JP7054521B2 - Portable electrolyzed water generator - Google Patents

Description

The present invention relates to a portable electrolyzed water generator that is installed in water such as a bathtub and generates electrolyzed water by electrolyzing the water.

In the present invention, "water" is used in a broad sense, and includes an aqueous solution that does not adversely affect the human body even if it is touched directly, and includes, for example, dilute salt water in which a small amount of sodium chloride is dissolved.

In recent years, many studies have been conducted on techniques for improving health and beauty and treating diseases using electrolyzed water such as hydrogen water, which has become a hot topic. For example, the so-called hydrogen bath, which uses hydrogen water for the bath, is becoming more popular because it has various effects such as health and beauty.

It is well known that such hydrogen water for a bath is obtained by dissolving hydrogen gas generated by electrolyzing hot water (bathtub water) in a bathtub in the bathtub water.

For example, Patent Document 1 below discloses an underwater-mounted hydrogen generator for a bathtub that is used by being immersed in a bathtub. This hydrogen generator includes a water passage chamber in which hot water in the bathtub enters and exits through a suction port and a discharge port, and a watertight electrical equipment chamber. A pair of electrodes are arranged in the water passage chamber, and the electrical equipment chamber is provided. A power supply unit is arranged in. Then, by energizing a pair of electrodes from the power supply unit, the bath water around the electrodes sucked into the water passage chamber from the suction port is electrolyzed to generate hydrogen, and the hydrogen is dissolved in hot water and discharged from the discharge port. The hydrogen water is supplied into the bathtub.

Utility model registration No. 3209817

However, in an electrolyzed water generator such as an underwater-mounted hydrogen generator as shown in Patent Document 1, the performance is greatly affected by the flow of water entering and exiting the water passage chamber. For example, when the water sucked into the water passage chamber stagnates around the electrode, or when the water sucked into the water passage chamber does not pass around the electrode and is discharged from the discharge port, the electrode In this case, electrolytic products such as hydrogen are not efficiently generated, or the generated electrolytic products do not dissolve quickly and electrolytic water such as hydrogen water is not sufficiently supplied into the bathtub, resulting in satisfactory performance. There may be a problem that it cannot be done.

Therefore, conventionally, in the above-mentioned underwater-mounted electrolyzed water generator, by appropriately controlling the flow of water entering and exiting the water passage chamber, water can be electrolyzed efficiently and smoothly, and the electrolyzed water is sufficient. The development of technology that can be supplied to Japan is eagerly desired.

The present invention has been made in view of the above problems, and an object of the present invention is to provide a portable electrolyzed water generator capable of efficiently and smoothly electrolyzing water and supplying sufficient electrolyzed water. ..

In order to solve the above problems, the present invention comprises the following means.

[1] A casing installed in water and having a suction port and a discharge port, an electrical chamber provided in a watertight manner in the casing, and an upper portion of the casing, and the suction port and the discharge port are provided. It is provided with a water passage chamber through which water outside the casing enters and exits, a pair of electrodes provided in the water passage chamber, and a power supply unit provided in the electrical equipment chamber, from the power supply unit to the pair of electrodes. When energized, an electrolytic product is generated by electrolysis of water sucked from the suction port into the water passage chamber, and the electrolytic product is discharged to the outside of the casing through the discharge port. This is a portable electrolyzed water generator.
The discharge port is formed in the center of the upper wall of the casing, and the discharge port is formed.
An electrode mounting table is provided on the upper part of the casing corresponding to the discharge port, and the pair of electrodes are installed on the electrode mounting table.
The suction port is formed along the circumferential direction at a position lower than the electrode mounting table on the peripheral wall of the casing.
An inclined guide surface that inclines diagonally upward is provided in the casing from the suction port to the outer peripheral edge of the electrode mounting table.
A portable electrolyzed water generator characterized in that a suction path is formed in which water sucked from the suction port is guided to the pair of electrodes along the inclined guide surface.

