Ozone water spraying device

Abstract

The utility model provides an ozone water spraying device with a structure capable of discharging ozone water without flowing the ozone water into a pump device. Provided is an ozone water discharge device, comprising: a head part for discharging ozone water; the container part is used for accommodating raw material water; and a tube body that connects the inside of the head part and the inside of the container part, the head part being provided with a discharge part, the tube body being provided with a holding member and a pump device, and the container part being provided with a tube body guide part, a discharge switch, a container main body, an electrolysis unit, and a control part.

Description

TECHNICAL FIELD

[0001] The present disclosure relates to an ozone water spouting device. BACKGROUND

[0002] The bactericidal power, deodorizing power, and even the contribution in various fields such as the cell activity effect of ozone water are recognized. Ozone water is sometimes spouted by a spouting device or the like, for example (Patent Literature 1).

[0003] Patent Literature 1: Japanese Patent Application Publication No. 2020 / 157292

[0004] The spouting device of Patent Literature 1 includes a container and a head portion installed to the container. Raw water and an electrolysis unit are housed in the container. The electrolysis unit electrolyzes the raw water, thereby generating ozone water. The generated ozone water is discharged from the head portion via a pipe body or the like.

[0005] In order to move the generated ozone water from the container to the head portion via the pipe body, a trigger device is sometimes used. However, since the spouting amount in the trigger operation is small, the trigger needs to be operated multiple times, which is inefficient and inconvenient. In order to solve these problems, electric spouting using a pump is being studied instead of manual spouting like a trigger. For example, in Patent Literature 1, an electric spouting device based on a pump is provided at the head portion, and ozone water is discharged from the head portion.

[0006] Since ozone water has a corrosive effect, from the viewpoint of suppressing failure of the pump device, it is desirable to adopt a structure in which ozone water does not flow into the pump device. In addition, in the electric type, a pump and a switch that operates the pump are needed, and in the case of a spouter in which a compact size is required, how to achieve compactness is required. Generally, since there is only a limited space inside the spouting device, it is difficult to achieve a structure in which ozone water does not flow into the pump device. UTILITY MODEL CONTENTS

[0007] The present inventors have conducted intensive research, and as a result, have newly found a structure in which ozone water can be discharged without flowing into a pump device. Specifically, the present inventors have newly found a structure in which ozone water can be discharged without flowing into a pump device by keeping the arrangement of a pipe body in a new arrangement that has not been seen before. The main object of the present disclosure is to provide an ozone water spouting device that achieves this structure.

[0008] An ozone water spouting device is provided in the present disclosure,

[0009] The above-described ozone water spouting device includes a head portion for spouting ozone water, a container portion for housing raw water, and a pipe body that communicates the inside of the head portion and the inside of the container portion,

[0010] An outlet portion, a pipe body arrangement retaining member, and a pump device are provided in the above-described head portion,

[0011] The aforementioned container section includes a pipe guide, a discharge switch, a container body, an electrolysis unit, and a control unit.

[0012] The ozone water dispensing device disclosed herein has a structure that allows ozone water to be discharged without flowing into the pump device. Specifically, the ozone water dispensing device disclosed herein features a novel configuration of the pipe body that has never been seen before, thereby enabling the discharge of ozone water without flowing into the pump device. Attached Figure Description

[0013] FIG. 1A A schematic perspective view showing a tube configuration holding component according to one embodiment.

[0014] FIG. 1B This is a top view of the configured tube in a tube configuration holding member according to one embodiment.

[0015] FIG. 1C Indicates from FIG. 1B The tube configuration retaining components when viewed in the direction of arrow A.

[0016] FIG. 1D Indicates from FIG. 1C The tube configuration retaining components when viewed in the direction of arrow A.

[0017] FIG. 2 This refers to an ozone water spraying device according to one embodiment.

[0018] FIG. 3A A schematic cross-sectional view is shown illustrating the configuration of a first tube body according to one embodiment.

[0019] FIG. 3B Indicates from FIG. 3A A perspective view showing the direction of arrow A when viewed from the perspective.

[0020] FIG. 4A A schematic cross-sectional view is shown illustrating the configuration of a second tube body according to one embodiment.

[0021] FIG. 4B Indicates from FIG. 4A A perspective view showing the direction of arrow A when viewed from the perspective.

[0022] FIG. 5A A schematic cross-sectional view is shown illustrating the configuration of a third tube body according to one embodiment.

[0023] FIG. 5B Indicates from FIG. 5A A perspective view showing the direction of arrow A when viewed from the perspective.

[0024] FIG. 6A schematic perspective view showing a pipe body guide portion according to an embodiment.

[0025] FIG. 7 A schematic cross-sectional view showing a state of a combination of a switch holder and a pipe body guide portion according to an embodiment.

[0026] FIG. 8 A schematic perspective view showing an ozone water jetting device according to an embodiment. FIG. 2 from the direction of an arrow A.

[0027] FIG. 9 A schematic view showing a state in which a housing of the ozone water jetting device according to FIG. 8 is formed by combination.

[0028] FIG. 10A An ozone water jetting device according to an embodiment.

[0029] FIG. 10B A schematic plan view showing the ozone water jetting device according to FIG. 10A from the direction of an arrow B.

[0030] FIG. 10C A schematic cross-sectional view showing the ozone water jetting device according to FIG. 10A from the direction of an arrow C.

[0031] Explanation of Reference Numerals

[0032] 1000...Ozone water spraying device; 1100...Housing; 1150...Housing component; A...Head portion; 100...Pipe body configuration holding component; 10...First guide portion; 11...First wall portion; 12...Pipe body spool portion; 20...Second guide portion; 21...Second wall portion; 22...Opening portion; 30...Third guide portion; 31...Rod portion; 110...Plate portion; 111...First inlet / outlet; 112...First protrusion; 113...Second inlet / outlet; 114...Second protrusion; 120...Pump configuration area; 130...Discharge portion; 131...Accessory portion; 140...Third wall portion; 200...Pump device; 300...Pipe body guide portion; 310...Connector portion; 321...First through hole; 322...Second through hole; 323...Third through hole; 326...Groove; 334...Flange; 335...Bottom; 400...Discharge switch; 410...Switch protective cover; 420...Switch holder; 430...Switch; B...Container section; 500...Container body; 510...Mounting section; 520...Raw water supply section; 530...Raised section; 600...Control section; 610...Spray mode switching switch; 620...Temperature sensor; 630...LED substrate; 700...Raw water; 800...Electrolysis unit; C...Pipe body; 910...First pipe body; 920...Second pipe body; 930...Third pipe body. Detailed Implementation

[0033] The ozone water spraying device and pipe body configuration holding component of this disclosure are described in more detail below. Although the description is based on the accompanying drawings as needed, the various elements in the drawings are shown schematically and illustratively only for the purpose of understanding the present invention, and the appearance and / or size ratios may differ from the actual object.

[0034] The various numerical ranges mentioned in this specification are intended to include the lower and upper limits of the values ​​themselves. That is, for example, a numerical range of 1 to 10 can be interpreted as including the lower limit value "1" and also including the upper limit value "10".

[0035] <Ozone Water Spraying Device>

[0036] The ozone water spraying device disclosed herein is described in detail.

[0037] like FIG. 2As shown, the ozone water spraying device 1000 of this disclosure includes a head portion A, a container portion B, and a pipe body C. The head portion A includes a pipe body mounting and holding component 100 and a pump device 200. The container portion B includes a pipe body guide portion 300, a discharge switch 400, a container body 500, and a control unit 600. The container body 500 houses raw material water 700 and an electrolysis unit 800. The pipe body C includes a first pipe body 910, a second pipe body 920, and a third pipe body 930.

[0038] The ozone water spraying device 1000 of this disclosure is generally formed by a housing (or sheath) 1100. The inner side of the housing 1100 is hollow, and the tube housing retaining member 100 and other components constituting the ozone water spraying device 1000 of this disclosure are housed within the housing. In other words, the tube housing retaining member 100 and other components constituting the ozone water spraying device 1000 of this disclosure are housed within the housing.

[0039] The housing 1100 can be made of resin or the like. The shape of the housing 1100 can be obtained by molding it to resemble a conventionally known hand-shaped sprayer.

[0040] When using the ozone water spraying device disclosed herein, hold the mounting part 510 near the device and place your finger on the switch 430. By pressing the switch 430 with your finger while the discharge part 130 is facing the area where you want to spray ozone water, ozone water is discharged from the discharge part 130 and sprayed onto the target area.

