JP6768356B2 - Shower head, faucet water supply equipment, hot water supply equipment with water discharge equipment structure and the same water discharge equipment structure - Google Patents

Description

The present invention relates to a water discharge facility structure and a shower head, a faucet water supply facility, and a hot water supply facility having the same water discharge facility structure.

Conventionally, there is a water discharge facility that is connected to a water supply or a water heater and is configured to be able to discharge hot water.

As an example of such a water discharge facility, for example, a means for washing or warming the body, and a shower that discharges hot water from a large number of pores is widely used.

The shower is used as a space for beauty and comfort as well as refreshing because the body surface is appropriately stimulated by bathing the whole body with innumerable water droplets discharged.

In particular, in recent years, showers that are configured to discharge functional water containing useful ingredients for the user's hands and the like have been provided, and are devised so that the user can enjoy the shower time more.

Examples of such functional water include acidic water and alkaline water obtained by electrolyzing water, and electrolyzed water such as water in which these are mixed. It is known that each of these electrolyzed waters exerts an astringent effect and a bacteriostatic effect on the skin surface, and can efficiently remove waste products on the skin surface.

Therefore, in order to enjoy the effect of electrolyzed water on the body surface as well, a shower head configured to be electrolyzable by energizing hot water is provided (see, for example, Patent Document 1).

According to this shower head, electrolyzed water can be bathed in the whole body, tightening the skin and efficiently removing dirt.

Japanese Unexamined Patent Publication No. 2001-169952

By the way, hydrogen water in which hydrogen gas is dissolved in water has been attracting attention in recent years because it has an active oxygen scavenging ability.

This hydrogen water can also be generated by electrolyzing water and including hydrogen from the cathode side in the water, and the above-mentioned alkaline water and mixed water of the alkaline water and acidic water are electrolyzed. It can be said that it is a functional water that also has an aspect as hydrogen water generated by. In the following description, water containing hydrogen by electrolyzing water is referred to as electrolytic hydrogen water, and among them, alkaline water generated on the cathode side containing hydrogen gas is referred to as alkaline electrolytic hydrogen water.

However, from the viewpoint of the shower device that discharges the electrolyzed hydrogen water, it is difficult for the above-mentioned conventional shower device to focus on the desired portion and to shower the electrolyzed hydrogen water at a high concentration.

Further, this is not limited to the shower device, but is also a problem of the whole water discharge facility configured to be capable of discharging electrolytic hydrogen water.

The present invention has been made in view of such circumstances, and provides a water discharge facility structure capable of discharging electrolyzed hydrogen water to a desired portion in a focused manner and at a high concentration. The present invention also provides a shower head having the same water discharge facility structure, a faucet water supply facility having the same water discharge facility structure, and a hot water tapping facility having the same water discharge facility structure.

In order to solve the above-mentioned conventional problems, in the water discharge facility structure according to the present invention, (1) in the structure of the water discharge facility that discharges the hot water supplied from the water supply flow path from the water discharge unit, the hot water in the water supply flow path. The split stream section and one of the hot water splits at the split stream section are electrolyzed to form electrolytic hydrogen water, and the electrolytic hydrogen water is split into the electrolytic flow path leading to the water discharge section and the diversion section. Electrolyzed hydrogen water that is provided with a water passage that guides the other hot water to the spouting portion in a non-electrolyzed state without electrolyzing the hot water, and discharges electrolytic hydrogen water downstream of the electrolytic flow path to the spouting portion. It was decided that the discharge region and the non-electrolyzed water discharge region for discharging the non-electrolyzed water downstream of the water flow path are separately formed.

In addition, the water discharge facility structure according to the present invention is also characterized by the following points.
(2) A power generating section for generating electricity by the flow of hot water is provided in the water supply flow path, and hot water is electrolyzed in the electrolytic flow path by the electric power generated by the power generating section.
(3) At the boundary between the electrolyzed hydrogen water discharge region and the non-electrolyzed water discharge region, a partition means for preventing the discharged electrolyzed hydrogen water and the non-electrolyzed water from being mixed in the flight is provided. That you are.
(4) The discharge hole bored in the electrolyzed hydrogen water discharge region and the discharge hole bored in the non-electrolyzed water discharge region shall be bored at an angle of discharging in a direction away from each other.
(5) The electrolytic flow path includes a cathode flow path in which a cathode for producing alkaline electrolytic hydrogen water is arranged and an anode flow path in which an anode for generating acidic water is arranged, and both flow paths are mutually exclusive. It is partitioned by a partition wall that regulates distribution, and in the electrolytic hydrogen water discharge region, an alkaline electrolytic hydrogen water discharge region for discharging alkaline electrolytic hydrogen water and an acidic water discharge region for discharging acidic water are respectively. Must be formed separately.
(6) The water flow path is provided with a micro-bubble generating portion.
(7) The electrolytic flow path is provided with a microbubble generating portion.

Further, the shower head according to the present invention is provided with (8) a water discharge facility structure according to any one of (1) to (7) above.

Further, the faucet water supply facility according to the present invention is provided with (9) the water discharge facility structure according to any one of (1) to (7) above.

Further, the hot water facility according to the present invention is provided with (10) the water discharge facility structure according to any one of (1) to (7) above.

According to the water discharge facility structure according to the present invention, in the structure of the water discharge facility that discharges the hot water supplied from the water supply flow path from the water discharge section, the diversion section that divides the hot water in the water supply flow path and the diversion section One of the separated hot water is electrolyzed to form electrolytic hydrogen water, and the electrolytic flow path that guides the electrolytic hydrogen water to the water discharge section and the other hot water that has been split at the diversion section are not electrolyzed. The water discharge section is provided with a water flow path leading to the water discharge section in the above state, and the water discharge section has an electrolytic hydrogen water discharge region for discharging electrolytic hydrogen water downstream of the electrolytic flow path and downstream of the water flow path. Since the non-electrolyzed water discharge region for discharging the non-electrolyzed water is formed separately, the water discharge facility can discharge the electrolyzed hydrogen water to a desired part in a concentrated manner and at a high concentration. The structure can be provided.

Further, if a power generating section for generating electricity by the flow of hot water is provided in the water supply flow path and the hot water is electrolyzed in the electrolytic flow path by the electric power generated by the power generating section, the amount of hot water before splitting is large. While generating electricity with hot water of a flow rate, it is possible to electrolyze a small amount of hot water after diversion with this sufficient electric power, and it is possible to make the concentration of hydrogen contained in the electrolyzed hydrogen water more solid.

Further, at the boundary between the electrolyzed hydrogen water discharge region and the non-electrolyzed water discharge region, a partition means for preventing the discharged electrolyzed hydrogen water and the non-electrolyzed water from being mixed in the flight is provided. If this is the case, it is possible to prevent the electrolyzed hydrogen water from being diluted by the non-electrolyzed water, and it is possible to discharge the electrolyzed hydrogen water to a desired portion at a high concentration.

Further, the discharge holes bored in the electrolyzed hydrogen water discharge region and the discharge holes bored in the non-electrolyzed water discharge region are bored at an angle of discharging in a direction away from each other. For example, it is possible to more steadily prevent the electrolyzed hydrogen water from being diluted by the non-electrolyzed water.

Further, the electrolytic flow path includes a cathode flow path in which a cathode for generating alkaline electrolyzed hydrogen water is arranged and an anode flow path in which an anode for generating acidic water is arranged, and both flow paths are mutually circulated. In the electrolytic hydrogen water discharge region, an alkaline electrolyzed hydrogen water discharge region for discharging alkaline electrolyzed hydrogen water and an acidic water discharge region for discharging acidic water are separated from each other. If it is formed in, alkaline electrolyzed hydrogen water containing a higher concentration of hydrogen and having an excellent effect of removing waste products on the skin surface is discharged without being diluted by acidic water or non-electrolyzed water. be able to.

Further, if the water flow path is provided with a micro-bubble generating portion, it is possible to impart the functionality of the micro-bubbles to the hot water discharged from the hot water discharge region, and it is possible to further enhance the cleaning effect and the beauty effect. it can.