[2] The portable electrolyzed water generator according to item 1 above, wherein the suction port is formed in a slit shape extending in the circumferential direction and is formed over almost the entire area in the circumferential direction. [3] The discharge port is formed in a slit shape. As well as being formed, multiple arrangements are made in parallel,
By forming the slit sections arranged between each of the plurality of slit-shaped discharge ports in the casing in a V-shaped cross section to a “re” -shaped cross section, the lower surface of the slit section is formed with respect to the horizontal plane. The portable electrolyzed water generator according to item 1 or 2 above, which is formed on an inclined surface.

[4] The portable electrolyzed water generator according to any one of items 1 to 3 above, which is configured to be installed in a bathtub.

[5] Sodium chloride is dissolved in the bath water,
The portable electrolyzed water generator according to item 4 above, which is configured to generate hypochlorous acid by electrolysis of bathtub water.

[6] The portable electrolyzed water generator according to any one of items 1 to 5 above, wherein the suction port is arranged corresponding to the lowermost position of the water passage chamber.

According to the portable electrolyzed water generator of the present invention [1], a pair of electrodes installed corresponding to a suction port provided on the peripheral wall of the outer casing and a discharge port on the upper wall of the outer casing in the water passage chamber. An inclined guide surface that inclines upward from the suction port toward the electrode is provided between the and, and a suction path is formed along the inclined guide surface, so that the suction is performed from the suction port. Water is smoothly guided to the electrodes through the suction path and is efficiently electrolyzed, and the electrolytic product produced by the electrolysis is discharged from the discharge port to surely supply sufficient electrolyzed water. Can be done.

According to the portable electrolyzed water generator of the invention [2], since the slit-shaped suction port is formed over almost the entire circumferential direction, the water outside the casing is efficiently sucked from the entire circumferential direction into the water passage chamber. can do.

According to the portable electrolyzed water generator of the present invention [3], the slit section between a plurality of slits constituting the discharge port is formed into a V-shaped cross section, and the lower surface of the slit section is formed on an inclined surface. Therefore, even if the bubbles generated by the electrolytic product generated by the electrodes come into contact with the lower surface of the slit section, they do not adhere to the lower surface and move upward along the inclination of the lower surface, and the small bubbles Since the electrolyzed water is discharged from the discharge port to the outside of the casing, the electrolyzed product can be reliably dissolved in water and the electrolyzed water can be supplied more efficiently.

According to the portable electrolyzed water generator of the present invention [4], a desired electrolyzed product can be produced in a bathtub or the like in a general household.

According to the portable electrolyzed water generator of the present invention [5], since hypochlorous acid is generated in the bathtub, the inside of the bathtub can be sterilized by the hypochlorous acid.

According to the portable electrolyzed water generator of the present invention [5], since the suction port is arranged corresponding to the lowermost position of the water passage chamber, when the water is pulled out from the water, the water in the water passage chamber is sucked. Since it is reliably discharged by its own weight, it is possible to efficiently and smoothly perform the drainage treatment and drainage treatment after use.

FIG. 1 is a front sectional view showing a bathtub sterilizer to which the portable electrolyzed water generator according to the embodiment of the present invention is applied. 2A and 2B are views showing a bathtub sterilizer according to an embodiment, in which FIG. 2A is a front view, FIG. 2B is a side view, and FIG. 2C is a plan view. FIG. 3 is a perspective view showing the disinfectant for a bathtub of the embodiment in an exploded manner. FIG. 4 is a plan view showing a state in which the upper lid member is removed in the bathtub sterilizer of the embodiment.

1 and 2 are views showing a bathtub sterilizer to which the portable electrolyzed water generator according to the embodiment of the present invention is applied, and FIG. 3 is a perspective view and a view showing the bathtub sterilizer in an exploded manner. 4 is a plan view showing a state in which the upper lid member is removed in the bathtub sterilizer of the embodiment.