[0041] Ozone water is generated by the electrolysis unit 800. Power is supplied from a battery to the pump device 200 and the electrolysis unit 800 by pressing a switch 430 with a finger, enabling them to operate. The pump device 200 draws raw water 700 through a first tube 910 and supplies the drawn raw water to the electrolysis unit 800 through a second tube 920. The electrically powered electrolysis unit 800 electrolyzes the raw water within itself to generate ozone water. The generated ozone water is forced out of the electrolysis unit 800 through a third tube 930 by the pressure from the raw water 700 supplied to the electrolysis unit from the pump device 200. The ozone water forced out of the electrolysis unit 800 is discharged to the outside through a discharge section 130.

[0042] [A. Head section]

[0043] Head portion A is the upper part of the ozone water spraying device 1000 (or housing 1100). Head portion A includes a pipe housing retainer 100 and a pump assembly 200.

[0044] (100. Pipe body configuration retaining components)

[0045] The tube body configuration retaining member 100 of this disclosure is provided in the head portion A. The features of the tube body configuration retaining member 100 are described in detail below in the section on "Tube Body Configuration Retaining Member" of this disclosure.

[0046] In the ozone water dispensing device 1000 disclosed herein, when ozone water is discharged from the discharge section 130, the discharge can be a mist spray (i.e., a spray) or a rod-shaped water injection (i.e., direct discharge without spraying).

[0047] (200. Pump unit)

[0048] A pump device 200 is installed in the head section A. For example... FIG. 2 As shown, the pump assembly 200 is configured to overlap a portion of the pipe body configuration retaining member 100. When the discharge section 130 is positioned in front of the head section A, the pump assembly 200 is positioned behind the head section A.

[0049] The type of pump device 200 is not particularly limited; for example, a positive displacement pump can be used. For instance, a diaphragm pump, plunger pump, tubular pump, etc., can also be used. From the viewpoint of easy internal housing within the head section, the pump device 200 can be a small pump device; for example, a rotary pump can also be used. The power for the pump device 200 is supplied by a battery described later. The pump device 200 can be electric.

[0050] [B. Container Section]

[0051] Container part B is the lower part of the ozone water dispensing device 1000 (or housing 1100). Container part B includes a pipe guide 300, a discharge switch 400, a container body 500, and a control unit 600.

[0052] (300. Pipe body guide part)

[0053] A tube guide 300 is provided in container section B. For example... FIG. 2 and FIG. 3A-5A As shown, the tube guide 300 is installed on the container section B. The tube guide 300 guides the arrangement of the first tube 910, the second tube 920, and the third tube 930 between the distribution head section A and the container section B.

[0054] like FIG. 3A and FIG. 6As shown, the tube guide portion 300 of this disclosure has a cylindrical shape. A flange-shaped protrusion 334 is provided on the cylindrical surface of the tube guide portion 300. Inside the cylinder of the tube guide portion 300, there is a bottom 325, and a first through hole 321, a second through hole 322, and a third through hole 323 are provided in the bottom 325. Hereinafter, when simply referred to as "through hole," it refers to each of the first through hole 321, the second through hole 322, and the third through hole 323.

[0055] like FIG. 3B As shown, the first through hole 321 allows the first tube body 910 to be inserted. FIG. 3B As shown, the second through hole 322 allows the second tube body 920 to be inserted. FIG. 3B As shown, the third through hole 333 allows the third tube 930 to be inserted. The insertion of each tube into these through holes maintains the configuration of each tube between the head portion A and the container portion B.

[0056] The diameter of each through hole in the tube guide 300 of this disclosure can be approximately the same as the diameter of the tube inserted into each through hole. When the diameter of the through hole is approximately the same as the diameter of the tube, the tube can be tightly inserted into the through hole. When the tube is tightly inserted into the through hole, gaps are less likely to form between the through hole and the tube (i.e., the interface), and the raw water 700 inside the container body 500 is less likely to leak out of the container body 500.

[0057] The diameter of the through hole is approximately the same as the diameter of the tube body, which can be 95% or more of the diameter of the tube body, preferably 97% or more, and more preferably 99% or more. When the tube body guide portion 300 and / or the tube body contains a stretchable material, the diameter of the through hole can also be 105% or less of the diameter of the tube body, preferably 103% or less, and more preferably 101% or less.

[0058] In the pipe guide section 300, in addition to the through hole for pipe insertion, a fourth through hole may also be provided for the insertion of an electrical wire for supplying power to the pump. From the viewpoint that the raw water is less likely to leak from the container body, the diameter of the fourth through hole can be approximately the same as the diameter of the electrical wire. Regarding the statement that the diameter of the fourth through hole is approximately the same as the diameter of the pipe, the phrase "the diameter of the through hole is approximately the same as the diameter of the pipe" already described above is used.

[0059] In a further embodiment, one or more additional through holes may be provided in addition to the fourth through hole. For example, a fifth through hole may also be provided in addition to the fourth through hole. In addition to the pipe body and electrical wires, components, devices, etc. (such as sensors) disposed between the head portion and the container portion can be installed in the additional through holes. From the viewpoint that the raw water is less likely to leak from the container body, the diameter of the additional through hole can be approximately the same as the diameter and width of the components, devices, etc., inserted into the additional through hole.

[0060] The wire can be a single wire consisting of a bundle of positive (+) and negative (-) wires, or it can be a single wire consisting of two separate positive (+) and negative (-) wires. The single wire can be inserted into the fourth through hole.

[0061] When using the above-mentioned wires that are separated into two wires, a fourth through hole and a fifth through hole can also be provided for each wire to be inserted.

[0062] The tube guide 300 can be directly installed onto the container body 500. For example... FIG. 2 As shown, the tube guide 300 can also be installed on the container body 500 via the connector 310. That is, the connector 310 can be connected to the container mounting portion 510, and the tube guide 300 can be installed on the connector 310. The installation of the connector 310 onto the container body 500 can also serve as a fastening of the connector 310 onto the container body 500. This fastening can be achieved using the threaded fastening described in detail below.

[0063] FIG. 2 and FIG. 3A-5A The connector portion 310 shown has a cylindrical shape. The connector portion 310 has a first opening formed by its side surface and a second opening formed by a surface extending from that side surface. The connector portion 310 is configured such that the first opening faces the container portion B and the second opening faces the head portion A. The diameter of the second opening is smaller than the diameter of the other openings.

[0064] There is no particular limitation on the method of connecting the connector 310 and the mounting part 510 of the container body; known fixing methods can be used. FIG. 2 and FIG. 3A-5A In the illustrated configuration, the tube guide portion 300 is mounted to the container via the connector portion 310. Threads are provided on the inner side of the connector portion 310 and on the surface of the mounting portion 510 of the container body. Therefore, the connector portion 310 serves as the internal thread side, the mounting portion 510 as the external thread side, and the connector portion 310 is mounted to the mounting portion 510.

[0065] There is no particular limitation on the method of connecting the tube guide 300 and the connector 310; known fixing methods can be used. FIG. 2 and FIG. 6 In the configuration shown, as described above, a second opening is provided in the connector portion 310. The tube guide portion 300 is configured to protrude from the inside of the connector portion 310 toward the outside and from the second opening of the connector portion 310.

[0066] Here, since the diameter of the flange 334 of the tube guide is larger than the diameter of the second opening of the connector 310, the flange 334 of the tube guide contacts the edge of the second opening of the connector 310. The lower surface of the flange 334 contacts the edge of the upper opening of the container body 500. Through this contact, the tube guide 300 is locked to the connector 310 and the container body 500, thus preventing the tube guide 300 from flying out of the second opening of the connector 310 and falling into the container body 500. Furthermore, as... FIG. 7 As shown, when the flange portion 334 of the tube guide portion contacts the upper opening of the container body 500, the contact becomes a more secure contact when the connector portion 310 tightens the container body 500, and the contact becomes tighter.

[0067] like FIG. 2 As shown, a groove 326 for mounting the discharge switch 400 can also be provided in the pipe guide portion 300. The protrusion of the switch holder 420 of the discharge switch 400, described later, fits into the groove 326. The pipe guide portion 300 and the discharge switch 400 are connected by this fit. In addition, as FIG. 2 As shown, the tube guide portion 300, which is provided and locked in a manner that protrudes from the inside to the outside of the connector portion 310 through this fitting, can also function as a stop member that does not detach from the connector portion 310.

[0068] (400. Discharge switch)

[0069] A discharge switch 400 is provided in container section B. The discharge switch 400 includes a switch 430, a switch holder 420, and a switch protective cover 410.