Further, if the electrolytic flow path is provided with the micro-bubble generating portion, the electrolytic hydrogen water can be imparted with the functionality due to the micro-bubbles, and the cleaning effect and the beauty effect can be further enhanced. In particular, if the microbubble generating means is provided on the downstream side of the electrolytic flow path, hydrogen can be dissolved with higher efficiency.

Further, if the shower head is provided with the above-mentioned water discharge facility structure, it is possible to provide a shower head capable of spraying hydrogen water on a desired portion in a concentrated manner and at a high concentration.

Further, if the faucet water supply facility having the above-mentioned water discharge facility structure is provided, it is possible to provide a faucet water supply facility capable of spraying hydrogen water on a desired portion in a concentrated manner and at a high concentration.

Further, if the hot water spouting facility having the above-mentioned water spouting facility structure is provided, it is possible to provide a hot water tapping facility capable of spraying hydrogen water on a desired portion in a concentrated manner and at a high concentration.

It is explanatory drawing which shows the use state of the shower head which concerns on this embodiment. It is explanatory drawing which showed the structure of the shower head provided with the water discharge facility structure which concerns on 1st Embodiment. It is explanatory drawing which showed the structure of the shower head provided with the water discharge facility structure which concerns on 2nd Embodiment. It is explanatory drawing which showed the structure of the shower head provided with the water discharge facility structure which concerns on 3rd Embodiment. It is explanatory drawing which showed the structure of the shower head provided with the water discharge facility structure which concerns on 4th Embodiment. It is explanatory drawing which showed the structure of the shower head provided with the water discharge facility structure which concerns on 5th Embodiment. It is explanatory drawing which showed the structure of the shower facility provided with the water discharge facility structure which concerns on 6th Embodiment. It is explanatory drawing which showed the structure of the tapping hot water facility provided with the water discharge facility structure which concerns on 7th Embodiment. It is explanatory drawing which showed the structure of the faucet water supply facility provided with the water discharge facility structure which concerns on 8th Embodiment. It is explanatory drawing which showed the structure of the faucet water supply facility provided with the water discharge facility structure which concerns on 9th Embodiment.

The present invention has a structure of a water discharge facility that discharges hot water supplied from a water supply flow path from a water discharge section, in which a diversion section that diverts the hot water in the water supply flow path and one of the hot water that is split in the diversion section are separated. Electrolyze to form electrolyzed hydrogen water, and the electrolyzed flow path that guides the electrolyzed hydrogen water to the spouting part and the other hot water that has been separated at the diversion part are not electrolyzed to the spouting part in the state of non-electrolyzed water. It is provided with a water flow path for guiding, and the water discharge portion has an electrolytic hydrogen water discharge region for discharging electrolytic hydrogen water downstream of the electrolytic flow path and non-electrolyzed water is discharged downstream of the water flow path. Provided is a water discharge facility structure characterized in that a non-electrolyzed water discharge region and a non-electrolyzed water discharge region are formed separately.

As mentioned above, in the conventional shower device, which is one of the water discharge facilities, the user can be exposed to the electrolytic hydrogen water, but the hydrogen activity is only in the electrolytic hydrogen water having an extremely low hydrogen concentration. It was not possible to enjoy the oxygen scavenging effect, and it was difficult to pinpoint the treatment site desired by the user.

Therefore, in the present invention, the hot water supplied from the water supply flow path is divided and a part of the hot water is electrolyzed, and the electrolyzed hydrogen water generated by the electrolysis is discharged from a general hot water, that is, a discharge region separate from the non-electrolyzed water. It is supposed to be discharged.

Therefore, as shown in FIG. 1, the user P uses the electrolyzed hydrogen water 10 discharged separately from the non-electrolyzed water 11 without being diluted with the non-electrolyzed water 11 (in FIG. 1 in FIG. 1). The shin 12 and calf) can be exposed to a high concentration and pinpoint, and the active oxygen scavenging effect of the high concentration hydrogen can be enjoyed to improve the skin and beauty-conscious areas.

Hereinafter, the shower head, the faucet water supply facility, and the tapping hot water facility having the water discharge facility structure and the water discharge facility structure according to the present embodiment will be specifically described with reference to the drawings.

FIG. 2 is an explanatory view showing the configuration of the shower head H1 provided with the water discharge facility structure according to the first embodiment, and FIG. 2A shows a longitudinal cross section of the shower head H1. Reference numeral 2 (b) shows a bottom surface portion 34 of the sprinkling portion 22 provided in the shower head H1.

As shown in FIG. 2A, the shower head H1 is composed of a grip portion 21 gripped by the user P and a sprinkling portion 22 arranged on the tip end side of the grip portion 21.

The grip portion 21 has a hollow substantially tubular shape, and a flow path 23 is formed inside the grip portion 21. Further, on the outer periphery of the base end portion of the grip portion 21, a male screw portion 24 that enables screwing of a water supply hose 13 (see FIG. 1) for supplying hot water to the shower head H1 is formed, and is formed from the water supply hose 13. The supplied hot water can be passed through the flow path 23.

The flow path 23 is provided with a diversion wall 25 for partitioning and splitting the hot water supplied to the flow path 23 from the middle portion to the sprinkling portion 22, and the vicinity of the base end side end portion thereof is used as the diversion portion 26. ..

The flow path 23 on the upstream side of the diversion section 26 supplies hot water to the branch flow path 27 which is the flow path 23 on the downstream side of the diversion section 26 and is composed of a plurality of flow paths provided in parallel. The water supply flow path 28 is used for this purpose.

In particular, in the present embodiment, the grip portion 21 is provided with a power feeding mechanism 29 for obtaining electric power for generating electrolytic hydrogen water in the branch flow path 27, and the water supply flow path 28 is distributed through the water supply flow path 28. A propeller 29a for obtaining a rotational force by hot water is arranged.

Specifically, the rotational force of the propeller 29a that rotates due to the passage of water through the water supply flow path 28 is transmitted to the generator 29b in the wall thickness forming portion 30 formed on the base end side of the grip portion 21, and is transmitted to the generator 29b. The electric power generated by the above is configured to be supplied to the branch flow path 27 via the control unit 29d. That is, the propeller 29a and the generator 29b form a power generating unit 29c, and the power feeding mechanism 29 is composed of a power generating unit 29c and a control unit 29d.

The branch flow path 27 is composed of a water flow flow path 31 and an electrolytic flow path 32 across a diversion wall 25.

The water flow path 31 is a flow path that does not electrolyze the hot water separated by the diversion section 26 but guides it to the sprinkling section 22 as non-electrolyzed water 11.

The electrolytic flow path 32 is a flow path that electrolyzes the hot water split by the diversion section 26 to form electrolytic hydrogen water 10 and guides the electrolytic hydrogen water 10 to the sprinkling section 22, and the inner peripheral wall surface thereof has an electrolytic flow path 32. A pair of electrode plates 33 composed of a cathode plate 33a and an anode plate 33b arranged in a facing state are arranged.

The cathode plate 33a is electrically connected to the cathode terminal provided in the control unit 29d of the power feeding mechanism 29, and the anode plate 33b is electrically connected to the anode terminal of the control unit 29d. The cathode plate 33a is configured so that a voltage is applied to a voltage relatively low with respect to the anode plate 33b (the anode plate 33b has a relatively high potential with respect to the cathode plate 33a), and an electrolytic flow path 32 is provided between the electrodes. Electricity is applied through the circulating hot water and electrolysis is performed to dissolve the hydrogen gas generated on the surface of the cathode plate 33a so that the electrolyzed hydrogen water 10 is generated.

The water sprinkling portion 22 is a portion that functions as a water spouting portion formed in a hollow and substantially columnar shape, and as shown in FIG. 2B, its bottom surface portion 34 is used as a water spouting surface.

Further, inside the sprinkler portion 22, an electrolyzed hydrogen water inflow space 36 and a non-electrolyzed water inflow space 37 are formed with a partition wall 35 interposed therebetween.

The electrolytic hydrogen water inflow space 36 is a space into which the electrolytic hydrogen water 10 generated in the electrolytic flow path 32 flows in, and is formed so as to communicate with the electrolytic hydrogen water flow path 32.