As shown in these figures, the bathtub sterilizer of the present embodiment is an underwater installation type used in a state of being immersed in hot water of a bathtub, and hypochlorous acid is used based on electrolysis as described later. It is configured so that it can be sterilized by the sterilization and sterilization effects of hypochlorous acid, and the hot water in the bathtub can be sterilized.

The bathtub sterilization device of the present embodiment includes a casing 1 that covers the entire device, and the casing 1 contains a pair of electrodes 2, a partition member 3, a control board 4, and a battery pack 5 as main components. It has been incorporated.

The casing 1 includes a bottom wall member 11 that constitutes the bottom wall of the casing 1, a peripheral wall member 12 that constitutes the peripheral wall, and a lid member 13 that constitutes a lid (upper wall).

The bottom wall member 11 is formed in an elliptical shape in a plan view, and is formed in a dish shape so that the outer peripheral edge portion rises slightly upward.

The peripheral wall member 12 is formed in an elliptical shape in a plan view following the outer peripheral shape of the bottom wall member 11, and is formed in an elliptical cylinder shape having a short dimension in the axial direction (height direction) as a whole.

The lid member 13 is formed in an elliptical shape in a plan view following the outer peripheral shape of the peripheral wall member 12, and is formed in a dome shape in which the central portion bulges upward as a whole. At the center of the lid member 13, a plurality of slit-shaped discharge ports 131 extending in the long axis direction and arranged in parallel at equal intervals in the uniaxial direction are formed.

Here, in the present embodiment, as shown in FIG. 1, the slit section 132 arranged between each of the plurality of slit-shaped discharge ports 131 is formed in a V-shaped cross section with a sharp lower side. Therefore, the slit section 132 is formed so that its lower surface 133 is inclined with respect to the horizontal plane, and bubbles due to chlorine gas or the like generated by electrolysis are efficiently and smoothly along the lower surface 133 as described later. It is configured to be guided to the discharge port 131 and discharged upward.

In the present embodiment, the slit section 132 is formed in a V-shaped cross section, but the present invention is not limited to this, and in the present invention, the slit section 132 is formed in a “re” shape in cross section. You can do it. That is, in the present embodiment, the lower surface 133 of each slit section 132 is formed by two inclined surfaces by forming each slit section 132 in a V-shaped cross section, but the present invention is not limited to this. , The slit section 132 may be formed in the shape of a cross section “re”, and the lower surface 133 of the slit section 132 may be formed by one inclined surface. Further, in the present invention, the V-shaped cross section also includes a U-shaped cross section and an arc-shaped cross section.

Further, at the lower end of the outer peripheral edge portion of the lid member 13, a plurality of spacer portions 134 are formed so as to project downward at intervals in the circumferential direction. When the lid member 13 is attached to the upper end of the peripheral wall member 12 as described later, the spacer portion 134 is interposed between the lower end of the outer peripheral edge portion of the lid member 13 and the upper end of the peripheral wall member 12, thereby both. A slit-shaped suction port 15 is formed between the members 12 and 13 so as to be formed substantially on the entire circumference in the circumferential direction.

As shown in FIG. 3, a switch operation hole 135 for operating the switch 25 is formed at one end of the lid member 13.

The partition member 3 is formed in an elliptical shape in a plan view following the outer peripheral shape of the bottom wall member 11, and is formed in a dome shape to a reverse bowl shape having an inverted U-shaped cross section with an open lower end. ..

The lower end of the outer peripheral edge portion of the partition member 3 is configured as a fitting portion 31. The outer peripheral surface shape of the fitting portion 31 is formed corresponding to the inner peripheral surface shape of the upper end of the outer peripheral edge portion of the bottom wall member 11 of the casing 1, and the fitting portion 31 of the partition member 3 is formed by the bottom wall member 11. It is configured so that it can be fitted in a conforming state within the upper end of the outer peripheral edge of the.