[0070] The ozone water dispensing device 1000 disclosed herein can dispense ozone water from the discharge section (or spray nozzle) 130 by pressing a switch 430 with a finger or the like. Specifically, pressing the switch 430 supplies power from a battery to a pump. The powered pump supplies raw water to the electrolysis unit, and the ozone water generated by the electrolysis unit is discharged from the discharge section 130 to the outside using the supply pressure of the raw water. When the switch 430 is stopped, the power supply to the pump device stops, and the dispensing of ozone water stops.

[0071] The discharge switch 400 is mounted to the container body 500 via a switch holder 420. Alternatively, the discharge switch 400 can be directly mounted to the mounting portion 510 of the container body 500 via the switch holder 420. The switch holder 420 of the discharge switch 400 can also be mounted to the pipe guide portion 300. As described above, since the pipe guide portion 300 is mounted to the mounting portion 510, the discharge switch 400 can be substantially mounted to the container body 500 by mounting the switch holder 420 to the pipe guide portion 300.

[0072] The switch protective cover 410 is pivotally mounted to the switch holder 420. For example... FIG. 2 As shown, the switch protection cover 410 is pivotable about the mounting portion of the switch holder 420.

[0073] The switch guard 410 helps prevent erroneous operation of the discharge switch 400. For example... FIG. 7 As shown, when the switch cover 410 is positioned to cover the switch 430, it is difficult to press the switch 430 in using fingers or the like. When the ozone water spraying device 1000 is not in use, by covering the switch 430 with the switch cover 410, it is easy to prevent accidental pressing of the switch 430 and to prevent unnecessary ozone water discharge. Furthermore, when the ozone water spraying device 1000 is in use, the switch cover 410 is positioned not to cover the switch 430 (…). FIG. 6 The state of the switch protective cover 410 is indicated by dashed lines.

[0074] A unit that can be connected to the tube guide 300 can also be provided in the switch holder 420. For example, FIG. 10A-10C As shown, a cylinder that can fit into the tube guide 300 can also be provided in the switch holder 420. By fitting the cylinder of the switch holder 420 into the tube guide 300, the tube guide 300 and the switch holder 420 can be combined. From the viewpoint of making the combination of the tube guide 300 and the switch holder 420 more secure, a protrusion can also be provided on the inner side of the cylinder of the switch holder 420. By making this protrusion fit into the tube guide 300 into the tube guide 300, a cylinder can fit into the tube guide 300. FIG. 10A-10C The groove 326 of the tube guide shown is slidably fitted, which can more securely combine the tube guide 300 and the switch holder 420.

[0075] (500. Container body)

[0076] The container section B is provided with a container body 500 for containing raw water 700. The container body 500 is provided with a mounting part 510 for mounting the pipe guide part 300 and a raw water supply part 520 for supplying raw water 700 to the container body.

[0077] The material of the container body is not particularly limited; for example, it can be a material selected from at least one of the groups consisting of resin, glass, ceramic, and metal. In one embodiment, the container body can be made of resin. The same material as the container body can also be used for the shell.

[0078] The raw water supply unit 520 connects the container body 500 and the shell 1100. Raw water 700 is supplied into the container body 500 through the container body 500 and the shell 1100. The raw water supply unit 520 can be provided, for example, by providing openings in the container body 550 and the shell 1100. Except when supplying raw water 700, the raw water supply unit 520 is normally sealed to prevent leakage of raw water 700 to the outside. The raw water supply unit 520 can be sealed using commonly used sealing units such as caps or threaded connections.

[0079] Alternatively, a raised portion 530 can be provided at the bottom of the container body 500. The raised portion 530 is the part of the container body surface that bulges upwards from the container surface towards the raw water side. FIG. 10B In the arrangement shown, two raised portions 530 are provided, protruding from the bottom toward the raw water 700 side. FIG. 10C In the middle, the raised portion 530 becomes an elongated shape extending in one direction, and its cross-sectional shape is triangular. In addition, the raised portion 530 can also be called mountain-shaped or convex, and its cross-sectional shape can be semi-circular, quadrilateral, polygonal, etc., in addition to triangle.

[0080] like FIG. 10A-10C and FIG. 2 As shown, two raised portions 530 are arranged at an open interval. Between the two raised portions 530 is a raw water inlet of a first pipe 910 for supplying raw water 700 to the pump assembly 200 and / or an electrolysis unit 800. The first pipe 910 and / or the electrolysis unit 800 arranged between the two raised portions 530 are not easily moved from their arrangement position; their arrangement position can be substantially fixed.

[0081] When the water level of the raw water 700 in the container body 500 decreases and the water depth becomes shallow due to the use of ozone water, the raw water intake port of the first tube 910 and / or the electrolysis unit 800 may be exposed to the air and ozone water cannot be generated. In order to prevent the raw water intake port of the first tube 910 and / or the electrolysis unit 800 from being exposed to the air, the water depth of the raw water 700 is adjusted by tilting the ozone water spraying device 1000 toward the discharge part (spray nozzle) 130, so that the raw water intake port of the first tube 910 and / or the electrolysis unit 800 are submerged in the raw water.

[0082] Previously, the feed water intake was sometimes fixed at the center (or near the center) of the bottom of the container body. Therefore, when the ozone water spraying device was used at an angle, if the water level of the feed water in the container body decreased, the feed water intake would protrude from the feed water into the outside, making normal ozone water spraying impossible.

[0083] In the ozone water ejection device disclosed herein, when adjusting the water depth of the raw material water, if the raw material water inlet of the first pipe body 910 and / or the configuration position of the electrolysis unit 800 are as follows: FIG. 2 If it is fixed to the bottom of the container body 500 and not easily moved, it is easy to keep the raw water intake of the first tube 910 and / or the electrolysis unit 800 in the state of being submerged in the raw water, and it is easy to continue to generate ozone water.

[0084] (600. Control Department)

[0085] A control unit 600 is provided in container section B. The control unit 600 controls the conditions for generating ozone water by the electrolysis unit 800. Specifically, the control unit 600 is configured to boost the voltage generated by the battery through a boosting process, thereby supplying the voltage required for the generation of ozone water.

[0086] The control unit may also include the following devices associated with the control of the ozone water spraying device 1000 disclosed herein.

[0087] [Spray Mode Switch]

[0088] The control unit may also include a spray mode switching switch. This switch allows switching the spray mode of the ozone water discharged from the outlet. Examples of ozone water spray modes include, but are not limited to, a normal spray mode that sprays only ozone water, and a cleaning mode that first sprays raw water and then sprays ozone water. FIG. 2 As shown, the spray mode switching switch 610 can be located on the side of the container part B.

[0089] The normal spray mode is a mode in which only ozone water is sprayed from the discharge section by pressing the discharge switch. The spraying time of the ozone water can be adjusted by pressing the discharge switch for a certain period of time. For example, it can be set to spray ozone water for a short time by pressing the discharge switch once, and to spray ozone water for a long time by continuously pressing the discharge switch. The short time can be, for example, about 2 seconds, and the long time can be, for example, about 10 seconds.

[0090] The cleaning mode involves first spraying pre-mixed water followed by ozone water. Regarding the effectiveness of ozone water, there is a concern that if dirt is present on the target area, the ozone may be consumed by the dirt, preventing the ozone water from being fully effective. In this mode, pre-mixed water is used to clean the target area of ​​dirt before spraying ozone water. After cleaning with pre-mixed water, ozone water is then sprayed onto the target area. Because the dirt on the target area is pre-cleaned by the sprayed pre-mixed water, the cleaning and / or sterilization effects of the ozone water are more effective.

[0091] [Current Control Section]

[0092] The control unit may also include a current control unit for controlling the current supplied to the electrolysis unit. The current control unit is not particularly limited; for example, it may be a current control unit that detects interference (e.g., temperature) and automatically controls the current supplied to the electrolysis unit. The current control unit can automatically control the current supplied to the electrodes of the electrolysis unit based on temperature changes obtained from a temperature sensor.

[0093] The temperature sensor can be inserted into the container to directly measure the raw water temperature, or it can be attached to the container surface to measure the surface temperature, transmitting the change in surface temperature to the current control unit. The container surface to which the temperature sensor is attached can be, for example, the bottom or side of the container. FIG. 1A-1D As shown, the temperature sensor 620 can be installed on the bottom surface of the container. When the temperature sensor is attached to the bottom surface of the container, it is less susceptible to interference from factors other than the container surface temperature (heat transmitted from sunlight or heating elements, airflow from air conditioners, etc.), thus allowing for more accurate control of the electrolysis current based on the container's wall temperature. Since the temperature of the raw water inside the container can be conducted to the container's surface, the temperature of the raw water can be predicted by measuring the container's surface temperature.