Further, the bottom surface portion 34 corresponding to the electrolytic hydrogen water inflow space 36 is provided with a plurality of electrolytic hydrogen water discharge holes 38 for discharging the electrolytic hydrogen water 10 that has flowed into the electrolytic hydrogen water inflow space 36, and discharges the electrolytic hydrogen water. The area is 39.

The non-electrolyzed water inflow space 37 is a space into which the non-electrolyzed water 11 flowing through the water flow path 31 flows in, and is formed so as to communicate with the water flow path 31.

Further, the bottom surface portion 34 corresponding to the non-electrolyzed water inflow space 37 is provided with a plurality of non-electrolyzed water discharge holes 40 for discharging the non-electrolyzed water 11 that has flowed into the non-electrolyzed water inflow space 37, and discharges the non-electrolyzed water. Area 41 is used.

Here, as shown in FIG. 2A, the electrolyzed hydrogen water discharge hole 38 and the non-electrolyzed water discharge hole 40 bored in the bottom surface portion 34 are bored at an angle of discharging in a direction in which they are separated from each other. There is.

Further, as shown in FIG. 2B, a partition region 42 in which no water discharge hole is formed is formed as a partition means at the boundary between the electrolytic hydrogen water discharge region 39 and the non-electrolyzed water discharge region 41. , The electrolyzed hydrogen water 10 discharged from the electrolyzed hydrogen water discharge region 39 and the non-electrolyzed water 11 discharged from the non-electrolyzed water discharge region 41 are prevented from being mixed in the flight.

Then, according to the shower head H1 having such a configuration, when hot water is supplied from the water supply hose 13 connected to the male screw portion 24, the hot water flows into the water supply flow path 28 and flows into the water supply flow path 28. The propeller 29a disposed inside is rotated.

Electric power is generated in the generator 29b by the rotational force of the propeller 29a, and a predetermined voltage is applied to the cathode plate 33a and the anode plate 33b via the control unit 29d.

Next, the hot water of the water supply flow path 28 reaches the diversion section 26, and is divided into the hot water flowing into the water flow path 31 and the hot water flowing into the electrolytic flow path 32.

The hot water flowing into the water flow path 31 reaches the non-electrolyzed water inflow space 37 of the sprinkler portion 22 as the non-electrolyzed water 11 without receiving electrolysis, and the non-electrolyzed water discharge hole 40 from the non-electrolyzed water discharge region 41 of the bottom surface portion 34. Is discharged via.

On the other hand, the hot water flowing into the electrolytic flow path 32 is electrolyzed by flowing between the electrode plates 33 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become the electrolytic hydrogen water 10.

The electrolytic hydrogen water 10 generated in the electrolytic flow path 32 reaches the electrolytic hydrogen water inflow space 36 of the sprinkler portion 22, and is discharged from the electrolytic hydrogen water discharge region 39 of the bottom surface portion 34 through the electrolytic hydrogen water discharge hole 38. The Rukoto.

Here, as one of the points to be noted about the shower head H1 according to the present embodiment, the diversion section 26 that diverts the hot water downstream of the water supply flow path 28 and one of the hot water split by the diversion section 26 are separated. The electrolytic flow path 32, which is electrolyzed to form electrolyzed hydrogen water 10 and guides the electrolyzed hydrogen water 10 to the sprinkling section 22, and the other hot water separated by the diversion section 26 are sprinkled as non-electrolyzed water 11 without electrolysis. A point is that the water flow path 31 leading to the portion 22 is provided.

That is, the shower head H1 is configured such that the amount of hot water flowing into the electrolytic flow path 32 per unit time is smaller than the amount of hot water flowing through the water supply flow path 28 per unit time.

Therefore, it is possible to strongly electrolyze the relatively small flow rate of hot water flowing into the electrolytic flow path 32 with a large amount of electric power while obtaining a large amount of electric power from the large amount of hot water flowing through the water supply flow path 28, and to have a high concentration of hydrogen gas. Electrolyzed hydrogen water 10 in which is dissolved can be produced.

Further, the diversion ratio of hot water in the diversion section 26 is particularly limited as long as the amount of hot water flowing into the electrolytic flow path 32 per unit time is smaller than the amount of hot water flowing through the water supply flow path 28 per unit time. It is not a thing and can be changed as appropriate.

For example, as shown in FIG. 2A, the diversion ratio of hot water in the diversion section 26 is such that the amount of hot water per unit time flowing into the electrolytic flow path 32 is per unit time flowing into the water flow path 31. It may be configured to be less than the amount of hot water.

With such a configuration, the electrolyzed hydrogen water 10 containing more concentrated hydrogen gas can be discharged, and improvement of the hand skin and further improvement of the beauty effect can be expected.

Further, as shown in FIG. 2A, the water flow path 31 and the electrolytic flow path 32 are provided in parallel while being separated by the diversion wall 25, and the non-electrolyzed water 11 and the electrolytic flow path flowing through the water flow path 31 are provided. It may be configured so that heat can be exchanged with the electrolyzed hydrogen water 10 flowing through 32.

In particular, in the shower head H1, a cathode plate 33a is arranged on the flow dividing wall 25 side so that the heat generated by electrolysis in the cathode plate 33a is transferred to the non-electrolyzed water 11 via the flow dividing wall 25. There is. In addition, it has a cooling structure of the cathode plate 33a using the non-electrolyzed water 11 flowing through the water flow path 31 as a cooling medium.

Therefore, the dissolution of hydrogen gas in water is promoted as the temperature is lower. However, according to the above configuration, the dissolution efficiency of hydrogen gas generated on the surface of the cathode plate 33a can be improved, and the concentration is higher. Electrolyzed hydrogen water 10 can be produced. This is especially true when a relatively small amount of hot water is electrolyzed to generate electrolytic hydrogen water 10 by a large current generated by a large amount of hot water flowing through the water supply flow path 28. Since the temperature of No. 10 is likely to rise, it can be said that the configuration is extremely useful for improving the dissolved amount of hydrogen gas.

When the cathode plate 33a is made of a material having high thermal conductivity such as metal, the electrolyzed hydrogen water 10 flowing through the electrolyzed flow path 32 heated by the heat generated by electrolysis is not electrolyzed flowing through the water flow path 31. It can function as a heat receiving plate that takes heat away from the heat gradient with the water 11, and it is also possible to lower the temperature of the electrolyzed hydrogen water 10 through the diversion wall 25. Further, the diversion wall 25 may be formed of a general resin usually used for a shower head as long as it is thick enough to transfer heat, but it is also an idea to use a resin having high heat conductivity. Is.

Further, as a further noteworthy point about the shower head H1 according to the present embodiment, the bottom surface portion 34 of the sprinkler portion 22 has an electrolyzed hydrogen water discharge region for discharging the electrolyzed hydrogen water 10 downstream of the electrolytic flow path 32. The point is that 39 and the non-electrolyzed water discharge region 41 for discharging the non-electrolyzed water 11 downstream of the water flow path 31 are formed separately.

By providing such a configuration, the electrolytic hydrogen water 10 discharged from the electrolytic hydrogen water discharge hole 38 and the non-electrolyzed water 11 discharged from the non-electrolyzed water discharge region 41 are mixed to dilute the electrolytic hydrogen water 10. It is possible to prevent this from occurring, and it is possible to steadily enjoy the effect of the electrolyzed hydrogen water 10 containing a high concentration of hydrogen gas.

Moreover, since the two regions of the electrolytic hydrogen water discharge region 39 and the non-electrolyzed water discharge region 41 are formed separately, the user can use the electrolytic hydrogen water 10 discharged from the electrolytic hydrogen water discharge region 39. It can be applied pinpointly to the desired treated area, and a better skin improving effect and beauty effect can be produced.

Further, since the partition region 42 is provided at the boundary between the electrolyzed hydrogen water discharge hole 38 and the non-electrolyzed water discharge region 41 on the bottom surface portion 34, it is easy to pinpoint the electrolyzed hydrogen water 10 on the treated portion. Further, it is possible to more steadily prevent the electrolyzed hydrogen water 10 and the non-electrolyzed water 11 from being mixed and diluted.