Further, an outer peripheral wall portion 32 is provided above the fitting portion 31 in the partition member 3. The outer peripheral wall portion 32 is formed to have an outer diameter one size larger than that of the fitting portion 31, so that the lower end surface of the outer peripheral wall portion 32 can be placed on the upper end surface of the outer peripheral edge portion of the bottom wall member 11. It is configured. Further, the outer peripheral surface shape of the outer peripheral wall portion 32 of the partition member 3 is formed corresponding to the inner peripheral surface shape of the peripheral wall member 12 of the casing 1, and the peripheral wall of the casing 1 is formed on the outer side of the outer peripheral wall portion 32 of the partition member 3. The member 12 is configured so that it can be fitted outside in a conforming state.

Further, the portion of the partition member 3 above the outer peripheral wall portion 32 is formed in an elliptical frustum shape. That is, at the center of the upper wall portion of the partition member 3, an electrode installation table 33 having an elliptical shape in a plan view having an outer diameter smaller than that of the outer peripheral wall portion 32 is provided. The electrode mounting table 33 is composed of a flat surface arranged parallel to the horizontal plane. Further, the region of the partition member 3 from the upper end of the outer peripheral wall portion 32 to the electrode installation table 33 is formed on the inclined guide surface 34 that is inclined up from the outer peripheral side toward the electrode installation table 33.

A switch mounting hole 35 for mounting the switch 25 is formed at one end of the upper wall portion of the partition member 3 (see FIG. 3).

The fitting portion 31 of the partition member 3 in the above configuration is fitted into the outer peripheral edge portion of the bottom wall member 11 of the casing 1 via the packing 18 (see FIG. 1) in a conforming state, and the outer peripheral wall portion 32 of the partition member 3 is fitted. The partition member 3 is attached to the upper side of the bottom wall member 11 in a state where the casing 1 is placed on the upper end surface of the outer peripheral edge portion of the bottom wall member 11. The partition member 3 is attached to the bottom wall member 11 in a watertight state, and is configured to prevent hot water in the bathtub from entering the inside of the partition member 3 on the bottom wall member 11. In the present embodiment, the inside of the partition member 3 on the bottom wall member 11 is configured as an electrical chamber 30.

The control board 4 and the battery pack 5 are housed in the electrical chamber 30. That is, the battery pack 5 is arranged on the bottom surface of the bottom wall member 11, and the presser foot 51 is fixed to the bottom wall member 11 by screwing or the like while the battery pack 5 is pressed downward by the presser foot 51. Will be done. As a result, the battery pack 5 is installed in the electrical chamber 30. As shown in FIG. 3, a cushioning member 52 such as a sponge, which is made of a synthetic resin foam and has elasticity and flexibility, is interposed between the presser foot 51 and the battery pack 5 in a compressed state. There is.

A control board 4 is attached to the upper surface of the presser foot 51, and the control board 4 and the battery pack 5 are electrically connected to each other.

In this embodiment, the power supply unit is composed of the control board 4 and the battery pack 5.

A plurality of electrode support protrusions 21 are mounted on the electrode installation table 33 in the partition member 3. A pair of electrodes 2 are mounted on the electrode installation table 33 via the electrode support projections 21. The pair of electrodes 2 are formed so that a spiral anode electrode terminal and a spiral cathode electrode terminal are arranged in parallel in a double spiral shape.

Further, the pair of electrodes 2 are electrically connected to the control board 4 via a conductive terminal 22 that penetrates the upper wall (electrode installation base 33) of the partition member 3 in a watertight manner.

Further, the switch 25 is operably attached to the switch mounting hole 35 in the partition member 3 via the mounting plate 26, and the switch 25 is connected to the control board 4 so that the push operation of the switch 25 can be recognized. ing. Then, the control board 4 is configured to be able to control the supply / stop of the current from the battery pack 5 to the pair of electrodes 2 based on the pressing operation of the switch 25. For example, when the switch 25 is pressed in a state where no current is supplied to the electrodes 2 (non-energized state), the control board 4 supplies a direct current from the battery pack 5 to the pair of electrodes 2, while the current is applied. When the switch 25 is pressed in the supplied state (energized state), the control board 5 is configured to stop the supply of current from the battery pack 5 to the pair of electrodes 2.

