in the water passing through the sediment filter 12, a small amount of a coloring matter, a malodorous gas, or the like can be adsorbed. Further, in the carbon filter 13, a pressure pump 15 is connected to the electromagnetic valve 14, and the water supplied from the sewer can be pressurized and transported to the downstream side. The electromagnetic chamber 14 and the pressurized fruit 15' are connected to FIG. The control device 20 shown can be driven or stopped by the operation of the float switch 21 in the preliminary storage tank 18, which will be described later. Further, the pressure pump 15 shown in Fig. 3 is connected with a reverse osmosis membrane filter. 16 (pure water generating unit according to the present invention), the reverse osmosis membrane filter 16 is provided with a semipermeable membrane having micropores (not shown) of Ο.ΟΟΟΙβχη (about 1 〇 of the hair) The water sent from the pressure pump 15 is pressurized to remove about 95% of the gold Pure water of impurities such as bacteria and organic compounds, and water that does not pass through the impurities, is discharged to the outside from the drain pipe (not shown) attached to the lower portion. Further, the reverse osmosis membrane filter 16 is connected to the reverse osmosis membrane filter 16 One or more of the ore filter 17 is connected to the other side of the branch joint (the symbol is omitted). The ion exchange resin filter 31 is connected. Among them, one of the ore filters 17 is laminated with a natural ore (not shown). The medicinal stone, the feldspar, the tourmaline, etc., by passing the pure water through the ore filter 17 of the side, so that the mineral component is dissolved in the pure water ◦ in the ore filter 17, further connected with the preliminary storage tank 18, In the preliminary storage tank 18, water from the above-described ore filter 17 is stored. Further, the preliminary storage tank 18 is provided with a float switch 21 for maintaining the stored water at a predetermined amount, and a cold water reservoir 201033133 slot 22 and a warm water reservoir are respectively connected to the lower portion of the preliminary storage tank 18. Slot 23. The floating control switch 2 is a floating body 21a that is sealed in a hollow shape and floats on the water surface, an L-shaped support body 21b for supporting the floating body 21& and the upper and lower sides of the floating body 2U The operation is performed by the micro-switch 21c that electrically operates the N/〇FF operation through the support 21b. Further, the supply passage for supplying the pure water of the present invention to the treated water storage tank is constituted by the above-described ore filter 17 and the preliminary storage tank. Therefore, if the amount of stored water in the preliminary storage tank 18 is reduced by only a certain amount, the front end side of the floating body 21a will be lowered, thereby being lowered, and the support body 21b is transmitted to connect the control shown in FIG. The energization of the micro switch 2lc of the device 2 turns into 〇N, and the above-described solenoid valve 14 is opened and the pressure pump I5 is driven to replenish the water passing through the stone filter 17 into the reserve -18. Further, if the amount of stored water in the preliminary storage tank 18 is equal to: 18, the micro switch 21 is provided. The energization will become (10), and the solenoid valve 14 is closed and the pressurizing pump 15 is stopped so that the water passing through the ore filter η is no longer replenished in the preliminary tank 18. Further, below the preliminary storage tank 18, a cold water storage tank 22 and a warm water storage tank 23 are connected to each other through a pipe body (the symbol is omitted). In the cold water storage tank, a cooler 24 for cooling the stored water is installed, and in order to maintain the stored cold=temperature at a predetermined temperature, the cold water mister 25' for installing the temperature is installed. The temperature detecting portion 25a is placed in the water. Among these, the cold unit 24 and the cold water thermostat 25 are connected to the control unit 2 shown in FIG. 4 when the water temperature in the cold water storage tank 22 rises to a predetermined temperature or higher. The energization of the cold water thermostat 25 becomes 〇N, 15 201033133 drives the cooler 24 to cool the water temperature of the above stored water. On the other hand, when the water temperature drops to a predetermined temperature, the cooling of the cooler 24 is stopped by turning off the energization of the cold water thermostat 25. Further, a pipe body (not shown) is attached to the cold water storage tank 22 as a water outlet 3 for supplying cold water to which cold water can be supplied. Therefore, when the cold water switch operating