[0094] There are no particular restrictions on how the temperature sensor is attached to the container surface; it can be secured using tape, adhesive, or metal parts. From the viewpoint of more accurate measurement of the container surface temperature, the temperature sensor can also be attached by covering the area around it with a material with low thermal conductivity. For example, if a resin material or foam is used to attach the temperature sensor to the container surface, the temperature sensor is less susceptible to interference that might interfere with the measurement of the container surface temperature.

[0095] There are no particular limitations on the temperature sensor, as long as it is a contact-type temperature sensor that can be mounted on the surface of the container. For example, the temperature sensor can be an electrical thermometer. Specifically, the temperature sensor can be a thermistor, thermocouple, resistive temperature sensor, or IC temperature sensor. In one embodiment, a thermistor can be used as the temperature sensor. Thermistors are relatively small and inexpensive, and therefore easy to mount on the surface of the container.

[0096] The lower the temperature of the raw water, the higher the solubility of ozone in the raw water. Therefore, ozone generated by electrolysis of the raw water can dissolve efficiently in the water. That is, even a small amount of ozone can dissolve efficiently in the raw water at low temperatures, thus reducing the current required to generate ozone water with a specified ozone concentration.

[0097] On the other hand, the higher the temperature of the raw water, the lower the solubility of ozone in the raw water. Therefore, the ozone generated by electrolysis of the raw water is difficult to dissolve in the water. That is, when the temperature of the raw water is high, a large amount of ozone needs to be generated and dissolved in the raw water, so the current required to generate ozone water with a specified ozone concentration will increase.

[0098] Based on the above reasons, regarding the current control method, when the surface temperature of the container is high, the current supplied to the electrode can be increased, and when the surface temperature of the container is low, the current supplied to the electrode can be decreased. For example, when the surface temperature of the container increases by 1°C, the current density can be increased by 1% to 20%, preferably by 5% to 15%, more preferably by 7% to 13%. On the other hand, when the surface temperature of the container decreases by 1°C, the current density can be decreased by 1% to 20%, preferably by 5% to 15%, more preferably by 7% to 13%.

[0099] [LED substrate]

[0100] In one embodiment, the ozone water spraying device may also include an LED substrate for displaying the operating status of the ozone water spraying device. The LED substrate is a substrate equipped with LEDs (light-emitting diodes). When the ozone water spraying device enters a specific operating state, the LED substrate receives information about that operating state as a signal, and the LEDs on the LED substrate emit light according to this received information. The user of the ozone water spraying device can confirm the operating status of the ozone water spraying device based on the color of the LED light emitted.

[0101] Regarding the operating states of an ozone water spraying device, examples include: the ozone water spraying device generating ozone water; the ozone water spraying device's battery being charged; the components constituting the ozone water spraying device, such as the electrolysis unit, reaching their service life (limited number of uses); the components through which current flows, such as the electrolysis unit, being subjected to a high voltage; the spraying mode of the ozone water spraying device; and the ozone water spraying from the ozone water spraying device, etc., but it is not limited to these.

[0102] There is no particular limitation on the color of LED emission; it can be blue, purple, red, green, yellow, white, or a combination thereof. The color of LED emission can be assigned to various colors depending on the operating status of the ozone water spraying device.

[0103] There are no particular restrictions on where the LED substrate can be placed, as long as the user of the ozone water spraying device can confirm the LED's emission color. For example, the LED substrate can be placed on the outer surface of the container body. Alternatively, the LED itself can be mounted on the housing.

[0104] In one implementation, such as FIG. 2 As shown, the LED substrate 630 can be disposed on the bottom of the container body 500 on the outer surface of the container body 500. In this embodiment, the container body 500 and the housing 1100 are preferably configured such that the color of the LED emission can be visually confirmed from the outside of the ozone water spraying device 1000. For example, the container body 500 and / or the housing 1100 can be made of a transparent or translucent material, or of a thickness that allows the LED emission color to pass through and be visually discernible from the outside.

[0105] (700. Raw water)

[0106] The raw water is used to generate ozone water. The raw water can be, for example, tap water, RO water, ion-exchange water, or acidic water.

[0107] The pH of the raw water is not particularly limited and can be in the acidic to neutral range. Specifically, the pH of the raw water can be 1 to 8, preferably 2 to 7, and more preferably 3 to 7. Furthermore, in this specification, "pH" refers to the hydrogen ion index. This pH can be measured using a known pH measuring device. For example, a glass electrode type pH meter can be used. Specifically, the pH value can be, for example, a value measured according to "JIS Z 8802 pH Measurement Method".

[0108] (800. Electrolysis Unit)

[0109] An electrolysis unit has at least an anode and a cathode as electrodes, and an electrolyte membrane disposed between these electrodes. The anode and cathode are electrodes used to supply electrical energy to the feed water from the outside.

[0110] The anode is the electrode connected to the positive terminal of the power supply and is the electrode that undergoes an oxidation reaction during operation. On the other hand, the cathode is the electrode connected to the negative terminal of the power supply and is the electrode that undergoes a reduction reaction during operation.

[0111] Typically, the electrolyte membrane is a cation exchange membrane and serves as an electrical and physical barrier between the anode and cathode chambers. The electrolyte membrane allows cations to flow between the anode and cathode while preventing the mixing of substances generated at the anode and cathode.

[0112] In the electrolysis unit, the electrodes can be made of, for example, a conductive substrate that allows liquid to pass through. In this respect, at least one of the anode and cathode can be made of a conductive porous substrate. In other words, at least one of the anode and cathode can be a mesh-opening electrode with mesh openings. Although merely illustrative, the electrodes can, for example, be made of gratings, micro-gratings, expanded metal, micro-expanded metal, metal meshes (plain weave, twill weave, etc.), and metals that have undergone planar processing or rolling processing in each example, flat metal meshes that suppress the protrusions of the metal mesh intersections, or perforated metal, etc.

[0113] In one embodiment, both the anode and cathode can be constructed from conductive porous substrates. Specifically, both the anode and cathode can be composed of grating-like, expanded metallic, or plain-weave mesh structures. Here, "grating-like" and "expanded metallic" refer to a grid-like structure formed by integrated wires, while "perforated metallic" refers to a porous plate with multiple through-holes formed in a metal plate. The aperture ratio of the conductive porous substrate is not particularly limited and can range from approximately 20% to 90%, for example, 30% to 80%, 40% to 75%, or 50% to 75%.

[0114] In a preferred embodiment, the anode can be a material with a high oxygen overvoltage that preferentially promotes ozone generation. Specifically, at least one material selected from the group consisting of β-lead dioxide, platinum, platinum group metals (palladium, rhodium, and / or ruthenium), gold, carbon (graphite), and conductive diamond can be used. Among these materials, platinum, gold, or their coated metals can be used from the viewpoint of high oxygen overvoltage and good stability. In particular, using a metal in which platinum is coated onto titanium through plating or thermal bonding can reduce product costs to a low level. Alternatively, a material in which conductive diamond is coated onto a titanium or niobium substrate through chemical vapor deposition can also be used. In a preferred embodiment, a fibrous or non-woven activated carbon sheet can be used as the cathode.

[0115] As the electrolyte membrane, conventionally known membranes can be used. However, considering the electrochemical reaction of electrolysis, a solid polymer electrolyte membrane capable of allowing cations to pass through can be used. Specifically, a cation exchange membrane can be used.

[0116] If a voltage is applied to the anode and cathode, ozone is generated by electrolyzing the raw water (H2O) on the anode side through an electrochemical reaction, as shown in the following formula. At the same time, some oxygen is also generated. The generated ozone instantly dissolves in the raw water on the anode side, which is then subjected to electrolysis, to become ozone water. The generated ozone water is then extracted from the third tube and used.

[0117] 2H₂O→O₂+4H + +4e - (Oxygen generation)

[0118] 3H₂O→O₃+6H + +6e - (Ozone formation)

[0119] H in the above formula + It moves through the electrolyte membrane to the cathode, as shown in the following formula, and is reduced to H2 on the cathode side.

[0120] 2H + +2e - →H2

[0121] The electrolysis unit 800 in this disclosure can use any known electrolysis unit, as long as it is an electrolysis unit that can be immersed in water to generate ozone water.

