KR20200122470A - Apparatus for Hydrogen Water Spray with Function of Massage and Near Infrared Ray Irradiation - Google Patents

Abstract

The present invention relates to a near-infrared massage apparatus with a hydrogen water moisturization function, which comprises: an electrolysis module electrolyzing water stored in a water tank to generate hydrogen water; a mist spray unit changing the hydrogen water into a mist type to spray mist; a vibration processing unit vibrating a massage protrusion; and an optical processing unit generating near-infrared rays for skincare to emit the near-infrared rays. More specifically, a spray hole through which the mist is sprayed, the massage protrusion, and the position from which the near-infrared rays are emitted are closely arranged. Accordingly, physical massage, skincare using the near-infrared rays, and a skincare function using hydrogen water mist are integrated and collectively provided, thereby enabling a user to use various functions economically and realizing efficient skincare.

Description

Apparatus for Hydrogen Water Spray with Function of Massage and Near Infrared Ray Irradiation}

The present invention relates to a hydrogen water moisturizing near-infrared massage device, and more particularly, a portable massage device that provides a combination of hydrogen water mist spray, near-infrared irradiation, and massage functions so that the user's skin can be managed more conveniently and effectively. It is about.

Various skin care devices are being developed as various research results have appeared in relation to human skin care.

For example, a device that massages the skin, a device that allows skin care by irradiating light in a specific wavelength band, etc., have been developed and used, and the'portable beauty hydrogen sterilization water mist device' of Patent No. 10-1747913 is in the form of a mist. Disclosed is an apparatus for providing sterilized water of.

However, conventional various skin care functions are not provided in an integrated manner, but are provided individually.

In particular, it is difficult to find a device that integrates other skin care functions with respect to hydrogen water, which can greatly help skin care.

Accordingly, a user who wants to use all of the various skin care functions has to separately purchase a device providing each function, which is economically burdensome and inconvenient.

In addition, various functions that are helpful for skin care may have a greater effect when applied collectively than when applied individually.

However, when a user separately purchases various skin care devices and uses them separately, it is difficult to apply various beneficial functions in an integrated manner, and skin care cannot be performed properly and efficiently.

Accordingly, the present invention was conceived to solve the above problems, and a hydrogen water moisturizing near-infrared massage device that allows integrated use of massage, light, hydrogen water, etc., which can be efficiently used for skin care, through a single portable device Its purpose is to provide.

In order to achieve the above object, the hydrogen water moisturizing near-infrared massage device according to the present invention includes: a container portion having a water tank therein; An electrolysis module generating hydrogen water by electrolyzing water stored in the water tank; A mist spray unit for spraying the hydrogen water generated through the electrolysis module into a mist form and spraying the hydrogen water through a spray hole; A vibration processing unit that vibrates the massage protrusion; A light processing unit that generates and irradiates near infrared rays for skin care; And a power supply for supplying power. At this time, the injection port through which the mist is sprayed, the massage protrusion, and the position to which the near-infrared rays are irradiated are disposed adjacent to each other.

The container portion may include a body portion having an inlet communicating with the water tank at an upper end thereof, a handle portion extending to a lower side of the body portion so that a user can hold it by hand, and a lid portion opening and closing the inlet.

In this case, a spray hole through which the mist is sprayed may be disposed in a front center of the body portion, and a reflector through which the near-infrared ray is output and the massage protrusion may be disposed along the circumference of the spray hole.

The electrolysis module includes: a first electrode to which a cathode (-) is applied; A second electrode to which an anode (+) is applied; A moisture retaining member disposed in close contact with the first electrode between the first electrode and the second electrode to retain moisture; And an ion exchange membrane provided between the moisture holding member and the second electrode to selectively pass positive ions.

A hydrogen gas outlet may be formed on the lid.

In this case, a blocking film for discharging hydrogen gas may be provided at a lower end of the hydrogen gas outlet according to the pressure of the hydrogen gas collected in the water tank.

The blocking film may be configured in a semicircular shape convex downward, and the center thereof may be cut into a predetermined shape.

The blocking film is made of a rubber material, and the cut portion may be cut in a'+' shape.

The hydrogen water moisturizing near-infrared massage device according to the present invention may provide a combination of physical massage, skin care using near infrared rays, and skin care functions using hydrogen water mist.