lever 5 is operated backward, the cold water stored in the cold water storage tank 22 will flow out from the cold water outlet 3 due to its own weight, and will be stored according to the water discharge amount. The water in the preliminary storage tank 18 is replenished to the cold water storage tank 22 by the drop (the weight of itself). Further, in the warm water storage tank 23, a heater 27 for heating the stored water is installed, and in order to maintain the temperature of the warm water stored in the warm water storage tank 23 at a predetermined temperature, The warm water thermostat 28' for temperature detection is installed to set the temperature detecting portion 28a in the water. In the above, the heater 27 and the warm water thermostat 28 are connected to the control device 20 shown in FIG. 4, and when the temperature of the water in the warm water storage tank 23 falls below a predetermined temperature, The warm water thermostat 28 is energized to become 〇N to operate the heater 27 to heat the water temperature of the stored water. On the other hand, when the water temperature rises to the temperature of the gauge, the operation of the heater 27 is stopped by turning off the energization of the warm water thermostat 28. Further, in the warm water storage tank 23', a front end is connected as a pipe body (not shown) for the warm water outlet 4, and a water supply is added to the warm water storage tank 23, and the water outlet 4 is used for the warm water. When warm water is supplied, the water stored in the preliminary storage tank 18 will be replenished to the warm water storage tank 23 by the drop (the weight of itself). Further, from the other side of the reverse osmosis membrane filter 16 branched, the 16 201033133 sub-exchange resin filter 31' is pressurized and transported from the reverse osmosis membrane filter 16 by ion exchange of an ion exchange resin. Pure water and carbon monoxide, etc., are used to sterilize residual gases in water to be removed, thereby producing ultrapure water. The ion exchange resin filter 31 is connected to electrically pump ultrapure water pressurized by the ion exchange resin filter 31.

The electrolytic device (hydrogen generating portion of the present invention) 32 for generating hydrogen gas and oxygen gas is obtained. As shown in FIGS. 5 and 6, the electrolysis device 32' is fixed to the outer container 33 that can store water, and the inner container 34 that is provided on the inner upper portion of the outer container 33 and that can accommodate water inside. The container cover 35 at the upper end of the outer container 33 and the inner container 34, the support cover 37 fixed to the upper surface of the container cover 35, and the structure of the hydrogen conduit 38 and the oxygen conduit 39 fixed to the support cover 37 . In the above-described outer container 33, as shown in Fig. 6, a crotch portion 33a capable of storing water (electrolyte) is formed on the lower side, and a lower portion of the crotch portion 33a is formed to serve the stored water. The discharge port 33b is discharged. The discharge port 33b is provided with an on-off valve 4 that can be manually opened and closed. [(..., FIG. 3) The drainage of the on-off valve 41 is used to remove the scale deposited in the electrolysis device by electrolysis described later. Since the drainage water is supplied to the electrolysis device 32 by the reverse osmosis membrane filter, the pure water supplied by the reverse osmosis membrane filter, and the ion exchange reactor 31, the accumulation of scale and the like is less than about a year. . Further, in the outer container 33, a widened portion 33d whose right g is V-shaped obliquely widened is formed on the upper side adjacent to the crotch portion 33a, and is adjacent to the widened portion 33d. Upper 0P is formed with an upright upright portion 33f, and the left and right side portions shown in FIG. 5 of FIG. 4 are sealed by a side plate (not shown), 17 201033133 and the upper portion of the upright portion 33f is fixed to the container. Cover 35. Further, the inner container 34 is formed with a flow port 34a through which water can flow at the lower end, and a widened portion 34b which is obliquely widened in a U shape is formed above the flow port 34a, and the widened portion 34b is adjacent to the upper portion. An upright portion 34c is formed, and the upper portion of the upright portion 34c is fixed to the container lid 35. Further, between the widened portion 33 (1, the upright portion 33f, the widened portion 341 of the inner container 34) and the upright portion 34c of the outer container 33, a rear portion is formed.

The hydrogen gas flow path 43 through which hydrogen gas can flow is described, and the oxygen gas flow path 44 through which oxygen can flow, which will be described later.