[0122] In this disclosure, "ozonated water" refers to water obtained by dissolving ozone. Even if components other than ozone are present in the water, it can still be called ozonated water as long as ozone is present. Generally, ozone dissolves only in trace amounts in water, therefore, ozonated water can also typically contain or have a relatively large amount of components other than ozone dissolved in the water. Furthermore, "ozonated water concentration" refers to the degree of ozone present in water or an aqueous solution, for example, a few mg of ozone present in 1 liter of water or an aqueous solution, expressed in mg / L or ppm.

[0123] (Battery)

[0124] A battery (not shown) may also be installed in container section B. The battery can be a rechargeable battery. A lithium-ion battery can be used as a rechargeable battery. The battery can be connected to a device that requires power via wires, such as a pump or control unit. The power supply to the battery is controlled by the control unit.

[0125] Battery charging, i.e., power supply to the battery, can also be performed from an external power source via the battery charging port. The battery charging port can also be located around the spray mode switch 610 (e.g., above or below the spray mode switch). The battery charging port can be a USB port. The USB port can be directly attached to the battery, or the battery and USB port can be connected via a cable.

[0126] 〔C. Pipe body〕

[0127] Tube body C refers to the first tube body, the second tube body, and the third tube body. The characteristics of the first tube body, the second tube body, and the third tube body are described above.

[0128] There are no particular restrictions on the material of the tube body; for example, it can be resin. The tube body material can be silicone rubber, fluororubber, natural rubber, nitrile rubber, neoprene rubber, Teflon, etc.

[0129] The diameter of the tube is not particularly limited; for example, it can be the diameter of a tube used in existing hand-spray type ozone water dispensing devices. The diameter of the tube can be between 1 mm and 10 mm, or between 3 mm and 7 mm. In one embodiment, the diameter of the tube can be 5 mm.

[0130] The tube body configuration retaining component of this disclosure will now be described in detail.

[0131] <Pipe body configuration retaining components>

[0132] FIG. 2 This describes the tube configuration holding member of this disclosure. The tube configuration holding member 100 of this disclosure is a member for holding the configuration of a tube. The tube configuration holding member 100 includes a plate portion 110 and a first guide portion 10, a second guide portion 20, and a third guide portion 30 for guiding the configuration of the tube on the surface of the plate portion 110. The tube configuration holding member 100 includes a first inlet / outlet 111 and a second inlet / outlet 113 for determining the position of the tube entering or exiting between the surface of the plate portion 110 and the surface outside the plate portion 110.

[0133] The first guide portion 10 includes a tube coil portion 12 and a first wall portion 11. The tube coil portion 12 and the first wall portion 11 form a rotation path for bending the tube in a rotary manner. The second guide portion 20 includes a second wall portion 21 having a curved surface for bending the tube along the curved surface. The third guide portion 30 includes a rod portion 31 for supporting the bent tube.

[0134] The first entrance / exit 111 and the second entrance / exit 113 are provided on the edge of the plate portion 110. The first entrance / exit 111 is defined by the rod portion 31 of the third guide portion 30 and the first protrusion 112 provided on the edge of the plate portion 110. The second entrance / exit 113 is defined by the second wall portion 21 of the second guide portion 20 and the second protrusion 114 provided on the edge of the plate portion 110.

[0135] By including the pipe body configuration retaining member 100 with the above features, the pipe body can be maintained in a configuration in which ozone water can be discharged from the pump device 200 without flowing into the ozone water (hereinafter also referred to as ozone water non-flow configuration). FIG. 2 This represents an example of implementing this configuration. FIG. 3A This is a schematic cross-sectional view showing the tube configuration holding member 100 of this disclosure mounted on the ozone water spraying device 1000.

[0136] FIG. 4A The ozone water spraying device 1000 shown has a head portion A and a container portion B. The container portion B houses raw water 700 and an electrolysis unit 800 for electrolyzing the raw water 700 to generate ozone water. The head portion A houses a pipe configuration holding member 100 and a pump device 200 of this disclosure.

[0137] The pipe body is provided in the pipe body configuration retaining member 100. Specifically, the pipe body configuration retaining member 100 is provided with: a first pipe body 910 for supplying raw water 700 to the pump device 200, a second pipe body 920 for discharging raw water 700 from the pump device 200 and supplying it to the electrolysis unit, and a third pipe body 930 for conveying ozone water generated by the electrolysis unit 800 to the discharge section 130.

[0138] The first tube 910, the second tube 920, and the third tube 930 are each guided by the first guide part 10, the second guide part 20, and the third guide part 30 of the free tube body configuration holding component to form an ozone water non-flow configuration. FIG. 5A , FIG. 3A as well as FIG. 4A This indicates that the first pipe body 910, the second pipe body 920, and the third pipe body 930 are each configured as non-inflow ozone water.

[0139] FIG. 2 This indicates that the first tube 910 is guided by the first guide part 10. One end (or upper end) of the first tube 910 is connected to the pump device 200, and the other end (or lower end) of the first tube 910 is immersed in the raw water 700. The first tube 910 is introduced into the tube configuration holding member 100 through the first inlet / outlet 111.

[0140] The first pipe 910 is bent into a rotating path formed by the pipe coil portion 12 and the first wall portion 11. The first pipe 910, bent through the rotating path, is connected to the pump device 200. The pump device 200 draws raw water 700 into the pump device 200 via the first pipe 910.

[0141] As the first tube 910 extends into the head portion A through the first inlet / outlet 111, it bends in a complete rotation within the head portion A via a turning path because the first inlet / outlet 111 is close to the pump device 200. This bending facilitates the connection between the first tube 910 and the pump device 200 even within a limited area of ​​the head portion A. Furthermore, the ease of connection between the first tube 910 and the pump device 200 is independent of the pump device 200's placement within the head portion A.

[0142] FIG. 5A This indicates that the second tube 920 is guided by the second guide section 20. One end (or upper end) of the second tube 920 is connected to the pump device 200, and the other end (or lower end) of the second tube 920 is immersed in the raw water 700. The second tube 920 is introduced into the container section B through the second inlet / outlet 113.

[0143] like FIG. 2 As shown, the other end (or lower end) of the second tube 920, immersed in the raw water 700, is connected to the electrolysis unit 800. The second tube 920, connected to the pump device 200, is bent along the curved surface of the second guide portion 20 and guided towards the container portion B. This guidance prevents the second tube 920 from interfering with the first tube 910 and the third tube 930 passing through the first inlet / outlet 111. As a result, the second tube 920 can be easily positioned on the plate portion 110.

[0144] When the second tube 920 bends along the second wall portion 21, the load on the second tube 920 caused by the bending can be reduced compared to when the second tube 920 is bent without using the second wall portion 21. When the second tube 920 is bent without using the second wall portion 21, the second tube 920 is prone to abrupt bending or buckling. The load caused by this bending or buckling tends to concentrate near the connection between the pump assembly 200 and the second tube 920. As a result, there is a concern that the second tube 920 may detach from the pump assembly 200. Furthermore, if the load continues, there is a concern that the second tube 920 may break.

[0145] On the other hand, when the second tube 920 is bent along the second wall portion 21, the bending of the second tube 920 can be made gentle because the second wall portion 21 has a curved surface with rounded corners. In addition, since the second tube 920 is bent along the second wall portion 21, the bent second tube 920 is supported by the second wall portion 21, thereby easily suppressing local loads on the second tube 920.

[0146] Raw water 700, obtained by pump device 200, is transported from pump device 200 to electrolysis unit 800 via second pipe 920. In electrolysis unit 800, raw water 700 is electrolyzed to generate ozone water.

[0147] FIG. 2 This indicates that the third tube 930 is guided by the third guide section 30. One end (or upper end) of the third tube 930 is connected to the discharge section 130, and the other end (or lower end) of the third tube 930 is immersed in the raw material water 700. FIG. 1A As shown, the other end (or lower end) of the third tube 930, which is immersed in the raw water 700, is connected to the electrolysis unit 800.

[0148] The third tube 930 is introduced into the tube configuration holding member 100 via the first inlet / outlet 111. When the third tube 930, which is connected to the electrolysis unit 800, is bent and connected to the discharge section 130, a portion of the bent portion of the third tube 930 is supported by the rod portion 31 of the third guide section 30.

[0149] The ozone water generated by the electrolysis unit 800 is conveyed to the discharge unit 130 via the third pipe 930. The ozone water conveyed to the discharge unit 130 is discharged to the outside as needed.

[0150] As explained above, only the raw water flows in and out of the pump device. In other words, it is known that ozone water does not flow into the pump device. Therefore, it is known that the pipe body configuration retaining component of this disclosure can achieve a structure that allows ozone water to be discharged without flowing into the pump device.