Further, by drilling the electrolytic hydrogen water discharge hole 38 and the non-electrolyzed water discharge hole 40 at an angle of discharging in a direction in which they are separated from each other, the electrolytic hydrogen water 10 and the non-electrolyzed water 11 are mixed in the flight distance. This can be prevented and the dilution of the electrolyzed hydrogen water 10 can be further prevented. The basic configuration and additional configurations of the shower head H1 described above can be adopted in other embodiments described later, and it goes without saying that these effects can be enjoyed.

Next, the shower head H1a provided with the water discharge facility structure according to the second embodiment will be described with reference to FIG. FIG. 3A shows a longitudinal cross section of the shower head H1a, and FIG. 3B shows a discharge surface 20 provided on the shower head H1a. In the following, the same components as those of the shower head H1 described above will be designated by the same reference numerals and description thereof will be omitted.

The shower head H1a has substantially the same configuration as the shower head H1 and is configured so that the electrolyzed hydrogen water 10 and the non-electrolyzed water 11 can be discharged, but the valve body 14 is located in the middle of the water flow path 31. The configuration is different in that the constant flow valve 15 is arranged at the end of the flow path on the downstream side of the electrolytic flow path 32.

The valve body 14 provided in the middle of the water flow path 31 shown in FIG. 3A can operate the water flow / stop of the water flow path 31 by the user pressing the button 14a with a fingertip or the like. Is to be.

Specifically, a ball body 14b in which a water passage hole 14c is bored is housed inside the valve body 14, and each time the button 14a is pressed, the ball body 14b rotates approximately 90 degrees and passes through like a ball valve. Water and water stoppage are performed. That is, the valve body 14 functions as a water flow flow path flow control means.

On the other hand, the constant flow valve 15 arranged at the end of the electrolytic flow path 32 is restricted to the flow of substantially the same amount of electrolytic hydrogen water when the valve body 14 is in the closed state and when the valve body 14 is in the open state. It is a valve body to do.

Then, according to the shower head H1a having such a configuration, the hot water supplied from the water supply hose 13 and reaching the diversion section 26 through the water supply flow path 28 is divided into the electrolytic flow path 32 and the water flow path 31. Will be done.

If the valve body 14 is in the open state, the hot water flowing into the water flow path 31 reaches the non-electrolyzed water inflow space 37 of the sprinkling section 22 as the non-electrolyzed water 11 without receiving electrolysis, and the non-electrolyzed water on the bottom surface 34. It is discharged from the discharge region 41 through the non-electrolyzed water discharge hole 40.

On the other hand, the hot water flowing into the electrolytic flow path 32 is electrolyzed by flowing between the electrode plates 33 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become the electrolytic hydrogen water 10 and a constant flow rate. It reaches the electrolytic hydrogen water inflow space 36 of the sprinkler portion 22 through the valve 15, and is discharged from the electrolytic hydrogen water discharge region 39 of the bottom surface portion 34, that is, the region near the outer peripheral edge of the bottom surface portion 34 through the electrolytic hydrogen water discharge hole 38. Will be done.

Here, when the button 14a of the valve body 14 is pressed by the user and the valve body 14 is closed, the inflow of hot water into the water flow path 31 in the flow dividing portion 26 is stopped, and the non-electrolyzed water discharge region 41 is not used. The discharge of the electrolyzed water 11 is stopped.

Therefore, only the electrolyzed hydrogen water 10 from the electrolyzed hydrogen water discharge region 39 is discharged from the discharge surface 20, and it is possible to steadily prevent the electrolyzed hydrogen water 10 from being mixed with the non-electrolyzed water 11 and diluted after the discharge. ..

At this time, in the electrolytic flow path 32, the flow rate per unit time would normally increase as the water flow path 31 is stopped, but the constant flow valve 15 causes the flow rate to be increased by the water flow path 31. The flow rate is maintained at substantially the same flow rate as in the open state.

Therefore, the hot water flowing into the electrolytic flow path 32 can be sufficiently electrolyzed by the electrode plate 33, and the dissolved hydrogen concentration of the electrolytic hydrogen water discharged from the electrolytic hydrogen water discharge region 39 is extremely lowered. It is possible to prevent it from happening.

Further, in the electrolytic flow path 32, a higher water pressure is applied as compared with the case where the valve body 14 is in the open state. Therefore, the dissolution efficiency of hydrogen can be further improved.

In the present embodiment, the manual valve body 14 is used as the water flow path flow control means to operate the water flow / stop of the water flow path 31, but the present invention is not limited to this, for example. The water flow / stop of the water flow path 31 may be electrically operated by using an electromagnetic valve or the like.

Next, the shower head H2 provided with the water discharge facility structure according to the third embodiment will be described with reference to FIG. FIG. 4A shows a longitudinal cross section of the shower head H2, and FIG. 4B shows a discharge surface 20 provided on the shower head H2.

The shower head H2 has substantially the same configuration as the shower head H1 and is configured so that the electrolyzed hydrogen water 10 and the non-electrolyzed water 11 can be discharged, but the diversion wall is cylindrical and the branch flow path 27 is provided. It is configured in a double tubular shape, a microbubble generating part is provided in the water flow path 31 so that non-electrolyzed water can be discharged as microbubble water, and a region shape of each discharge region formed on the bottom surface 34. Is different.

As shown in FIG. 4A, a substantially cylindrical tubular diversion wall 50 is arranged in a double tubular shape in the flow path 23 of the shower head H2 from the middle portion to the sprinkling portion 22. The vicinity of the base end side end portion is designated as a flow dividing portion 26.

Further, while the water flow path 31 is used inside the tubular diversion wall 50, the donut-shaped gap is electrolyzed in the cross section formed between the outer peripheral surface of the tubular diversion wall 50 and the inner peripheral surface of the grip portion 21. The flow path 32 is used.

A venturi structure 51 formed inward in a thick shape is provided in the middle of the tubular diversion wall 50, and the water flow path 31 is partially narrowed.

Further, a thin tubular intake pipe 52 is formed on the tubular diversion wall 50 over the surface of the grip portion 21, so that air can be introduced into the hot water flowing into the water flow path 31. The intake pipe 52 functions together with the Venturi structure portion 51 as a microbubble generating portion 53 that generates microbubble water as the non-electrolyzed water 11.

The electrolytic flow path 32 is a flow path that electrolyzes the hot water separated by the diversion section 26 to form electrolytic hydrogen water 10 and guides the electrolytic hydrogen water 10 to the sprinkling section 22, and is an outer circumference of the tubular diversion wall 50. A pair of electrode plates 33 including a cathode plate 33a arranged on the surface and an anode plate 33b arranged on the inner peripheral surface of the grip portion 21 are arranged.

Similar to the shower head H1, the cathode plate 33a and the cathode plate 33b are electrically connected to the cathode terminal and the cathode terminal arranged in the control unit 29d of the power feeding mechanism 29, and the cathode plate 33a is the anode plate. The voltage is configured to be applied to a relatively low potential with respect to 33b (the anode plate 33b has a relatively high potential with respect to the cathode plate 33a), and the voltage is configured to be applied between the electrodes via hot water flowing into the electrolytic flow path 32. It is energized and electrolyzed to dissolve the hydrogen gas generated on the surface of the cathode plate 33a so that the electrolyzed hydrogen water 10 is generated.

The water sprinkling portion 22 is divided by a partition wall 35, and an electrolytic hydrogen water inflow space 36 communicating with the electrolytic flow path 32 and a microbubble water inflow space 54 communicating with the water passage 31 are formed.

Further, the bottom surface portion 34 corresponding to the electrolytic hydrogen water inflow space 36 is provided with a plurality of electrolytic hydrogen water discharge holes 38 for discharging the electrolytic hydrogen water 10 flowing into the electrolytic hydrogen water inflow space 36 to discharge the electrolytic hydrogen water. On the other hand, the bottom surface portion 34 corresponding to the micro bubble water inflow space 54 is provided with a plurality of micro bubble water discharge holes 55 for discharging the micro bubble water flowing into the micro bubble water inflow space 54. , A micro bubble water discharge region 56 is formed as a non-electrolyzed water discharge region.