Further, the hydrogen gas conduit 38 has an opening (not shown) for allowing hydrogen gas from the upper hydrogen gas flow path 43 to flow at the lower end, and an upright lower standing portion 38a is formed above the opening. Stand upright with this lower side. A converging portion _ is formed above the adjacent portion of the P 38a, and an upright hydrogen discharge portion 38ce is formed above the tear portion adjacent to the constricted portion. The upper end of the hydrogen discharge portion 38c is formed with an opening. The negative gas discharge port 38d of the hydrogen gas can be discharged, and the hydrogen discharge port 38d is connected to the carbon air transition unit 57 shown in Fig. 3 by the pipe member 56. Further, as shown in Fig. 5, the narrowed portion is formed in a mountain shape which is raised from the center to the center, and the hydrogen gas discharge portion 38e is formed at the top of the mountain shape. Therefore, the cathode electrolytic plate 51 to be described later can be used. The generated hydrogen gas is efficiently concentrated on the hydrogen gas discharge portion π. Further, the oxygen conduit 39 has an opening (not shown) for allowing oxygen to flow from the upper pair :: flow path 44 at the lower end, and is opened therewith. The upper side of the adjoining portion is formed with a slanted lower side straight 39 apex 39a adjacent to the upper side of the lower side j, and a narrowed portion 39b is formed, and 18 201033133: a wide portion is adjacent to the upper side, Forming an upper end of the upright Z oxygen discharge portion 39c, an opening is formed to discharge the oxygen and oxygen outlet port state, and the oxygen discharge port 39d is sent to the fan by the oxygen indicated by Π::3, Shrinking unit 1

In the same manner as the widened portion of the hydrogen gas conduit 38, it is formed in a mountain shape which is increased from the right and left to the center, and the oxygen discharge portion 39c is formed at the top of the mountain shape, so that it can be described later. The oxygen generated by the anode electrolytic plate μ is effectively concentrated on the oxygen discharge portion 39c. Further, in the electrolysis device 32, as shown in Figs. 5 and 6, a water supply joint 46 is fixed to the container lid 35, and the water supply port is formed to supply the filter from the ion exchange resin filter. Water supply hole 46c of pure water. On the upper end side of the water supply joint 46, a pipe fixing portion 46a for fixing a pipe (not shown) connected to the discharge port of the ion exchange resin filter 31 is formed, and is integrated under the pipe fixing portion 46a. A valve body mounting portion 46b for mounting a float valve body 47 to be described later is formed. The valve body mounting portion 46b is formed with a discharge hole 46d' having a diameter larger than the water supply hole 46c, and an upper end of the discharge hole 46d is formed to form a direction. The water supply hole 46c has a taper hole 46f having a tapered surface, and a portion of the valve body mounting portion 46b is formed with a recess (not shown) in which the support body 47c, which will be described later, is floated by the float valve body 47. Further, in the electrolysis device 32, the valve body mounting portion 46b of the water supply joint 46 is provided with a float valve body 47 for maintaining the ultrapure water supplied from the water supply hole 46c at a predetermined amount of water. The floating control valve body 47 is configured to prevent the inflow of the ultrapure water when the ultrapure water reaches a predetermined amount, and is a floating body 47a, a valve rod 47b, and a floating body 47a that is hollow and can float on the water surface. The support body 47c for supporting the floating body 47a and the valve rod 47b in an L shape is formed. The support body 47c' has a floating body 47a fixed to one end side, and the other end side is rotatably supported by the body mounting portion 46b of the water supply joint 46 by a pin 47d. Further, on the other end side of the support body 47c, a valve rod 47b is provided upright, and the upper end of the valve rod 47b is formed to have a counterclockwise direction shown in Fig. 5 by the support body 47c. A tapered convex portion 47f of a tapered surface that is in close contact with the tapered hole 46f. Further, when the water surface of the ultrapure water stored in the electrolysis device 32 is reduced by a certain amount, the float valve body 47 is lowered, and the front end side of the floating body 47a is lowered, thereby being lowered through the support body 47c. The tapered convex portion 47f of the valve rod 47b is separated from the tapered hole 46f of the water supply joint 46 to form a gap, and the ultrapure