[0151] In addition, the pipe configuration holding component disclosed herein can maintain the pipe configuration in a new configuration that has never been seen before within a limited remaining space, thus enabling a structure that discharges ozone water without it flowing into the pump device.

[0152] Specifically, such as FIG. 1BAs shown, the structure that allows ozone water to be discharged without flowing into the pump device 200 is mainly achieved within the head portion A of the ozone water dispensing device 1000. Although the remaining space within the head portion A is further limited due to the pump device 200 being installed therein, the pipe configuration holding member 100 of this disclosure can guide the pipe to achieve the above-mentioned structure. In other words, the pipe configuration holding member 100 of this disclosure can guide the pipe to each of the pump device 200, the raw water 700, the electrolysis unit 800, and the discharge portion 130 within the limited remaining space (e.g., inside the head portion), and achieve the structure that allows ozone water to be discharged without flowing into the pump device 200.

[0153] The structure of the tube configuration holding member 100 according to one embodiment will be described in detail below.

[0154] [Board section]

[0155] The plate portion 110 has a flat plate shape. Elements for maintaining the arrangement of the tube body are provided on the plate portion 110. Specifically, a first guide portion 10, a second guide portion 20, and a third guide portion 30 are provided on the plate portion 110. When the tube body is arranged on the plate portion 110, the arrangement of the tube body on the plate portion 110 is guided by the aforementioned guide portions to maintain a predetermined arrangement.

[0156] The plate portion 110 has a first inlet / outlet 111 and a second inlet / outlet 113 that define the position of the tube body entering and exiting between the surface of the plate portion 110 and the surface outside the plate portion 110. For example... FIG. 1A and FIG. 1B As shown, the first entrance / exit 111 and the second entrance / exit 113 are located at the edge of the plate portion 110.

[0157] The plate portion 110 may also have areas and / or elements that contribute to the structure of the ozone water spraying device, in addition to the elements used to maintain the configuration of the pipe body. For example, such as FIG. 1A and FIG. 1B As shown, the plate portion 110 may also have a pump mounting area 120 for mounting the pump device 200. For example, as shown in FIG1, the plate portion 110 may also have a discharge portion 130 for discharging ozone water.

[0158] [First Entrance / Exit]

[0159] The first inlet / outlet 111 is the area that defines the position of the pipe body between the surface of the plate portion 110 and the surface outside the plate portion 110. The first inlet / outlet 111 allows passage for the first pipe body 910 guided by the first guide portion 10 and the third pipe body 930 guided by the third guide portion 30. Specifically, the first inlet / outlet 111 allows passage for the pipe body used to supply raw water 700 to the pump device 200 and the pipe body used to transport the generated ozone water to the discharge portion 130.

[0160] The first entrance / exit 111 is provided at the edge of the plate portion 110. Specifically, the first entrance / exit 111 is defined by the rod portion 31 of the third guide portion 30 and the first protrusion 112 provided at the edge of the plate portion 110. FIG. 1A and FIG. 1B As shown, the first entrance / exit 111 is the space between the rod portion 31 of the third guide portion 30 and the first protrusion 112.

[0161] (first convex part)

[0162] A first protrusion 112 is provided at the edge of the plate portion 110. Specifically, the first protrusion 112 is formed to stand upright from the edge of the plate portion 110. The first protrusion 112 may also be provided in the area where the pump device 200 is installed. FIG. 1A and FIG. 1B In the pump configuration area 120, a first protrusion 112 is provided. The first protrusion 112 is provided on the side opposite to the second wall portion 21 of the second guide portion, with reference to the rod portion 31 of the third guide portion.

[0163] The shape of the first protrusion 112 is not particularly limited as long as it can define the shape of the first inlet / outlet 111 together with the rod portion 31 of the third guide portion. For example, FIG. 1A and FIG. 1B As shown, the first protrusion 112 can be flat. Other shapes of the first protrusion 112 may include cylindrical, quadrangular prism, etc.

[0164] In one embodiment, the first protrusion 112 may be a flat plate that rises from the edge of the plate portion 110. In this embodiment, when the pump device 200 is arranged in the pump arrangement area 120, one side of the pump device 200 can be aligned with the surface of the flat first protrusion 112, thus facilitating the positioning of the pump device 200.

[0165] (Third wall section)

[0166] It may also include a third wall portion 140 disposed adjacent to the first wall portion 11 of the first guide portion. For example... FIG. 1A and FIG. 1B As shown, the third wall portion 140 is disposed between the first protrusion 112 and the first wall portion 11. The third wall portion 140 is configured to be perpendicular to the first protrusion 112.

[0167] The third wall portion 140 may also have a flat plate shape that is vertically arranged relative to the surface of the plate portion 110. In this case, when the pump device 200 is arranged in the pump arrangement area 120, one side of the pump device 200 can be arranged along the surface of the flat third wall portion 140, thus making it easier to position the pump device 200.

[0168] [Second Entrance / Exit]

[0169] The second inlet / outlet 113 is the area that defines the position of the pipe body entering and exiting between the surface of the plate portion 110 and the surface outside the plate portion 110. The second inlet / outlet 113 is for the pipe body guided by the second guide portion to pass through. Specifically, the second inlet / outlet 113 is for the pipe body used to discharge raw water from the pumping device to pass through.

[0170] The second entrance / exit 113 is provided at the edge of the plate portion 110. The second entrance / exit 113 is defined by the second wall portion 21 of the second guide portion and the second protrusion 114 provided at the edge of the plate portion 110. For example... FIG. 1A and FIG. 1B As shown, the second entrance / exit 113 is the space between the second wall portion 21 and the second protrusion 114 of the second guide portion.

[0171] (Second convex part)

[0172] A second protrusion 114 is provided at the edge of the plate portion 110. Specifically, the second protrusion 114 is formed to stand upright from the edge of the plate portion 110. The second protrusion 114 may also be provided in the area where the discharge portion 130 is provided. FIG. 1A and FIG. 1B In the middle, the second protrusion 114 is configured to extend continuously from the discharge portion 130.

[0173] The shape of the second protrusion 114 is not particularly limited as long as it can define the shape of the second entrance / exit 113 together with the second wall portion 21 of the second guide portion. For example, FIG. 1A and FIG. 1B As shown, the shape of the second protrusion 114 can be a flat plate. Other shapes of the second protrusion 114 can also be cylindrical, quadrangular prism, etc.

[0174] [First Guiding Section]

[0175] The first guide portion 10 guides the pipe body on the guide plate portion 110. Specifically, the first guide portion 10 guides the pipe body for supplying raw water 700 to the pump device 200. This pipe body is also referred to as the first pipe body. One end (or upper end) of the first pipe body 910 is guided by the first guide portion 10 to connect to the pump device 200. The other end (or lower end) of the first pipe body 910 is guided by the first guide portion to be immersed in the raw water.

[0176] like FIG. 1A and FIG. 1B As shown, the first guide portion 10 includes a first wall portion 11 and a tube body reel portion 12. The first wall portion 11 and the tube body reel portion 12 form a rotation path that causes the first tube body 910 to bend in a rotary manner. The guidance of the first tube body 910 is achieved by the first wall portion 11 and the tube body reel portion 12. Specifically, the rotation path is formed between the first wall portion 11 and the tube body reel portion 12.

[0177] A turning path refers to the path of a tube body used to bend the tube body in a specified direction. Through this turning path, the first tube body 910 is configured to surround the tube body reel portion 12 as the center. Since the first tube body 910 is configured to surround the tube body reel portion 12 when viewed in its configuration, it is called a "turning path".

[0178] (Tube body reel part)

[0179] The tube body reel portion 12 serves as the axis for rotating the first tube body 910. In the tube body configuration holding member 100 of this disclosure, the first tube body 910 is bent along the tube body reel portion 12. The shape of the tube body reel portion 12 is not particularly limited as long as it functions as an axis for rotating the tube body. FIG. 1A and FIG. 1B In the design, the tube roll portion 12 is depicted as cylindrical, but it can also be other shapes such as a quadrangular prism.

[0180] By adjusting the shape and thickness of the tube winding section 12, the rotation of the tube can be adjusted. In other words, the tube winding section 12 helps to adjust the arrangement of the first tube 910 on the plate.

[0181] Specifically, when the coiled portion of the tube is cylindrical, such as FIG. 1A and FIG. 1B As shown, the tube can rotate in a circular motion. When the tube's spool is a square prism, the tube can rotate by drawing a rounded corner (or angle). When the tube's spool is thickened, the tube can rotate slowly. When the tube's spool is thinned, the tube can rotate rapidly.