Further, as shown in FIG. 4B, a partition region 42 in which no water discharge hole is formed is concentrically formed at the boundary between the electrolytic hydrogen water discharge region 39 and the micro-bubble water discharge region 56. , The electrolytic hydrogen water 10 discharged from the electrolytic hydrogen water discharge region 39 and the micro bubble water discharged from the micro bubble water discharge region 56 are prevented from being mixed in the flight.

Then, according to the shower head H2 having such a configuration, the hot water supplied from the water supply hose 13 and reaching the diversion section 26 through the water supply flow path 28 is divided into the electrolytic flow path 32 and the water flow path 31. Will be done.

The hot water flowing into the electrolytic flow path 32 is electrolyzed by flowing between the electrode plates 33 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become the electrolytic hydrogen water 10, and the sprinkler portion 22 It reaches the electrolytic hydrogen water inflow space 36, and is discharged from the electrolytic hydrogen water discharge region 39 of the bottom surface portion 34, that is, the region near the outer peripheral edge of the bottom surface portion 34 through the electrolytic hydrogen water discharge hole 38.

On the other hand, when the hot water flowing into the water flow path 31 draws air through the intake pipe 52 and reaches the Venturi structure 51 in a state of containing air bubbles, microbubbles are generated due to bubble collapse, and microbubble water is generated. It becomes.

The micro-bubble water reaches the micro-bubble water inflow space 54 of the sprinkler portion 22, and is discharged from the micro-bubble water discharge region 56 of the bottom surface portion 34 through the micro-bubble water discharge hole 55.

As described above, even with the shower head H2, the amount of hot water flowing into the electrolytic flow path 32 per unit time is smaller than the amount of hot water flowing through the water supply flow path 28 per unit time, as with the shower head H1. Therefore, while obtaining a large amount of electric power from the large amount of hot water flowing through the water supply flow path 28, the relatively small amount of hot water flowing into the electrolytic flow path 32 can be strongly electrolyzed with a large amount of electric power, and hydrogen can be concentrated at a high concentration. The electrolyzed hydrogen water 10 in which the gas is dissolved can be generated.

Further, the micro-bubble generating portion 53 arranged in the water flow path 31 can impart the functionality of the micro-bubbles to the non-electrolyzed water 11 discharged from the micro-bubble water discharge region 56, and has a cleaning effect and a beauty effect. Can be further enhanced.

In this shower head H2, unlike the shower head H1, the electrolytic hydrogen water discharge hole 38 and the microbubble water discharge hole 55 are not bored at an angle to discharge in a direction in which they are separated from each other, but at least the user desires. The electrolyzed hydrogen water 10 is not diluted by the microbubble water in the flight to the treated part, and the purpose of supplying the high-concentration electrolytic hydrogen water 10 to the treated part can be achieved.

Next, the shower head H2a provided with the water discharge facility structure according to the fourth embodiment will be described with reference to FIG. FIG. 5A shows a longitudinal cross section of the shower head H2a, and FIG. 5B shows a discharge surface 20 provided on the shower head H2a.

The shower head H2a has the same configuration as the shower head H2 in that the branch flow path 27 is formed into a double tubular shape by the tubular diversion wall 50 and that the microbubble generating portion 53 is provided. However, while the electrode plate 33 is arranged inside the tubular diversion wall 50 to form the electrolytic flow path 32, the point where the water passage 31 is provided outside the tubular diversion wall 50 and the microbubble generating portion 53 is electrolyzed. The configuration is different in that it is arranged at the downstream end of the flow path 32.

Then, according to the shower head H2a having such a configuration, the hot water supplied from the water supply hose 13 and reaching the diversion section 26 through the water supply flow path 28 is divided into the water flow path 31 and the electrolytic flow path 32. Will be done.

The hot water flowing into the water flow path 31 reaches the non-electrolyzed water inflow space 37 of the sprinkler portion 22 as the non-electrolyzed water 11 without receiving electrolysis, and the non-electrolyzed water discharge hole 40 from the non-electrolyzed water discharge region 41 of the bottom surface portion 34. Is discharged via.

On the other hand, the hot water flowing into the electrolytic flow path 32 is electrolyzed by flowing between the electrode plates 33 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become the electrolytic hydrogen water 10.

Next, when the electrolytic hydrogen water 10 draws air through the intake pipe 52 and reaches the venturi structure 51 in a state of containing air bubbles, microbubbles are generated due to bubble collapse, and the electrolytic hydrogen water 10 is used as the electrolytic hydrogen water 10. It becomes micro bubble water.

At this time, the hydrogen gas bubbles that were separated from the cathode plate 33a but could not be completely dissolved in the electrolytic hydrogen water 10 are forcibly refined and dissolved by passing through the venturi structure 51, and the electrolytic hydrogen water is dissolved. The dissolved hydrogen concentration of 10 can be made higher.

Further, since the Venturi structure 51 having a partially narrowed shape is arranged at the downstream end of the electrolytic flow path 32, the pressure in the electrolytic flow path 32, that is, the Venturi structure 51 is higher than that of the Venturi structure 51. Since the pressure on the upstream side increases, the dissolution efficiency of hydrogen gas when flowing between the electrode plates 33 arranged opposite to each other also increases, and the electrolytic hydrogen water 10 containing a high concentration of hydrogen is generated.

Then, the electrolytic hydrogen water 10 containing the microbubbles reaches the electrolytic hydrogen water inflow space 36 of the sprinkler portion 22, and is discharged from the electrolytic hydrogen water discharge region 39 of the bottom surface portion 34 through the electrolytic hydrogen water discharge hole 38. It will be.

Therefore, although the electrolyzed hydrogen water 10 has the functionality of microbubbles, the cleaning effect and the beauty effect can be further enhanced.

Next, the shower head H3 provided with the water discharge facility structure according to the fifth embodiment will be described with reference to FIG. FIG. 6A shows a longitudinal cross section of the shower head H3, FIG. 6B shows a bottom surface portion 34 of the sprinkler portion 22 provided on the shower head H3, and FIG. 6C shows a sprinkler portion 22. Shows the peripheral surface of.

The shower head H3 also has substantially the same configuration as the shower head H1 and is configured so that hot water can be electrolyzed and discharged. However, the electrolytic flow path 32 is further partitioned by a partition wall 60, and the cathode plate 33a is formed. The point that the cathode flow path 61 is arranged to generate alkaline electrolyzed hydrogen water and the anode flow path 62 in which the anode plate 33b is arranged to generate acidic water, and the circumference of the sprinkling part 22 in addition to the bottom surface part 34 The configuration is different in that the surface portion 68 is also a water discharge surface.

Specifically, as shown in FIG. 6A, the flow path 23 in the shower head H3 is provided with a diversion wall 25 that divides and divides the hot water supplied to the flow path 23 from the middle portion to the sprinkling portion 22. It is provided, and the vicinity of the base end side end portion thereof is designated as a flow dividing portion 26.

Further, the branch flow path 27 is composed of a water flow path 31 and an electrolytic flow path 32 separated by a flow diversion wall 25, and the water flow flow path 31 does not electrolyze the hot water separated by the diversion section 26. It is a flow path that leads to the sprinkler portion 22 as the electrolyzed water 11.

On the other hand, the electrolytic flow path 32 is provided with a partition wall 60 for further dividing the hot water flowing into the electrolytic flow path 32.

The partition wall 60 includes a cathode flow path 61 in which the cathode plate 33a is arranged among a pair of electrode plates 33 composed of a cathode plate 33a and an anode plate 33b arranged so as to face the inner peripheral wall surface of the electrolytic flow path 32. The anode flow path 62 in which the anode plate 33b is arranged is partitioned, and a diaphragm 63 that allows energization while blocking the merging of the cathode flow path 61 and the anode flow path 62 is stretched at a position corresponding to each electrode. It is installed.

The water sprinkling portion 22 is divided by a partition wall 35, and an alkaline electrolyzed hydrogen water inflow space 64 communicating with the cathode flow path 61 and a non-electrolyzed water inflow space 37 communicating with the water flow path 31 are formed. An acidic water discharge flow path 65 communicating with the anode flow path 62 is formed on the inner upper surface side of the water sprinkler portion 22.