water from the ion exchange resin filter 31 is pressurized and transported to the inside. Further, when the amount of stored water of the ultrapure water in the electrolysis device 32 is large, the front end side of the floating body 47a also rises, and when the amount of stored water reaches a predetermined amount, the valve body is passed through the support body 47c. The tapered projection 47 of the 47b is in close contact with the tapered hole 46f of the water supply joint 46 by the close contact state to prevent the supply of the ultrapure water pressurized by the ion exchange resin filter 31. Further, in the above-described electrolysis device 32, in the crotch portion 33a of the inner container 34 shown in Fig. 6, the electro-acoustic portion 40 is provided with an electrolysis portion 40 which can generate hydrogen gas and oxygen by electrolysis. In the electrolysis unit 4, the cathode side electrode rod 48 and the anode side electrode connection 49 are insulated from each other in the insulating state, and the cathode side electrode rod 48 is fixed to the cathode side electrode rod 48. (formed in a plate shape) a cathode electric power 20 201033133 plated with titanium platinum plating, and an anode side electrode rod 49 on the other side, a surface (formed in a plate shape) is fixed to the surface of the cathode electrolytic plate 51 An anodic electrolytic plate 52 coated with titanium platinum is applied. The cathode electrolytic plate 51 and the anode electrolytic plate 52 are provided below the flow port 34a of the inner container 34. At the central portion where the cathode electrolytic plate 51 and the anode electrolytic plate 52 face, a gap is formed and ions are provided. The crucible 53 is exchanged, and the cathode electrolytic plate 51 and the anode electrolytic plate 52 are separated by the ion exchange membrane 53. Further, around the cathode electrolytic plate 51 and the anode electrolytic plate 52, a mesh body 54 having a mesh capable of freely flowing pure water is provided. Further, in the electrolysis device 32 configured as described above, the cathode-side electrode rod 48 and the anode-side electrode rod 49 shown in Fig. 6 are respectively supplied with electricity, and the pure water (electrolyte) stored therein is electrolyzed. Hydrogen gas (HO) is generated on the side of the cathode electrolysis plate 51. The hydrogen gas is discharged to the hydrogen gas discharge port 38d of the hydrogen gas conduit 38 through the hydrogen gas flow path, and is passed through the piping member 56 connected to the hydrogen gas discharge port (refer to the figure). 3), and sent to the _ square carbon air through the filter ^7. In addition, on the other side of the anode electrolytic plate 52 side of the formation of oxygen (〇2), this oxygen will be discharged to the oxygen through the oxygen flow path 44 The oxygen discharge port 39d of the duct 39 is sent to the other oxygen delivery fan 59 through the piping member 58' connected to the oxygen discharge port 3^. * Among them, one of the carbon air filters 57 is The foam contained in the nitrogen gas generated in the electrolytic device i 32 is removed by filtration of a powder or the like (not shown). The carbon air filter 57 is connected to a circulation pump 62 through a pipe body (not shown). This circulation pump 62 is only driven by I, at The cycle "2" is provided with a gas suction port connected to the above-mentioned == 21 201033133 ^ 57, and a water suction port connected to the other end of the pipe body (omitted symbol) connected to the cold water storage tank 22 at one end, When the circulation pump 62 is driven, the hydrogen gas from the carbon air filter 57 is sucked in by one of the gas suction ports, and the water from the cold water storage tank 22 is sucked in through the other water suction port 62b. Further, the circulation pump 62 is not added by a pump mechanism (not shown).

The hydrogen gas (h2) to be sucked is mixed with water (h2〇) by the pump mechanism shown in the figure, and is pressurized and sent out from the discharge port 62c in the form of hydrogenated water (H2 + h2〇) in which hydrogen is dissolved in water. The discharge port 62c of the circulation pump 62 is connected to the bubble refining filter 63 through a pipe body (the symbol is omitted). The bubble miniaturizing filter 63' is provided with a semi-permeable membrane having micropores (not shown) of 〇〇〇〇1 in m (about 1 part per mil of the hair), by the semi-transparent. The membrane refines the bubbles of hydrogen gas pressurized by the circulation pump 62, and has an effect of increasing the amount of hydrogen dissolved in the hydrogenation water. The bubble refining filter 63 is connected to the cold water storage tank 22 through a pipe body (notationally omitted).