Accordingly, a user can more conveniently and economically use various functions that are helpful for skin care.

In addition, it is possible to more efficiently manage the skin since it is possible to easily and integratively apply various factors that help skin care to one's own skin.

1 is a block diagram of an embodiment of a hydrogen water moisturizing near-infrared massage device according to the present invention,
Figure 2 is an example of a specific front shape of the hydrogen water moisturizing near-infrared massage device according to the present invention,
3 is an example of a specific rear shape of the hydrogen water moisturizing near-infrared massage device shown in FIG. 2,
4 is an example of a longitudinal section of the lower end of the water tank in which the electrolysis module is disposed,
5 is an example of a cross-section of a portion in which a mist injection port is disposed,
6 is an example showing an exploded perspective view,
7 is a specific example of the lid portion and the blocking film.

Since the present invention can apply various transformations and have various embodiments, specific embodiments will be illustrated in the drawings and described in detail in the detailed description. However, this is not intended to limit the present invention to a specific embodiment, it is to be understood to include all conversions, equivalents, and substitutes included in the spirit and scope of the present invention.

In describing the present invention, when it is determined that a detailed description of a related known technology may obscure the subject matter of the present invention, a detailed description thereof will be omitted.

The terms used in the present application are only used to describe specific embodiments, and are not intended to limit the present invention. Singular expressions include plural expressions unless the context clearly indicates otherwise.

In the present application, terms such as "comprise" or "have" are intended to designate the presence of features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, but one or more other features. It is to be understood that the presence or addition of elements or numbers, steps, actions, components, parts, or combinations thereof, does not preclude in advance.

Terms such as first and second may be used to describe various components, but the components should not be limited by the terms. These terms are used only for the purpose of distinguishing one component from another component.

1 is a block diagram of an embodiment of a hydrogen water moisturizing near-infrared massage device 100 according to the present invention, in which a water tank 111 is formed in a container 110, and water stored in the water tank 111 is electrolyzed. The electrolysis module 120 to generate hydrogen water, a mist injection unit 130 for spraying the generated hydrogen water through a spray hole in a mist form, a vibration processing unit 140 for vibrating the massage protrusion, and a light processing unit for irradiating near-infrared rays It comprises 150, and a power supply unit 160.

In particular, the injection port through which the mist is injected, the massage protrusion, and the position to which the near-infrared rays are irradiated are all disposed adjacent to each other.

Accordingly, a skin care effect due to hydrogen water mist, a skin care effect due to a physical massage, and a skin care effect due to near-infrared irradiation are integrated, thereby exhibiting a further enhanced skin care effect.

The container unit 110 constitutes the exterior of the hydrogen water moisturizing near-infrared massage device 100, is a case for accommodating each component, is portable, and can be configured in various sizes and shapes.

2 and 3 are examples of a specific appearance of the hydrogen water moisturizing near-infrared massage device 100, and FIG. 2 shows a view from the front, and FIG. 3 shows a view from the rear.

The container part 110 is a body part 113 having an entrance communicating with the water tank 111 at its upper end so as to contain water, and a handle part that extends to the lower side of the body part 113 so that the user can hold it by hand. (114), and a lid portion 115 for opening and closing the inlet may be formed.

Although an example in which the body part 113 is formed in a circular shape is shown, the body part 113 may be configured in various shapes such as an oval, polygonal, or quadrangle, and a spray hole 131 through which mist is sprayed on the front of the body part 113, The massage protrusion 141 and the position 151 to which near-infrared rays are irradiated may be disposed adjacent to each other.

As a specific example, a spray hole 131 through which mist is sprayed is disposed in the front center of the body part 113, and a reflector 151 and a massage protrusion 141 through which near-infrared rays are output are disposed along the circumference of the spray hole 131. I can.

2 shows an example in which the reflector 151 is disposed so that the near-infrared rays are irradiated from the upper and lower sides of the injection port 131, and the massage protrusion 141 is provided on the left and right sides of the injection port 131, but near-infrared rays are applied to the injection port 131 ), and the massage protrusion 141 may be disposed on the upper and lower sides of the injection port 131.

The handle portion 114 is basically configured in a form extending by a predetermined length to the lower side of the body portion 113 so that the user can hold it by hand, and may be variously configured for convenient use.