Further, as shown in FIGS. 6A and 6B, the bottom surface portion 34 corresponding to the alkaline electrolytic hydrogen water inflow space 64 discharges the alkaline electrolytic hydrogen water that has flowed into the alkaline electrolytic hydrogen water inflow space 64. A plurality of alkaline electrolyzed hydrogen water discharge holes 66 are bored to form an alkaline electrolyzed hydrogen water discharge region 67, while a bottom surface portion 34 corresponding to the non-electrolyzed water inflow space 37 flows into the non-electrolyzed water inflow space 37. A plurality of non-electrolyzed water discharge holes 40 through which the non-electrolyzed water 11 is discharged are bored to form the non-electrolyzed water discharge region 41.

Further, as shown in FIG. 6C, the acidic water that has flowed into the acidic water discharge flow path 65 is discharged to the peripheral surface portion 68 of the sprinkling portion 22 that is the extension destination of the acidic water discharge flow path 65. An acidic water discharge region 70 in which a plurality of discharge holes 69 are bored is formed.

Then, according to the shower head H3 having such a configuration, the hot water supplied from the water supply hose 13 and reaching the diversion section 26 through the water supply flow path 28 is divided into the water flow path 31 and the electrolytic flow path 32. Will be done.

The hot water flowing into the water flow path 31 reaches the non-electrolyzed water inflow space 37 of the sprinkler portion 22 as the non-electrolyzed water 11 without receiving electrolysis, and the non-electrolyzed water discharge hole 40 from the non-electrolyzed water discharge region 41 of the bottom surface portion 34. Is discharged via.

On the other hand, the hot water flowing into the electrolytic flow path 32 is further divided into the cathode flow path 61 and the anode flow path 62 by the partition wall 60, and flows between the electrode plates 33 arranged to face each other through the diaphragm 63. Each is electrolyzed, and in the cathode flow path 61, the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become alkaline electrolyzed hydrogen water, and in the anode flow path 62, acidic water is generated by the hydrogen ions generated by electrolysis.

Next, the alkaline electrolyzed hydrogen water generated in the cathode flow path 61 reaches the alkaline electrolytic hydrogen water inflow space 64 of the sprinkler portion 22, and the alkaline electrolytic hydrogen water discharge hole 66 is formed from the alkaline electrolytic hydrogen water discharge region 67 of the bottom surface portion 34. It will be discharged through.

Further, the acidic water generated in the anode flow path 62 reaches the acidic water discharge flow path 65 of the sprinkler portion 22, and is discharged from the acidic water discharge region 70 of the peripheral surface portion 68 through the acidic water discharge hole 69.

As described above, even with the shower head H3, as with the shower head H1 and the shower head H2, the amount of hot water flowing into the electrolytic flow path 32 per unit time is the amount of hot water flowing through the water supply flow path 28 per unit time. It is possible to strongly electrolyze the relatively small flow rate of hot water flowing into the electrolytic flow path 32 with a large amount of electric power while obtaining a large amount of electric power from the large flow rate of hot water flowing through the water supply flow path 28. It is possible to generate electrolyzed hydrogen water in which hydrogen gas is dissolved at a high concentration.

Moreover, in the shower head H3, by forming the cathode flow path 61 and the anode flow path 62 separately, it is possible to prevent the alkaline electrolyzed hydrogen water generated in the cathode flow path 61 from being diluted with acidic water. , You can enjoy the skin improvement effect and beauty effect by the higher concentration of dissolved hydrogen gas.

Further, by providing the acidic water discharge region 70 on the peripheral surface portion 68, the user can also pinpoint the acidic water to the treatment site to which the acidic water is suitable.

Next, as a sixth embodiment, an example in which the water discharge facility structure is applied to other than the shower head will be described with reference to FIGS. 7 to 10. FIG. 7A is a cross-sectional view showing the structure of the bathroom R from the indoor Ri to the outdoor Ro, and FIG. 7B is an explanatory view showing the bottom surface 95 of the watering portion 94 of the shower head 97. Is.

As shown in FIG. 7A, in the bathroom R, the hot water supply facility 80 is arranged in the outdoor Ro, and the connection hose 81 extending from the hot water supply facility 80 penetrates the bathroom wall 82 and reaches the indoor Ri. It is connected to the arranged shower head 97.

In this embodiment, as compared with the embodiments described so far, the shower head 97 itself is not provided with the shower structure according to the present embodiment, and is composed of a hot water supply facility 80, a connection hose 81, and a shower head 97. The shower equipment 83 is provided with the shower structure according to the present embodiment, and the configuration is different.

Specifically, the hot water supply facility 80 arranged in the outdoor Ro is provided with a water supply flow path 84 extending from a hot water supply section (not shown), and the water supply flow path 84 is a water flow path through the diversion section 85. It branches into 86 and an electrolytic flow path 87.

The water flow path 86 is connected to the connection hose 81. On the other hand, the electrolytic flow path 87 is connected to the electrolytic cell 88. Inside the electrolytic cell 88, an electrode plate 89 composed of a cathode plate 89a and an anode plate 89b is arranged so as to face each other, and water can pass through the gap between the electrode plates 89.

Further, each of the electrode plates 89 is electrically connected to the control unit 90. The control unit 90 includes a power cable 91 having a power plug 91a at the tip thereof, and can receive power by connecting to a commercial power outlet (not shown).

The control unit 90 rectifies when power is received from a commercial power source, and applies a predetermined voltage to the cathode plate 89a and the anode plate 89b.

The electrolytic hydrogen water delivery flow path 92 extends from the outlet side of the electrolytic cell 88, and the downstream end of the electrolytic hydrogen water delivery flow path 92 is connected to the connection hose 81.

The connection hose 81 is formed with a partition portion 81a so that the non-electrolyzed water 11 supplied from the water flow path 86 and the electrolyzed hydrogen water 10 supplied from the electrolytic hydrogen water delivery flow path 92 can flow separately. A shower head 97 is screwed and connected to the tip on the downstream side.

Similar to the connecting hose 81, the shower head 97 also has a partition 96 formed inside from the grip portion 93 to the bottom surface portion 95 of the sprinkling portion 94, and the non-electrolyzed water 11 and the electrolyzed hydrogen water 10 are formed from the bottom surface portion 95. And are configured to be discharged separately.

As shown in FIG. 7B, the bottom surface portion 95 has an electrolytic hydrogen water discharge region 39 in which a plurality of electrolyzed hydrogen water discharge holes 38 are bored, and a plurality of non-electrolyzed portions, similarly to the bottom surface portion 34 of the shower head H1. A non-electrolyzed water discharge region 41 in which a water discharge hole 40 is bored is provided, and a partition region 42 is formed at a boundary between the two regions.

According to the shower facility 83 having such a configuration, the hot water supplied from the hot water supply section (not shown) and reaches the diversion section 85 through the water supply flow path 84 is the water flow path 86 and the electrolytic flow path. It is divided into 87.

The hot water flowing into the water flow path 86 reaches the connecting hose 81 as non-electrolyzed water 11 without being electrolyzed, passes through the grip portion 93 of the shower head 97, and passes through the grip portion 93 of the shower head 97, and the non-electrolyzed water discharge region 41 of the bottom surface portion 34 of the sprinkling portion 94. It is discharged through the non-electrolyzed water discharge hole 40.

The hot water flowing into the electrolytic flow path 87 is electrolyzed by flowing between the electrode plates 89 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 89a is dissolved to become the electrolytic hydrogen water 10, and the electrolytic hydrogen water is sent out. It reaches the connecting hose 81 via the flow path 92, is discharged from the electrolytic hydrogen water discharge region 39 of the bottom surface portion 34 of the sprinkler portion 94 through the grip portion 93 of the shower head 97, and is discharged through the electrolytic hydrogen water discharge hole 38.

As described above, since the shower facility 83 also has the water discharge facility structure according to the present embodiment, it is possible to intensively and at a high concentration spray hydrogen water on a portion desired by the user.