Therefore, as shown in FIG. 3, the aerated water from the bubble refining filter 63 is transported by pressure and stored in the cold water storage tank 22, and then the hydrogenated water stored in the cold water storage tank 22 is borrowed. The circulation pump 62 is driven, and is sucked in from the water suction port 62b of the circulation pump 62, and is mixed with hydrogen gas from the carbon air filter 57 sucked in from the gas suction port 62a, and then from the circulation pump 62. The discharge port 62c is again pressurized and transported through the bubble refining filter 63' and stored in the cold water storage tank 22. That is, the hydrogenated water stored in the above-mentioned cold water storage tank 22 can be passed through the cold water storage tank 22 constituting the circulation passage of the present invention, the circulation pump 62, and the bubble fine, and the user can pass through the apparatus 6 3 3 . The circulation can be gradually increased while the amount of dissolved hydrogen in the treated water is near the state of saturation. Further, the oxygen supply 59 connected to the other of the electrolysis devices 32 is driven only during the operation of the electrolysis device 32, and the oxygen fan is extracted from the electrolysis device 32 when the fan 59 is driven by the electrolysis device 32. 2

The generated oxygen is sent to the oxygen suction pipe 7 of Fig. i through the oxygen supply fan 59. Then, the user can suck oxygen from the oxygen discharge port 7a of the oxygen suction pipe 7 at the above-mentioned electrolysis device 32. In addition, the electrolysis device 32 is operated by the illuminance sensor 9 (or the bright signal), or even when it is in an inoperative state by the dark signal from the illuminance sensor 9 The oxygen discharge switch 9A can be pressed (mandatory) to operate, and the circulation pump 62 and the oxygen delivery fan 59 are driven separately while the electrolysis device 32 is operating. Further, the electrolysis devices 32 operate exclusively. At the time, the hydrogen generation work timer 9JJ connected to the control device 20 shown in FIG. 4 is set at 15 minutes, and the electrolysis device 32 and the like are stopped for a rest time, and the hydrogen is connected to the control device 2 The stop timer 91 is generated and set at 45. The set time is not limited to the above-described set time, and the frequency of drinking the hydrogenated water from the cold water outlet 3 can be freely changed. The flow chart illustrates the sequence and effect of generating hydrogen gas by the above-described electrolytic water purification device 1 to store hydrogenated water and generating oxygen. The hydrogen generation is performed in the preparation stage before the electrolytic water purification device 1 is operated. The setting time of the work timer 9H is set to 15 minutes, the set time of the hydrogen generation stop timer 91 is set to 45 minutes, and the illuminance feeling 23 201033133 is set to the illuminance of the detector 9C, which is set in the above-mentioned electrolytic water purification. The illuminance corresponding to the time zone of the device ^ (the illuminance in the room of the sunshine time zone). The water stop valve 11' shown in Fig. 1 can be opened by hand beforehand. In the initial step St1, the above-mentioned preliminary storage tank Whether the amount of water of 18 is a predetermined amount is determined by the control device 20 through the micro switch 21c of the float switch 21, and when it is determined that the predetermined amount has not been reached, the process proceeds to step st2, and when it is determined that the predetermined amount has been reached, Then, the process proceeds to the next step St3. In the above, when the process proceeds to step St2, the solenoid valve 14 is opened, and the pressurizing pump 15 is driven through the deposit filter 12 and the carbon filter ' © electromagnetic The valve 14, the reverse osmosis membrane filter 16, and the ore filter 17 are pressurized and transported to the preliminary storage tank 18, and then returned to step S1 and repeated to determine whether the amount of water in the preliminary storage tank 18 is Further, the water pressurized by the pressure pump 15 is also branched from the reverse osmosis membrane filter 16 to the ion exchange resin filter 3, and the water supply port provided to the electrolysis device 32 is opened. When the taper hole 46f of 46 is also purely hydrated in the electrolysis device 32, the water is replenished. Further, when the process proceeds to the next step St3, whether the illuminance sensor 9C is the illuminance is the set illuminance. The illuminance sensor 9C determines by the control device 20 that when it is determined that the set illuminance has not been reached, the process returns to step St3 and repeats. When it is determined that the set illuminance has been reached, the process proceeds to the next step St4. In the first step st4, the electrolysis device 32 is operated, and the circulation pump 62 and the oxygen delivery fan 59 are driven, and hydrogen gas and oxygen gas are generated by the electrolysis of the electrolysis device 32, and the process proceeds to the next step St5. In the above step st4, if the electrolysis