2 and 3, a power switch 161 for turning on/off the power of the hydrogen water moisturizing near-infrared massage device 100 may be disposed on the front of the handle portion 114 In addition, an oxygen gas outlet 125-1 for discharging the oxygen gas generated during the hydrogen water generation process may be provided on the side of the handle part 114. In addition, a USB charging terminal 162 for charging a battery may be provided on the rear of the handle portion 114.

The fastening structure of the lid 115 and the body 113 may be variously configured, and after opening the lid 115 and putting water into the water tank 111 formed inside the body 113, When the power switch 161 is operated and operated, the electrolysis module 120 electrolyzes water stored in the water tank 111 and converts it into hydrogen water.

The electrolysis module 120 may be configured in various ways in order to efficiently generate hydrogen water.

As a specific example, the electrolysis module 120 is provided between the first electrode 121, the second electrode 122, the first electrode 121 and the second electrode 122 to selectively pass ions It may include an exchange membrane 124 and a moisture retaining member 123 that is disposed in close contact between the ion exchange membrane 124 and the first electrode 121 to maintain sufficient moisture.

The first electrode 121 is connected to the negative electrode ('-') of the power supply unit 160, and the second electrode 122 is connected to the positive electrode ('+') of the power supply unit 160.

The first electrode 121 and the second electrode 122 may be made of various materials, and there are holes through which moisture can pass.

The ion exchange membrane 124 is made of a material capable of selectively permeating only cations, and a plurality of ion exchange membranes may be disposed to overlap each other.

When water is contained in the water tank 111, moisture may pass through the first electrode 121 and be supplied to the ion exchange membrane 124. The moisture holding member 123 disposed in contact with the ion exchange membrane 124 may be made of a porous material so as to contain sufficient moisture, and the ion exchange membrane 124 is in a damp state even when there is no water in the water tank 111 Can keep.

The moisture holding member 123 prevents problems such as shrinkage of the ion exchange membrane 124 due to evaporation of moisture, a decrease in the hydrogen generation rate due to a decrease in the electrolytic efficiency of the ion exchange membrane 124, and leakage due to instability in the stacked fastening state. Allows you to

When power is supplied to the first electrode 121 and the second electrode 122 while water is stored in the water tank 111, the second electrode 122 generates hydrogen ions (H ⁺ ) and oxygen (O) due to oxidation reaction. ₂₎ occurs, and the first electrode in the hydrogen (H ₂₎ and hydroxide ions (OH ^- occurs).

Hydrogen ions (H ⁺ ) generated in the second electrode 122 move to the first electrode 121 through the ion exchange membrane 124 that allows only positive ions to permeate, and the hydrogen ions (H ⁺ ) that have moved to the first electrode 121 ⁺⁾ is a hydroxyl ion (OH generated in the first electrode ⁽¹²¹⁾ is the water reacts with)

In addition, hydrogen (H ₂ ) generated by the first electrode 121 is dissolved in water accommodated in the water tank 111 or collected in the upper portion of the water tank 111 in the state of hydrogen gas.

Then, the hydrogen gas collected in the upper portion of the water tank 111 is discharged to the outside through the hydrogen gas outlet 115-1 formed in the lid portion 115.

An ion exchange membrane 124, and generates a high, the amount of generation of hydrogen (H ₂₎ which is caused by electrolysis, for a short time a large amount of hydrogen (H _2).

When the amount of hydrogen generated through the ion exchange membrane 124 increases, the amount of hydrogen dissolved in water increases, thereby increasing the hydrogen concentration of the hydrogen water. The hydroxide ions (OH ^-) in the water, the amount of the possible to increase with, but the second electrode 122, the hydrogen ions (H ⁺⁾ dissolved in the water of the tank 111 by passing through the ion exchange membrane 124 is generated in the as the hydroxide ion (OH ^-) reacts with water to produce. Accordingly, while increasing the concentration of hydrogen contained in water, it is possible to prevent the water from becoming alkaline.

Referring to FIG. 4, the electrolysis module 120 may be disposed under the water tank 111, and a pressure protrusion 126 that presses the second electrode 122 upwardly under the second electrode 122 One or more can be formed.