In the portable disinfection device of the present embodiment, a light emitting body such as an LED is incorporated in the partition member 3 or the like, and the light emitting body is lit during energization to be in the electrolysis implementation state (energized state). It is configured so that it can be easily recognized by a person or the like, and that the light emitting body is turned off when the power is off and the electrolysis is stopped (non-powered state).

In the present embodiment, the peripheral wall member 12 of the casing 1 is externally fitted to the outer peripheral wall portion 32 of the partition member 3, and the upper end of the peripheral wall member 12 is covered above the partition member 3 so that the casing 1 is covered. The lid member 13 is attached. As a result, as described above, the spacer portion 134 provided at the lower end of the outer peripheral edge portion of the lid member 13 is interposed between the spacer portion 134 and the upper end edge portion of the peripheral wall member 12, so that the circumferential direction is between the two members 12 and 13. The elongated slit-shaped suction port 15 is formed over almost the entire circumferential direction. The suction port 15 is arranged at a position lower than the pair of electrodes 2 installed on the electrode installation table 33 of the partition member 3, and corresponds to the outer peripheral edge (lower end edge) of the inclined guide surface 34 of the partition member 3. It is placed in a position where it can be used.

Further, a pair of electrodes 2 are arranged directly below the discharge port 131 of the lid member 13. Further, a switch 25 provided in the partition member 3 is arranged corresponding to the switch operation hole 135 of the lid member 13, so that the switch 25 can be pressed from above the lid member 13 via the switch operation hole 135. It is configured.

Here, in the present embodiment, the portion above the partition member 3 inside the casing 1 is configured as the water passage chamber 10. The bathtub water outside the casing 1 is configured to enter and exit the water passage chamber 10 through the suction port 15 and the discharge port 131.

In this embodiment, the suction port 15 is arranged corresponding to the lowermost position of the water passage chamber 10.

The sterilizing device for a bathtub of the present embodiment configured as described above is used in a state of being immersed in the hot water of the bathtub, but at the time of use, a small amount of sodium chloride is dissolved in the hot water to dilute the hot water. Set to salt water (sodium chloride aqueous solution) such as salt water. Then, when the switch 25 is pressed in that state to energize the pair of electrodes 2, chlorine is generated at the anode due to the electrolysis of salt water, and the chlorine gas becomes a large number of fine bubbles and separates from the electrodes 2. It floats and is discharged into the bathtub through the discharge port 131 of the lid member 13, and the chlorine gas reacts with the hot water in the bathtub to generate hypochlorous acid. The hypochlorous acid thus generated dissolves in the bath water, and the inside of the bath is sterilized by the sterilizing and sterilizing effect of the electrolyzed water (hypochlorous acid water).

During the operation of the water tank sterilizer of the present embodiment, an ascending flow is generated in the hot water due to the heat generated by the electrolysis, and the electrolytic product such as chlorine gas rises along with the ascending flow. Therefore, in the present embodiment, since the discharge port 131 is formed directly above the pair of electrodes 2, the electrolytic product such as chlorine gas rises along with the rising flow due to heat and is discharged from the discharge port 131. As described above, in the sterilization apparatus of the present embodiment, the electrolytic product rises with the ascending flow from the electrode 2 to the discharge port 131 directly above the electrode 2 to form a discharge path F2 toward the discharge port 131, so that electrolysis is performed. By smoothly supplying the product from the discharge port 131 of the casing 1 into the bathtub without delay, the sterilization effect of chlorine can be improved.

Further, in the present embodiment, the discharge port 131 is composed of a plurality of slits, and the lower surface 133 of the slit section 132 arranged between the slits is formed on an inclined surface inclined with respect to the horizontal plane. Objects can be reliably supplied into the bathtub water.