device 32 is opened 24 201033133 * :: "the hydrogen and oxygen of the display panel 8 shown in FIG. 2 are generated, the lamp buckle will be redundant" in the step st6 described later to the above During the period when the operation of the electrolyzer is stopped, the performance of the lamp will be resumed. Further, the hydrogen gas generated by the above-described electrolysis is sucked into the circulation pump 62 via the carbon air filter 57, and is mixed with the hydrogenated water from the cold water storage tank 22, and then refined by the bubble. The prize-like refinement filter 63 is returned to the above-described water storage tank 22 in the form of hydrogenated water in which hydrogen is dissolved. By applying a loop through the © circulation path, the amount of dissolved hydrogen in the treated water can be gradually increased, and the user can drink while the amount of dissolved hydrogen is close to saturation. Further, the shyness generated by the decomposing means 32, and the oxygen enthalpy, can be sent by the oxygen sending fan 59, and sucked from the front end of the oxygen suction pipe 7. In addition, in the next step St5, whether the working time of the electrolysis device 32 or the like has passed 15 minutes, the damage reading, the hydrogen generation work timer 9H, and the control device 2〇 determine that the electrolysis is determined. When the operation time of the device 32 or the like has not passed for 15 minutes, the process returns to the step (10) and is repeated. When it is determined that the operation time of the electrolysis device 32 or the like has elapsed for 15 minutes, the process proceeds to step St6. In the case of "to the next - (4) (10), the operation of the electrolysis 59 is stopped", and the circulation pump 62 and the fan for the oxygen delivery fan are stopped, and the helium gas and the oxygen gas generated by the electrolysis device 32 are stopped. After 'going forward to step-step st7. In addition, in the above step (10), the operation of the electrolysis device 32 is stopped, and the display panel 8 shown in circle 2 is turned on in the oxygen stop, in the next step St4 In the next step (10), the oxygen release switch 9A is 〇N, and the system is permeable to 25A through the 2010 When the device 2 determines that the determination is ON, the process returns to step St4 again, and the electrolysis device 3 is operated, and the circulation pump 62 and the oxygen delivery fan 59 are driven by the electrolysis device. The electrolysis action of 32 'generates hydrogen and oxygen, and when it is judged that it is not ON (when (4)', proceeds to the next step st8. Further, in the above step (10), it is determined that the oxygen release switch 9A is 〇N, in spite of the above Hydrogen and oxygen in the middle of the lamp 8E焭' hydrogen and oxygen The condition for pressing the oxygen discharge switch 9A in order to take in oxygen is not generated. When the user proceeds to the next step St8, the operation time of the electrolysis device 32 or the like has elapsed for 45 minutes, and the hydrogen generation rest time is transmitted through the hydrogen generation. The device 判定 is determined by the control device 20, and when it is determined that the rest time of the electrolysis device or the like has not passed for 45 minutes, the process returns to the step (10) and is repeated. When the operation time of the electrolysis device 32 or the like has passed 45 minutes, St3 is repeated again. ~ w 7 By the above manner, the electrolytic water purification device 1 of the present embodiment is operated continuously and continuously 'for example, without drinking hydrogenated water or ingesting oxygen late at night (in bedtime), by The illuminance sensor is known to be within the visibility, so that the operation is stopped, and even if it is not stopped: the hydrogen generation work timer 9H or the hydrogen generation stop timer solution device 循环 pump 62 and oxygen delivery The fan 59 repeatedly performs the cycle of driving for 5 minutes and stopping for 45 minutes. Therefore, the electrolytic water purifying device can not only keep the amount of dissolved hydrogen in the treated water constant, but also In addition, in the cold water state display panel of the display panel 8 and the cold water temperature switch 9d of the operation panel 9 in the light-cooling section, the cold water temperature switch 9D is pressed by 26 201033133 to make it OFF, the cooler 24 can be stopped, whereby the user can drink the hydrogenated water at normal temperature. The ON/OFF operation of the cold water temperature switch 9D can be operated at any time during the above automatic operation. 2, the warm water state indicator lamp 8B of the display panel 8 and the warm water temperature switch 9B of the operation panel 9 are illuminated (in warming), and the temperature of the warm water temperature switch 9B is pressed to make it 〇FF. The heater 27 is stopped, whereby the user can drink pure water at normal temperature. The ΟΝ/OFF operation of the warm water temperature switch 9B can be operated at any time during the above automatic operation. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is an external perspective view showing an electrolytic water purification apparatus according to an embodiment of the present invention. Fig. 2' is a partial view of the electrolytic water purifying device shown in Fig. 1, (a) showing a front view of the display panel, and (b) showing a front view of the operation panel. Φ Fig. 3' is a schematic view showing the configuration of an electrolytic water purification apparatus according to an embodiment of the present invention. Fig. 4' is a block diagram showing an electrical system of an embodiment of the present invention. I(I) is an enlarged view of the A portion of (4) which is an electrolysis device of the electrolytic water purification device according to the embodiment of the present invention. The electric cross-sectional view (b) of the electrolytic water purification apparatus constituting the embodiment of the present invention is an enlarged view of the crotch portion of (4). A flowchart showing an embodiment of the present invention is shown. Operation of electric fresh water purifier 27 201033133 [Explanation of main components] 1 Electrolytic water purifier 2 Frame 3 Cool water outlet 4 Warm water outlet 7 Oxygen suction tube

7a Oxygen discharge port 12 Sediment filter 13 Carbon filter 15 Pressurizing pump 16 Reverse osmosis membrane filter 17 Ore filter 18 Pre-storage tank 20 Control unit

22 Cold water storage tank 23 Warm water storage tank 31 Ion exchange resin filter 32 Electrolytic unit 38 d Hydrogen discharge port 39 d Oxygen discharge port 40 Electrolysis unit 51 Cathodic electrolysis plate 52 Anode electrolysis plate 28 201033133

57 Carbon Air Filter 59 Oxygen Delivery Fan 62 Circulating Pump 63 Bubble Refinement Filter 29

Claims (1)

201033133 VII. Patent application scope: 1 · An electrolytic water purification device 'has a water treatment unit for purifying water, a treatment water tank for storing water passing through the water treatment unit, and for storing and storing therein The water discharge unit that processes the water in the water storage tank is characterized in that: a pure water generating unit that generates pure water from the water passing through the water purification unit, and supplies pure water generated from the pure water generating unit a supply passage to the treated water storage tank, and an argon gas generating portion for generating hydrogen gas by electrically extracting a part of the pure water generated by the pure water generating portion, for taking out from the treated water storage tank Treating the water, returning it to the circulation passage of the treated water storage tank again, and setting it in the middle of the circulation passage, so that the treated water taken out from the treated water storage tank is returned to the treatment together with the hydrogen The circulating water pump of the water storage tank according to the first aspect of the invention, wherein the intermediate portion of the circulation passage is disposed between the circulation pump and the treated water storage tank, so that the Hydrogen The bubble refinement filter in which the bubbles are fine. 3_ The electrolytic water purification device of claim 1 or 2, wherein the circulation pump and the hydrogen generating unit are connected to a control device having a timer, and the control device is connected with illuminance sensing When the control device determines that the predetermined illuminance is determined, the circulator and the hydrogen generating unit are repeatedly driven and stopped for a predetermined period of time through the illuminator. 30 201033133 , 4 2 Shen hydrogen 1 special: the scope of the ... item of the electrolytic water purification device, its road = 20%: connected with oxygen circulation path, the oxygen circulation through two: the front end of the gas flow through the passage, for the purpose The oxygen-purifying outlet of the oxygen is used as the oxygen-containing water purifying device of the third aspect of the patent application, wherein the gas generating portion is connected with an oxygen flow passage, and the oxygen flow is used for the passage The electrolysis of water is circulated with the oxygen generated by the hearing and the passage of the helium gas passage is used to release the oxygen outlet of the user. I. 6. The electrolytic method of claim 4 Water purification device, Wherein, a fan for sending the oxygen gas is provided in the middle of the oxygen flow path, and the fan is connected to the control device, and an oxygen release switch is connected to the control device, and the circulation pump and the hydrogen gas are connected to the control device. When the driving of the generating unit is stopped, when the control device determines that the oxygen releasing switch is 〇Ν, the fan and the circulation pump and the hydrogen generating unit will start driving. 7. The electrolytic net according to item 5 of the patent application. In the water device, a fan for sending the oxygen gas is provided in the middle of the oxygen flow path, and the fan is connected to the control device, and the control device is connected to the oxygen release switch. When the drive of the pump and the hydrogen generating unit is stopped, 'When the control device determines that the oxygen release switch is ON, the fan and the circulation pump and the hydrogen generating unit will start driving. 31