The pressing protrusion 126 prevents a phenomenon in which the center of the electrolysis module 120 is opened, thereby preventing the electrolysis efficiency from being lowered.

Referring to FIG. 5, the mist injection unit 130 makes the hydrogen water generated through the electrolysis module 120 into a mist form and sprays it through the injection hole 131, and the injection hole 131 is a part of the water tank 111. It can be configured to communicate with the side.

The mist injection unit 130 may spray hydrogen water in a mist form using various techniques known in the art.

As a specific example, the mist injection unit 130 may be configured to make hydrogen water into a mist form using the ultrasonic vibrator 133 and spray through the injection port 131 as in the example shown in FIG. 6.

That is, by arranging and driving the hollow cylindrical ultrasonic vibrator 133 in the hydrogen water passage part where the mist injection port 131 and the water tank 111 communicate, the hydrogen water supplied from the water tank 111 to the passage is in a mist form. It can be made and sprayed through the spray hole 131.

Oxygen (O ₂ ) generated by the second electrode 122 may be discharged to the outside through the oxygen gas outlet 125-1.

Referring to FIG. 6, a discharge passage 171 for guiding oxygen (O ₂ ) generated from the second electrode 122 to the oxygen gas outlet 125-1 may be provided under the electrolysis module 120. have. 2 and 6 illustrate an example in which the oxygen gas outlet 125-1 is formed on the upper side of the handle portion 114, the oxygen gas outlet 125-1 may be disposed in various positions as necessary.

The vibration processing unit 140 vibrates the massage protrusion 141 to provide a physical stimulation to the user's skin.

Referring to FIG. 6, a massage protrusion 141 protrudes around the injection hole 131 on the front surface of the body part 113. Each motor 143 is provided inside the massage protrusion 141, and an eccentric cam 145 is mounted on the rotating shaft of each motor 143, so that the cam 145 massages as the motor 143 rotates. The protrusion 141 is vibrated.

The light processing unit 150 irradiates near infrared rays for skin care.

In the example shown in FIG. 6, the reflector 151 is disposed around the injection hole 131 on the front surface of the body part 113. The reflector 151 may be configured in various ways, and serves to reflect the near-infrared ray emitted from the near-infrared LED 153 so as to be irradiated toward the front surface of the body 113.

Near-infrared rays refer to light in a region of 0.75 to 3 μm in wavelength, which is harmless to the human body and can effectively treat diseased areas over a large area.

In particular, it is known that near-infrared rays penetrate light into the dermal layer to restore damaged collagen as well as normal cells to regenerate skin, thereby improving wrinkles and inactivating enzymes that cause skin damage.

The number, arrangement, and structure of the massage protrusion 141, the near-infrared LED 153, and the reflector 151 may be variously configured as necessary.

The power supply unit 160 supplies electric energy to each element requiring electric energy, such as the electrolysis module 120, the near-infrared LED 153, and the motor 143.

The power supply unit 160 may rectify and use commercial AC power, may use the battery 165, and may be configured in various ways, such as charging and using the battery 165. Regarding the rechargeable power supply, FIG. 3 shows an example in which the USB charging terminal 162 is provided on the rear surface of the handle part 114.

On the other hand, hydrogen (H ₂ ) generated by the first electrode 121 is dissolved in water contained in the water tank 111 or collected in the upper portion of the water tank 111 in the state of hydrogen gas. The collected hydrogen gas is discharged to the outside.

Referring to FIG. 7, the inlet of the water tank 111 is opened and closed through the lid 115, and the fastening structure between the lid 115 and the body 113 may be variously configured.

A hydrogen gas outlet 115-1 for discharging hydrogen gas generated as a result of electrolysis is formed in the lid 115, and at the lower end of the hydrogen gas outlet 115-1, the water tank 111 is accumulated. A blocking film 115-3 for discharging hydrogen gas is provided according to the pressure of the hydrogen gas.

The blocking film 115-3 may have a semicircular shape convex downward (convex shape in a direction opposite to the gas discharge direction), and a central portion thereof is cut into a predetermined shape.

The blocking film 115-3 may be made of a variety of materials, but is preferably made of a material having a certain elasticity and resilience. As a specific example, the blocking film 115-3 may be formed of a rubber material.