[0182] like FIG. 1A and FIG. 1BAs shown, the position of the tube roll portion 12 on the plate portion 110 is not particularly limited as long as it can be configured such that the tube can rotate on the plate portion 110. Specifically, it is preferable that the area of ​​the plate portion 110 extends around the tube roll portion 12 in the radial direction (or perpendicular to the circumferential direction and parallel to the surface direction) by at least the same length as the diameter of the tube (specifically, the outer diameter, specifically one tube). Considering the configuration of the first wall portion 11 described in detail below, it is more preferable that the area of ​​the plate portion around the tube roll portion 12 extends by an amount equal to 1.3 times the diameter of the tube, and even more preferably by an amount equal to 1.5 times the diameter of the tube. The tube roll portion 12 may also be provided at the center of the surface of the plate portion.

[0183] (First wall section)

[0184] The first wall portion 11, together with the tube body reel portion 12, forms a rotation path. The first tube body 910, bent along the rotation path, forms an inner bend on the side near the tube body reel portion 12 and an outer bend on the side near the first wall portion 11. When the bent first tube body 910 attempts to return to its unbent state, the first wall portion 11 supports the outer bend, thus maintaining the bent state of the first tube body 910. In other words, the first wall portion 11 helps maintain the configuration of the first tube body 910 on the plate portion 110.

[0185] When a turning path is formed between the first wall portion 11 and the tube body roll portion 12, the distance between the first wall portion 11 and the tube body roll portion 12 is at least a length greater than the diameter of the tube body.

[0186] The first wall portion 11 is provided around the tube body roll portion 12. For example... FIG. 1A and FIG. 2 As shown, the first wall portion 11 can be disposed around the tube body roll portion at a certain interval from it. The configuration of the first wall portion 11 can be based on the shape of the roll portion. For example, when the tube body roll portion 12 is cylindrical, the first wall portion 11 is configured in an arc shape.

[0187] The first wall portion 11 does not need to be provided around the entire periphery of the tube body roll portion 12, but can be provided around at least a portion of the periphery of the tube body roll portion 12. For example... FIG. 3A and FIG. 1A As shown, the first wall portion 11 can be divided into multiple parts, with two or more provided, or it can be continuously provided as a single wall. FIG. 1B and FIG. 1A In the manner shown, the first wall portion 11 is configured as a semi-circular arc shape that depicts a semi-circle.

[0188] exist FIG. 1B and FIG. 8In the illustrated configuration, when the first wall portion 11 is a curved surface, this curved surface is recessed relative to the first inlet / outlet 111 and the second inlet / outlet 113. Similarly, the curved surface of the first wall portion 11 is recessed relative to the tube body spool portion 12, the second guide portion, and the third guide portion. The first wall portion 11 is located near the edge of the plate portion on the side opposite to the edge of the plate portion on which the first inlet / outlet 111 and the second inlet / outlet 113 are provided.

[0189] [Second Guiding Department]

[0190] The second guide section 20 guides the pipe body on the plate section 110. Specifically, the second guide section 20 guides the pipe body for discharging raw water from the pump device 200. This pipe body is also referred to as the second pipe body. One end (or upper end) of the second pipe body 920 is guided by the second guide section 20 to connect to the pump device 200. The other end (or lower end) of the second pipe body 920 is guided by the second guide section 20 to be immersed in the raw water. Here, the other end (or lower end) of the second pipe body 920 can be connected to an ozone water production device, for example, it can be connected to an electrolysis unit.

[0191] like FIG. 2 and FIG. 8 As shown, the second guide portion 20 includes a second wall portion 21. The second guide portion 20 guides the second tube body 920 by means of the tube body reel portion 12, which is mainly accomplished by the second wall portion 21.

[0192] (Second wall section)

[0193] The second wall portion 21 is provided on the plate portion 110. For example... FIG. 2 and FIG. 9 As shown, the second wall portion 21 has a curved surface. By bending the second tube 920 along this curved surface, the second tube 920 is guided in the direction toward the second inlet / outlet 113, and the second tube 920 is guided from the plate portion 110 outward from the plate portion 110.

[0194] When the second wall portion 21 has a curved surface, one end of the curved surface is located at the edge of the plate portion 110, and the other end of the curved surface is located near the center of the plate portion 110. The curved surface of the second wall portion 21 is curved in a convex direction toward the second inlet / outlet 113. The curved surface of the second wall portion 21 is curved in a concave direction toward the pump configuration area 120 and the first inlet / outlet 111.

[0195] A portion of the second wall portion 21 of the second guide portion may also be provided in the tube body roll portion 12 of the first guide portion. FIG. 1C and FIG. 1A In the manner shown, a portion of the second wall portion 21, including its end, is disposed on the tube body roll portion 12.

[0196] The vertical height of the second wall portion 21 from the plate portion 110 can be higher than the vertical height of the first wall portion 11 and the tube body roll portion 12 from the plate portion 110. Specifically, it can be 1.5 times higher, preferably 1.7 times higher, and more preferably 2.0 times higher.

[0197] Alternatively, an opening may be provided in the second wall portion 21 for inserting a tube guided by the first guide portion into the second wall portion. FIG. 1B In the configuration shown, an opening 22 is provided on the side surface of the second wall portion 21. Furthermore, in ​ and ​ In this configuration, the first tube 910 is inserted through the opening 22 and connected to the pump device 200. By providing the opening 22 in the second wall portion 21, the first tube 910 is more easily connected to the pump device 200.

[0198] [Third Guidance Department]

[0199] The third guide section 30 guides the tube on the plate section 110. Specifically, the third guide section 30 guides the tube used to convey the generated ozone water to the discharge section 130. This tube is also referred to as the third tube. One end (or upper end) of the third tube 930 is guided by the third guide section 30 to connect to the discharge section 130. The other end (or lower end) of the third tube 930 is guided by the third guide section to be immersed in the raw material water. Here, the other end (or lower end) of the third tube 930 can be connected to an ozone water generating device, for example, it can be connected to an electrolysis unit.

[0200] like ​ and ​ As shown, the third guide section 30 includes a rod section 31. The rod section 31 is mainly responsible for guiding the third tube body 930.

[0201] (Stick Club)

[0202] The rod portion 31 is disposed on the plate portion 110. For example... ​ and ​ As shown, the rod portion 31 has a rod-shaped form. The rod portion 31 is disposed along the edge of the plate portion 110. The rod portion 31, together with the first protrusion, forms the first inlet / outlet.

[0203] The vertical height of the rod portion 31 from the plate portion 110 can be higher than the vertical height of the first wall portion 11 and the tube body roll portion 12 from the plate portion 110. Specifically, it can be 2.0 times higher, preferably 2.5 times higher, and more preferably 3.0 times higher. The vertical height of the rod portion 31 from the plate portion 110 can be higher than the vertical height of the second wall portion 21 from the plate portion 110. Specifically, it can be 1.1 times higher, preferably 1.3 times higher, and more preferably 1.5 times higher.

[0204] [Discharge section]

[0205] Alternatively, a discharge section 130 can be provided in the pipe body with a retaining component 100. Ozone water generated by the electrolysis unit 800 is discharged from the discharge section.

[0206] In addition to facilitating the discharge of ozone water, the discharge section 130 also helps to stably fix the pipe body configuration retaining component 100 inside the head section A. ​ Diagram ​ The condition of the ozone water spraying device 1000 as observed from the direction of arrow A. ​ In this configuration, the housing 1100 is composed of a pair of housing components 1150. For example... ​ and ​ As shown, the housing 1100 can be formed by assembling the housing component 1150 in such a way that the tube body configuration retaining member 100 is housed within the head portion A. When assembling the housing component 1150, the pair of housing components 1150 are combined in such a way that they clamp the discharge portion 130 of the tube body configuration retaining member 100. Through this clamping, the tube body configuration retaining member 100 can be stably fixed within the head portion A.

[0207] like ​ As shown, the discharge section 130 is thicker than the plate section 110. The vertical height of the discharge section 130 from the plate section 110 is higher than the first wall section 11 and the second wall section 21, and lower than the rod section 31.

[0208] An accessory section 131 may also be provided at the front end of the discharge section 130. For example... ​ and ​ As shown, the accessory part 131 is provided with threaded teeth, and an accessory (such as mist discharge, rod discharge, etc.) that can be replaced to adjust the ozone water discharge method.

[0209] The above description illustrates the tube configuration holding component and the ozone water spraying device equipped with the tube configuration holding component of this disclosure, but these are merely typical examples. Therefore, those skilled in the art will readily understand that the tube configuration holding component and the ozone water spraying device equipped with the tube configuration holding component of this disclosure are not limited thereto, and various other embodiments are possible.