Next, as a seventh embodiment, an example in which the water discharge facility structure is applied to the hot water facility will be described with reference to FIG. FIG. 8 is an explanatory diagram showing the configuration of the hot water facility U.

The hitting hot water facility U includes a treatment unit Ui and an apparatus unit Uo with the wall body W as a boundary. The treatment unit Ui is a part where the person to be treated places himself / herself under the flowing non-electrolyzed water 11 or electrolyzed hydrogen water 10 and applies a water flow to a desired part of the body to perform treatment, and is above the wall surface of the wall body W. Is provided with a tubular spouting body 100 imitating a cut bamboo as a spouting portion.

The tubular spout body 100 is formed in a double tubular shape by a small-diameter long electrolyzed hydrogen water spouting pipe 100a and a large-diameter short non-electrolyzed water spouting pipe 100b, and the electrolyzed hydrogen water discharged from each spouting pipe. The 10 and the non-electrolyzed water 11 are configured so as not to be mixed with each other in the flight distance.

On the other hand, in the device unit Uo, the hot water supply facility 80 is arranged as in the outdoor Ro in the bathroom R described above, and the electrolytic hydrogen water delivery flow path 92 and the water flow flow path 86 extending from the hot water supply facility 80 are walls. The electrolytic hydrogen water spouting pipe 100a and the non-electrolyzed water spouting pipe 100b are connected to the base of the tubular water spouting body 100 exposed from the body W toward the device unit Uo, respectively.

Then, according to the hot water supply facility U having such a configuration, the hot water supplied from the hot water supply section (not shown) and reaches the diversion section 85 through the water supply flow path 84 is electrolyzed with the water flow path 86. It is split into the flow path 87.

The hot water flowing into the water passage 86 is discharged as non-electrolyzed water 11 through the non-electrolyzed water discharge pipe 100b without being electrolyzed.

On the other hand, the hot water flowing into the electrolytic flow path 87 is electrolyzed by flowing between the electrode plates 89 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 89a is dissolved to become the electrolytic hydrogen water 10, and the electrolytic hydrogen is obtained. It is discharged through the water discharge flow path 92 and the electrolytic hydrogen water discharge pipe 100a.

As described above, since the above-mentioned hot water discharge facility U also has the water discharge facility structure according to the present embodiment, it is possible to intensively spray hydrogen water on a portion desired by the user at a high concentration. it can.

Next, as an eighth embodiment, an example in which the water discharge facility structure is applied to the faucet water supply facility will be described with reference to FIG. 9A and 9B are explanatory views showing the configuration of the faucet water supply facility J1, FIG. 9A shows a longitudinal cross section of the faucet water supply facility J1, and FIG. 9B is provided in the water flow pipe portion 102. The spout 134 is shown.

The faucet water supply facility J1 has a so-called single faucet type structure, and is composed of a faucet portion 101 and a water pipe portion 102.

The faucet portion 101 is a portion for operating the water flow / stop of the water supply flow path 28, and when the user rotates the handle 103, the frame 104 arranged inside moves to pass water / stop water. Water is stopped.

The water flow pipe portion 102 is a pipe that guides hot water supplied through the faucet portion 101 to a water discharge port 134 as a discharge portion, and can be swung by connecting to the faucet portion 101 via a bag nut 105. It is said.

Further, the water pipe portion 102 has a structure substantially similar to the internal structure of the shower head H1 described in the first embodiment, and can discharge the electrolyzed hydrogen water 10 and the non-electrolyzed water 11.

Specifically, a diversion wall 25 for partitioning and dividing the supplied hot water is provided, a diversion portion 26 is located near the base end side end portion thereof, and a power supply mechanism 29 is located upstream of the diversion portion 26. A propeller 29a is arranged.

Further, a water flow path 31 and an electrolytic flow path 32 are provided across the flow dividing wall 25, and the inner peripheral wall surface of the electrolytic flow path 32 is composed of a cathode plate 33a and an anode plate 33b arranged in a facing state. A pair of electrode plates 33 are arranged.

The portion 122 near the end of the water pipe portion 102 is a portion that functions as a hollow water discharge portion, and is provided with a water discharge port 134 as shown in FIG. 9B.

Further, inside the terminal vicinity portion 122, an electrolyzed hydrogen water inflow space 36 and a non-electrolyzed water inflow space 37 are formed with a partition wall 35, and the spout 134 corresponding to the electrolyzed hydrogen water inflow space 36 is formed. , The electrolyzed hydrogen water discharge port 138 for discharging the electrolyzed hydrogen water 10 flowing into the electrolyzed hydrogen water inflow space 36 is formed to form the electrolyzed hydrogen water discharge region 39, while the spout corresponding to the non-electrolyzed water inflow space 37. The non-electrolyzed water discharge port 140 for discharging the non-electrolyzed water 11 that has flowed into the non-electrolyzed water inflow space 37 is formed in the 134 to form a non-electrolyzed water discharge region 41.

Further, as shown in FIG. 9B, a partition region 42 as a partition means is formed at the boundary between the electrolytic hydrogen water discharge region 39 and the non-electrolyzed water discharge region 41, and the electrolytic hydrogen water discharge region 39 is formed. The electrolyzed hydrogen water 10 discharged from the water and the non-electrolyzed water 11 discharged from the non-electrolyzed water discharge region 41 are prevented from being mixed in the flight distance.

Then, according to the faucet water supply facility J1 having such a configuration, the hot water that has reached the diversion section 26 through the water supply flow path 28 of the water flow pipe section 102 via the faucet section 101 is electrolyzed with the water flow path 31. It is split into the flow path 32.

The hot water that has flowed into the water flow path 31 reaches the non-electrolyzed water inflow space 37 as non-electrolyzed water 11 without being electrolyzed, and is discharged through the non-electrolyzed water discharge port 140 of the non-electrolyzed water discharge region 41.

On the other hand, the hot water flowing into the electrolytic flow path 32 is electrolyzed by flowing between the electrode plates 33 arranged opposite to each other, and the hydrogen gas generated on the surface of the cathode plate 33a is dissolved to become the electrolytic hydrogen water 10, and the electrolytic hydrogen is obtained. It flows into the water inflow space 36 and is discharged through the electrolytic hydrogen water discharge port 138 of the electrolytic hydrogen water discharge region 39.

As described above, since the faucet water supply facility J1 described above also has the water discharge facility structure according to the present embodiment, it is possible to discharge hydrogen water to a portion desired by the user in a focused manner and at a high concentration. it can.

Next, as a ninth embodiment, a further example in which the water discharge facility structure is applied to the faucet water supply facility will be described with reference to FIG. FIG. 10 is a schematic explanatory view showing the configuration of the faucet water supply facility J2.

The faucet water supply facility J2 is composed of a faucet section 201 and a water supply section 202. The faucet portion 201 is arranged in a predetermined water-related area such as a bathroom, a washroom, or a kitchen, and can be operated by a user.

The faucet portion 201 is configured by disposing a first handle 204, a first curan 205, a second handle 206, and a second curan 207 on a base plate 203 as a base.

The first handle 204 is a handle for operating the spouting / stopping of the non-electrolyzed water 11 supplied from the water supply unit 202, and by opening the first handle 204, the first curan 205 is non-electrolyzed. The water 11 is configured to be discharged.

The second handle 206 is a handle for operating the spouting / stopping of the electrolytic hydrogen water 10 supplied from the water supply unit 202, and by opening the second handle 206, the electrolytic hydrogen from the second curan 207 is operated. It is configured to discharge water 10.

The first curan 205 and the second curan 207 are curans for discharging the non-electrolyzed water 11 and the electrolyzed hydrogen water 10, respectively, and are connected to the water supply unit 202 at the base thereof so as to allow water to flow. In the present embodiment, the first curan 205 and the second handle 206 themselves function as a water discharge unit, and also function as a partition means for preventing electrolyzed hydrogen water and non-electrolyzed water from being mixed in the range.