That is, if the lower surface of the slit section 132 is formed on a flat surface parallel to the horizontal plane, a part of the bubbles when the bubbles of the electrolytic product generated by the electrode 2 rise and are discharged from the discharge port 131. When it comes into contact with the flat lower surface of the slit section 132, the bubbles adhere to the flat lower surface of the slit section 132 and stay there, and combine with a large number of other bubbles to form large bubbles. Then, since the large bubbles have a large buoyancy, they inadvertently rise to the water surface through the discharge port 131 and disappear, and the electrolytic product is released into the air. Therefore, the electrolyzed product cannot be reliably dissolved in the bathtub water, and the electrolyzed water cannot be efficiently supplied into the bathtub.

Therefore, in the present embodiment, since the lower surface 133 of the slit section 132 is formed on the inclined surface, even if the bubbles generated and raised at the electrode 2 come into contact with the lower surface 133 of the slit section 132, the lower surface 133 is formed. It moves upward along the inclination of the lower surface 133 without adhering to the water, and is discharged from the discharge port 131 to the upper side of the casing 1 as small bubbles, so that the bubbles are surely dissolved in the bathtub water. As described above, in the present embodiment, since the electrolyzed water generated by the electrolyzed product generated in the electrode 2 can be reliably supplied into the bathtub, the effect of the electrolyzed water such as the sterilization effect can be obtained more reliably.

Further, in the sterilization apparatus of the present embodiment, the bubbles as the electrolytic product are discharged from the discharge port 131 together with the hot water, so that the lower side of the water passage chamber 10 below the electrode 2 becomes a negative pressure, and the negative pressure causes the negative pressure. The hot water in the bathtub is sucked into the water passage chamber 10 from the slit-shaped suction port 15 on the outer periphery of the casing 1. Here, in the present embodiment, the region between the outer peripheral edge portion of the electrode installation table 33 in the partition member 3 and the upper end of the outer peripheral wall portion 32 corresponding to the suction port 15 is directed from the outer peripheral side toward the electrode installation table 33. Since it is formed on the inclined guide surface 34 that inclines upward, the hot water in the bathtub sucked from the suction port 15 flows along the inclined guide surface 34 and is guided to the lower side of the electrode 2. In this way, the suction path F1 in which the hot water is guided from the suction port 15 to the lower side of the electrode 2 along the inclined guide surface 34 is formed in the water passage chamber 10, so that the hot water flowing in from the suction port 15 is the same. It is smoothly guided to the electrode 2 through the suction path F1 and electrolyzed to efficiently generate chlorine or the like as an electrolytic product.

Therefore, in the bathtub disinfection device of the present embodiment, a desired circulation path is provided by a suction path F1 that guides hot water in the bathtub from the suction port 15 to the electrode 2, and a discharge path F2 that guides the hot water in the bathtub from the electrode 2 to the discharge port 131. Since it can be formed, the suctioned hot water can be efficiently and smoothly electrolyzed by the circulation paths F1 and F2, and the electrolytic product can be sufficiently supplied together with the hot water into the bathtub without any delay, further improving the sterilization effect. be able to.

Further, in the bathtub disinfection device of the present embodiment, since the suction port 15 is arranged corresponding to the lowermost position of the water passage chamber 10 filled with the bathtub water, the disinfection device is taken out from the bathtub after bathing. At that time, the water in the water passage chamber 10 can be reliably discharged from the suction port 15. In particular, in the present embodiment, the inclined guide surface 34 in the partition member 3 is arranged so as to incline downward from the central portion of the water passage chamber 10 toward the suction port 15, so that the water in the water passage chamber 10 is inclined. It surely flows down along the guide surface 34 by its own weight and is smoothly discharged from the suction port 15. Therefore, in the aquarium sterilizer of the present embodiment, wastewater treatment (draining treatment and draining treatment) after use can be performed efficiently and smoothly, and the usability and convenience can be improved, and the product value can be improved. It can be further enhanced.