The cut portion is for controlling the discharge of hydrogen gas, and plays a role of allowing hydrogen gas to be discharged through the cut portion when the pressure of the hydrogen gas exceeds a certain level. The incision may be cut in various shapes, and as an example, it may be cut in a'+' shape.

When the blocking film 115-3 is formed in a convex semicircle shape and the central portion thereof is cut into a predetermined shape, the discomfort of the user can be eliminated by preventing water from being discharged together when hydrogen gas is discharged.

That is, if the blocking film 115-3 is convex or flat, the water droplets formed on the lower surface of the blocking film 115-3 are discharged together when hydrogen gas is discharged, so that the user is drained through the hydrogen gas outlet 115-1. Is discharged, causing discomfort.

However, if the blocking film 115-3 is configured to be convex downward, when the hydrogen gas is discharged, the convex portion is slightly folded upward due to the hydrogen gas pressure, and the hydrogen gas escapes, and in this process, it is collected on the lower surface of the convex blocking film. Any water that was present falls in the direction of the tank. In addition, after the hydrogen gas is discharged, the blocking film 115-3 returns to a convex downward shape and again shakes off the water in the direction of the water tank, so that the water does not escape through the hydrogen gas outlet 115-1.

In the above, the present invention has been illustrated and described in relation to specific preferred embodiments, but the present invention may be variously modified and changed within the scope of not departing from the technical features or field of the present invention provided by the following claims. It is obvious to one of ordinary skill in the art that it can be.

100: hydrogen water moisturizing near-infrared massage device
110: container part 111: water tank
113: body portion 114: handle portion
115: lid portion 115-1: hydrogen gas outlet
115-3: barrier 120: electrolysis module
121: first electrode 122: second electrode
123: moisture holding member 124: ion exchange membrane
125-1: oxygen gas outlet 126: pressure protrusion
130: mist injection unit 131: injection port
140: vibration processing unit 141: massage projection
143: motor 145: eccentric cam
150: light processing unit 151: reflector
153: near infrared LED 160: power supply
161: power switch 162: USB charging terminal

Claims (6)

A container portion having a water tank formed therein;
An electrolysis module generating hydrogen water by electrolyzing water stored in the water tank;
A mist spray unit for spraying the hydrogen water generated through the electrolysis module into a mist form and spraying the hydrogen water through a spray hole;
A vibration processing unit that vibrates the massage protrusion;
A light processing unit that irradiates near infrared rays; And
Including a power supply for supplying power,
A hydrogen water moisturizing near-infrared massage device, characterized in that the injection port through which the mist is sprayed, the massage protrusion, and the position to which the near-infrared rays are irradiated are disposed adjacent to each other. The method of claim 1,
The container portion includes a body portion having an inlet communicating with the water tank at an upper end, a handle portion extending to the lower side of the body portion so that the user can hold it by hand, and a lid portion opening and closing the inlet,
A jet port through which the mist is sprayed is disposed in the center of the front surface of the body,
Hydrogen water moisturizing near-infrared massage device, characterized in that the reflector and the massage protrusion are disposed along the circumference of the injection port. The method of claim 2,
A power switch is provided on the front of the handle,
An oxygen gas outlet for discharging oxygen gas generated in the process of generating hydrogen water is provided on the side of the handle,
Hydrogen water moisturizing near-infrared massage device, characterized in that the USB charging terminal is provided on the rear of the handle. The method of claim 1,
The electrolysis module,
A first electrode to which a cathode (-) is applied;
A second electrode to which an anode (+) is applied;
A moisture retaining member disposed in close contact with the first electrode between the first electrode and the second electrode to retain moisture; And
Hydrogen water moisturizing near-infrared massage device comprising an ion exchange membrane provided between the moisture holding member and the second electrode to selectively pass positive ions. The method of claim 1,
A hydrogen gas outlet is formed in the lid,
A blocking film for discharging hydrogen gas according to the pressure of the hydrogen gas collected in the water tank is provided at the lower end of the hydrogen gas outlet,
The blocking film has a semicircular shape convex downward, and the central portion thereof is cut in a predetermined shape. The method of claim 5,
The blocking film is made of a rubber material,
Hydrogen water moisturizing near-infrared massage device, characterized in that the cut portion is cut in a'+' shape.

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