The water supply section 202 has substantially the same configuration as the hot water supply facility 80 of the shower facility 83 described in the sixth embodiment described above, and the hot water supplied from the water supply flow path 84 is passed through the diversion section 85. The hot water that is branched into the 86 and the electrolytic flow path 87 is led to the first curan 205 as non-electrolyzed water without being electrolyzed, and the hot water that has flowed into the electrolytic flow path 87 is in the electrolytic cell 88. Electrolysis is performed between the cathode plate 89a and the anode plate 89b, and the electrolyzed hydrogen water is led to the second curan 207 via the electrolyzed hydrogen water delivery flow path 92.

Further, a first valve 208 and a second valve 209 are interposed in the middle part of the water flow path 86 and the middle part of the electrolytic hydrogen water delivery flow path 92, respectively. The first valve 208 and the second valve 209 are interlocked and connected to the first handle 204 and the second handle 206, respectively, and when the user operates each handle, the water flow path 86 and the electrolytic hydrogen water delivery flow path are connected. 92 water is passed and stopped.

Further, a water flow detection sensor 210 is arranged in the middle of the electrolytic flow path 87 on the upstream side of the electrolytic cell 88. The water flow detection sensor 210 is a sensor that detects whether or not hot water is being supplied to the electrolytic cell 88 via the electrolytic flow path 87, and is electrically connected to the control unit 90. In the control unit 90, when the second valve 209 is opened by the opening operation of the second handle 206, water is discharged from the second curan 207, and hot water is supplied to the electrolytic cell 88 through the electrolytic flow path 87, the cathode plate A voltage is applied to the 89a and the anode plate 89b to electrolyze the hot water.

Since the faucet water supply facility J2 also has the water discharge facility structure according to the present embodiment, hydrogen water is concentrated and concentrated in a portion desired by the user, such as a tub or a cup. It can be discharged.

As described above, according to the water discharge facility structure according to the present invention, in the structure of the water discharge facility that discharges the hot water supplied from the water supply flow path from the water discharge section, the diversion section that divides the hot water in the water supply flow path. Then, one hot water split at the diversion section is electrolyzed to form electrolytic hydrogen water, and the electrolytic flow path that guides the electrolytic hydrogen water to the spout section and the other hot water split at the diversion section are electrolyzed. The water discharge section is provided with a water flow path that leads to the water discharge section in the state of non-electrolyzed water, and the water discharge section has an electrolytic hydrogen water discharge region that discharges electrolytic hydrogen water downstream of the electrolytic flow path, and the water discharge section. Since the non-electrolyzed water discharge region for discharging the non-electrolyzed water downstream of the water flow path is formed separately, the electrolyzed hydrogen water is discharged to the desired portion in a concentrated manner and at a high concentration. It is possible to provide a water discharge facility structure that can be used.

Finally, the description of each embodiment described above is an example of the present invention, and the present invention is not limited to the above-described embodiment. Therefore, it goes without saying that various changes can be made according to the design and the like as long as the technical idea of the present invention is not deviated from the above-described embodiments.

For example, it goes without saying that the arrangement of each water discharge region formed on the water discharge surface such as the bottom surface portion 34 and the peripheral surface portion 68 of the water sprinkling portion 22 can be appropriately changed.

That is, in the case of the shower head H1, the positions of the electrolyzed hydrogen water discharge region 39 and the non-electrolyzed water discharge region 41 may be exchanged by appropriately changing the internal flow path structure, and the electrolyzed hydrogen water 10 may be supplied from the peripheral surface portion 68. It may be discharged. Further, in the case of the shower head H2, the positions of the electrolytic hydrogen water discharge region 39 and the micro bubble water discharge region 56 may be exchanged by using the inner side of the tubular diversion wall 50 as the electrolytic flow path 32, or the shower head H3 If so, the flow path in which alkaline electrolyzed hydrogen water is generated and the flow path in which acidic water is generated can be interchanged.

Further, each region formed on the water discharge surface is not necessarily limited to one, and a plurality of electrolyzed hydrogen water 10 and non-electrolyzed water 11 may be provided as long as they are not mixed in the range.

Further, the shower heads H1 to H3 are electrolyzed by the electric power generated by the power generating unit 29c, but the present invention is not limited to this, and for example, the shower heads H1 to H3 may be provided with a storage battery or receive power from a commercial power source for electrolysis. It may be configured. At the same time, it goes without saying that the H4 may also be provided with a power feeding mechanism 29 and a propeller 29a may be arranged in the water supply flow path 84 so that electrolysis can be performed regardless of external power supply.

Further, each of the above-described configurations in the first to ninth embodiments can be applied to different embodiments as long as the functions are not impaired, and these configurations are also included in the concept of the present invention. ..

10 Electrolyzed hydrogen water 11 Non-electrolyzed water 20 Discharge surface 21 Grip part 22 Sprinkling part 25 Dividing wall 26 Dividing part 28 Water supply flow path 29 Power supply mechanism 29c Power generation part 31 Water flow flow path 32 Electrolysis flow path 33 Electrode plate 34 Bottom part 39 Electrolysis Hydrogen water discharge area 41 Non-electrolyzed water discharge area 42 Section area 53 Micro bubble generator 56 Micro bubble water discharge area 60 Section wall 61 Catalyst flow path 62 Anopathic flow path 63 Diaphragm 67 Alkaline electrolyzed hydrogen water discharge area 68 Peripheral surface 70 Acid water Discharge area 81 Connection hose 83 Shower equipment 84 Water supply flow path 85 Divided water flow path 87 Electrolyzed water flow path 94 Sprinkler part 95 Bottom part H1 to H4 Shower head U Hitting hot water equipment J1 to J2 Faucet water supply equipment

Claims (7)

In the structure of the water discharge facility that discharges hot water supplied from the water supply channel from the water discharge section
A diversion section that diverts the hot water in the water supply flow path,
An electrolytic flow path that electrolyzes one of the hot water separated at the diversion section to form electrolytic hydrogen water and guides the electrolytic hydrogen water to the spouting section.
It is provided with a water flow path that guides the other hot water separated at the diversion section to the spouting section in the state of non-electrolyzed water without electrolyzing.
In the water discharge part
An electrolytic hydrogen water discharge region for discharging electrolytic hydrogen water downstream of the electrolytic flow path,
A non-electrolyzed water discharge region for discharging non-electrolyzed water downstream of the water flow path is formed separately, and is also formed separately .
The discharge hole bored in the electrolytic hydrogen water discharge region and the discharge hole bored in the non-electrolyzed water discharge region are bored at an angle of discharging in a direction away from each other. Water discharge facility structure. In the structure of the water discharge facility that discharges hot water supplied from the water supply channel from the water discharge section
A diversion section that diverts the hot water in the water supply flow path,
An electrolytic flow path that electrolyzes one of the hot water separated at the diversion section to form electrolytic hydrogen water and guides the electrolytic hydrogen water to the spouting section.
It is provided with a water flow path that guides the other hot water separated at the diversion section to the spouting section in the state of non-electrolyzed water without electrolyzing.
In the water discharge part
An electrolytic hydrogen water discharge region for discharging electrolytic hydrogen water downstream of the electrolytic flow path,
A non-electrolyzed water discharge region for discharging non-electrolyzed water downstream of the water flow path is formed separately, and is also formed separately.
The electrolytic flow path includes a cathode flow path in which a cathode for generating alkaline electrolytic hydrogen water is arranged and an anode flow path in which an anode for generating acidic water is arranged, and both flow paths regulate mutual flow. It is separated by a partition wall
The claim is characterized in that, in the electrolytic hydrogen water discharge region, an alkaline electrolytic hydrogen water discharge region for discharging alkaline electrolytic hydrogen water and an acidic water discharge region for discharging acidic water are separately formed. The water discharge facility structure according to 1. The water discharge facility structure according to claim 1 or 2, wherein the water flow path is provided with a micro-bubble generating portion . The water discharge facility structure according to any one of claims 1 to 3, wherein the electrolytic flow path is provided with a micro-bubble generating portion . A shower head having the water discharge facility structure according to any one of claims 1 to 4. A faucet water supply facility having the water discharge facility structure according to any one of claims 1 to 4. A hot water facility having the water discharge facility structure according to any one of claims 1 to 4.

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