In the above embodiment, an example is a case where electrolyzed water such as hypochlorous acid (hypochlorite water) is generated by dissolving sodium chloride in hot water in a bathtub and electrolyzing the salt water. Although the explanation is given above, the present invention is not limited to this, and in the present invention, the clean water may be electrolyzed to generate hydrogen gas, and the hydrogen water in which the hydrogen gas is dissolved may be supplied into the bathtub. ..

Further, in the above embodiment, the case where the portable electrolyzed water generator of the present invention is applied to a bathtub disinfectant device installed in a bathtub has been described as an example, but the present invention is not limited to this. In, it can be applied to other than the bathtub.

Further, in the above embodiment, the case where the suction port 15 is formed in a slit shape extending in the circumferential direction has been described as an example, but the present invention is not limited to this, and in the present invention, the suction port 15 is formed along the circumferential direction. For example, a plurality of circular suction ports may be formed at predetermined intervals along the circumferential direction.

The portable electrolyzed water generator of the present invention reacts chlorine generated by electrolysis of bath water in which a small amount of sodium chloride is dissolved in the bath water to generate hypochlorite and sterilize the inside of the bath. It can be suitably used as an underwater installation type sterilization device for a bathtub.

1: Casing 10: Water flow chamber 12: Peripheral wall member (peripheral wall)
13: Closure member (upper wall)
131: Discharge port 132: Slit partition 133: Bottom surface 15: Suction port 2: Pair of electrodes 30: Electrical room 33: Electrode installation table 34: Inclined guide surface 4: Control board (power supply unit)
5: Battery pack (power supply unit)
F1: Suction path

Claims (6)

A casing that is installed in water and has a suction port and a discharge port, an electrical chamber that is watertightly provided in the casing, and an upper portion of the casing that is provided through the suction port and the discharge port. It is provided with a water passage chamber through which water outside the casing enters and exits, a pair of electrodes provided in the water passage chamber, and a power supply unit provided in the electrical equipment chamber, and the pair of electrodes are energized from the power supply unit. As a result, an electrolytic product is generated by electrolysis of water sucked into the water passage chamber from the suction port, and the electrolytic product is discharged to the outside of the casing through the discharge port. It is a portable electrolyzed water generator.
The discharge port is formed in the center of the upper wall of the casing, and the discharge port is formed.
An electrode mounting table is provided on the upper part of the casing corresponding to the discharge port, and the pair of electrodes are installed on the electrode mounting table.
The suction port is formed along the circumferential direction at a position lower than the electrode mounting table on the peripheral wall of the casing.
An inclined guide surface that inclines diagonally upward is provided in the casing from the suction port to the outer peripheral edge of the electrode mounting table.
A portable electrolyzed water generator characterized in that a suction path is formed in which water sucked from the suction port is guided to the pair of electrodes along the inclined guide surface. The portable electrolyzed water generator according to claim 1, wherein the suction port is formed in a slit shape extending in the circumferential direction and is formed over almost the entire area in the circumferential direction. The discharge ports are formed in a slit shape, and a plurality of discharge ports are arranged in parallel.
By forming the slit sections arranged between each of the plurality of slit-shaped discharge ports in the casing in a V-shaped cross section to a “re” -shaped cross section, the lower surface of the slit section sections is formed with respect to the horizontal plane. The portable electrolyzed water generator according to claim 1 or 2, which is formed on an inclined surface. The portable electrolyzed water generator according to any one of claims 1 to 3, which is configured to be installed in a bathtub. Sodium chloride is dissolved in the bath water,
The portable electrolyzed water generator according to claim 4, wherein hypochlorous acid is produced by electrolysis of bathtub water. The portable electrolyzed water generator according to any one of claims 1 to 5, wherein the suction port is arranged corresponding to the lowermost position of the water passage chamber.

Images