[0210] The ozone water spraying device disclosed herein is as follows.

[0211] <Project 1> An ozone water spraying device, wherein,

[0212] It includes: a head section for spraying ozone water; a container section for containing raw water; and a pipe body connecting the interior of the head section and the interior of the container section.

[0213] The aforementioned head section is equipped with a discharge section, a pipe body with a retaining component, and a pump device.

[0214] The aforementioned container section includes a pipe guide, a discharge switch, a container body, an electrolysis unit, and a control unit.

[0215] <Project 2> Based on the ozone water spraying device described in Project 1, wherein,

[0216] The above-mentioned pipe bodies include:

[0217] The first pipe is used to supply the raw water to the pump device.

[0218] The second pipe is used to supply the raw material water from the aforementioned pumping device to the aforementioned electrolysis unit; and

[0219] The third pipe transports the ozone water generated by the electrolysis unit to the discharge section.

[0220] <Item 3> The ozone water spraying device described in Item 1 or 2, wherein,

[0221] The aforementioned tube guide is disposed between the aforementioned container portion and the aforementioned head portion, and guides the arrangement of the aforementioned tubes distributed between the aforementioned head portion and the aforementioned container portion.

[0222] <Project 4> Based on any one of Projects 1 to 3, the ozone water spraying device, wherein,

[0223] The head portion and the container portion are formed by combining a pair of shell components, and the discharge portion is held by the pair of shell components.

[0224] <Project 5> An ozone water spraying device according to any one of Projects 1 to 4, wherein,

[0225] The aforementioned discharge switch includes a switch, a switch holder, and a switch protective cover, wherein the switch holder is fixed to the aforementioned tube guide portion.

[0226] <Project 6> An ozone water spraying device according to any one of Projects 1 to 5, wherein,

[0227] The device includes a current control unit for controlling the current supplied to the electrolysis unit, and the current control unit includes a temperature sensor.

[0228] <Item 7> An ozone water spraying device according to any one of Items 1 to 6, wherein,

[0229] It features a spray mode switching switch to change the spray mode of ozone water.

[0230] The above-mentioned spraying modes include: a mode that sprays only ozone water; and a mode that sprays raw water followed by ozone water.

[0231] <Item 8> An ozone water spraying device according to any one of Items 1 to 7, wherein,

[0232] An LED substrate for displaying the operating status of the ozone water spraying device is provided at the bottom of the container body.

[0233] <Item 9> An ozone water spraying device according to any one of Items 1 to 8, wherein,

[0234] The aforementioned tube body configuration retaining component retains the tube body within the aforementioned head portion and includes:

[0235] Plate section;

[0236] The first guide section, the second guide section, and the third guide section guide the arrangement of the tube body on the surface of the aforementioned plate; and

[0237] The first and second inlets / outlets determine the positions where the pipe enters and exits between the surface of the aforementioned plate and the surface outside the aforementioned plate.

[0238] The aforementioned first guide portion includes a tube body roll portion and a first wall portion.

[0239] The aforementioned tube roll portion and the aforementioned first wall portion form a rotation path that allows the aforementioned tube to bend in a rotational manner.

[0240] The second guide portion includes a second wall portion having a curved surface and used to bend the tube body along the curved surface.

[0241] The aforementioned third guide portion includes a rod portion for supporting the bending of the aforementioned tube body.

[0242] The aforementioned first entrance and the aforementioned second entrance are located at the edge of the aforementioned panel.

[0243] The aforementioned first entrance / exit is defined by the aforementioned rod portion of the aforementioned third guide portion and the first protrusion provided on the edge portion of the aforementioned plate portion.

[0244] The aforementioned second entrance / exit is defined by the aforementioned second wall portion of the aforementioned second guide portion and the second protrusion provided on the edge portion of the aforementioned plate portion.

[0245] <Project 10> Based on the ozone water spraying device described in Project 9, wherein,

[0246] The first wall portion of the first guide portion is located on the edge of the plate portion, which is on the side opposite to the edge of the plate portion on which the first entrance and the second entrance are provided.

[0247] <Item 11> The ozone water spraying device described in Item 9 or 10, wherein,

[0248] The second wall portion of the second guide portion is provided with an opening for inserting the tube guided by the first guide portion into the second wall portion.

[0249] <Item 12> According to any one of Items 9 to 11, the ozone water spraying device, wherein,

[0250] A portion of the second wall portion of the second guide portion is disposed on the tube roll portion of the first guide portion.

[0251] <Item 13> An ozone water spraying device described in any one of items 9 to 11 of cited item 2, wherein,

[0252] The first tube is guided by the first guide and connected to the pump device, the second tube is guided by the second guide and connected to the electrolysis unit, and the third tube is guided by the third guide and connected to the discharge section.

[0253] <Item 14> An ozone water spraying device according to any one of Items 1 to 13, wherein a raised portion is provided at the bottom of the main body of the container.

Claims

1. An ozone water spraying device, characterized in that, include: The device comprises a head section for spraying ozone water, a container section for containing raw water, and a tube connecting the interior of the head section and the interior of the container section. The head portion is provided with a discharge section, a pipe body with a retaining component, and a pump device. The container section includes a tube guide, a discharge switch, a container body, an electrolysis unit, and a control unit.

2. The ozone water spraying device according to claim 1, characterized in that, The tube body includes: The first pipe is used to supply the raw water to the pump device; A second pipe body is used to supply the raw water from the pumping unit to the electrolysis unit; and The third tube conveys the ozone water generated by the electrolysis unit to the discharge section.

3. The ozone water spraying device according to claim 1, characterized in that, The tube guide is disposed between the container portion and the head portion, and guides the arrangement of the tubes distributed between the head portion and the container portion.

4. The ozone water spraying device according to claim 1, characterized in that, The head portion and the container portion are formed by combining a pair of shell components, and the discharge portion is held by the pair of shell components.

5. The ozone water spraying device according to claim 1, characterized in that, The discharge switch includes a switch, a switch holder, and a switch protective cover, wherein the switch holder is fixed to the guide portion of the tube body.

6. The ozone water spraying device according to claim 1, characterized in that, The device includes a current control unit for controlling the current supplied to the electrolysis unit, the current control unit including a temperature sensor.

7. The ozone water spraying device according to claim 1, characterized in that, It features a spray mode switching switch to change the spray mode of ozone water. The spraying modes include: a mode that sprays only ozone water; and a mode that sprays raw water followed by ozone water.

8. The ozone water spraying device according to claim 1, characterized in that, An LED substrate is provided at the bottom of the container body to display the operating status of the ozone water spraying device.

9. The ozone water spraying device according to claim 2, characterized in that, The tube body configuration retaining component retains the tube body within the head portion and includes: Plate section; The first guide section, the second guide section, and the third guide section guide the arrangement of the tube body on the surface of the plate section; and The first and second inlets / outlets determine the position of the pipe body entering and exiting between the surface of the plate and the outer surface of the plate. The first guide portion includes a tube body roll portion and a first wall portion. The tube's coiled portion and the first wall portion form a rotational path that allows the tube to bend in a rotating manner. The second guide portion includes a second wall portion having a curved surface and for bending the tube body along the curved surface. The third guide portion includes a rod portion for supporting the bending of the tube body. The first entrance / exit and the second entrance / exit are located at the edge of the plate. The first inlet / outlet is defined by the rod portion of the third guide portion and the first protrusion provided on the edge portion of the plate portion. The second entrance / exit is defined by the second wall portion of the second guide portion and the second protrusion provided on the edge portion of the plate portion.

10. The ozone water spraying device according to claim 9, characterized in that, The first wall portion of the first guide portion is located on the edge of the plate portion, which is on the side opposite to the edge of the plate portion on which the first entrance and the second entrance are provided.

11. The ozone water spraying device according to claim 9, characterized in that, An opening is provided in the second wall portion of the second guide portion for inserting the tube guided by the first guide portion into the second wall portion.

12. The ozone water spraying device according to claim 9, characterized in that, A portion of the second wall portion of the second guide portion is disposed on the tube roll portion of the first guide portion.

13. The ozone water spraying device according to claim 9, characterized in that, The first pipe is guided by the first guide portion and connected to the pump device. The second tube is guided by the second guide portion and connected to the electrolysis unit. The third tube is guided by the third guide portion and connected to the discharge portion.

14. The ozone water spraying device according to claim 1, characterized in that, A raised portion is provided at the bottom of the container body.

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