Carbonated Mixing Device

Abstract

To provide a carbonic acid mixing device capable of easily producing liquid in which carbonic acid is mixed, and capable of easily using the produced liquid.SOLUTION: There is provided a carbonic acid mixing device comprising: a carbonic acid solution container 2 for storing liquid. The carbonic acid solution container 2 comprises: an injection part 11 for injecting a carbonic acid gas into the carbonic acid solution container 2; and a discharge part 12 for discharging the liquid in which the carbonic acid is mixed from the carbonic acid solution container 2. An injection passage provided on the injection part 11 is configured to be opened / closed, according to a pressure from an external part, and the discharge part 12 has; an opening / closing valve 13 for communicating an internal space of the carbonic acid solution container 2 with an external part, according to an operation from an external part.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The present invention relates to a device for carbonating a liquid. [Background technology]

[0002] In recent years, the beauty and health-promoting effects of carbonated water have been attracting attention. According to several research reports, when water with dissolved carbon dioxide gas comes into contact with human skin or mucous membranes, the carbon dioxide is absorbed into the blood vessels, creating a blood condition similar to that experienced immediately after exercise. This causes capillaries to expand, promoting the excretion of waste products from the blood vessels, and the increased blood flow also raises body temperature. Furthermore, because carbonated water is acidic, applying it to hair can neutralize alkaline chemicals used in permanents and hair coloring, tightening the hair cuticle and improving stiffness.

[0003] Therefore, various technologies have been proposed and put into practical use in order to utilize the effects of carbonated water in the field of beauty. In particular, recently, products that supply carbon dioxide gas mixed with hair detergent have been sold and are provided in beauty salons and other places as well as used in ordinary homes (for example, see Non-Patent Document 1 below). [Prior art documents] [Non-patent literature]

[0004] [Non-Patent Document 1] Milbon "Plamia Clear Spa Foam", [online], product information, [searched March 19, 2021], Internet<URL:https: / / salon.milbon.co.jp / shop / g / g611180 / > Summary of the Invention [Problem to be solved by the invention]

[0005] However, the types of products sold under names such as carbonated shampoo are limited, and it is not possible for a user to switch from their favorite brand of shampoo to a carbonated product of the same brand. Of course, it is possible for a user to make a product equivalent to carbonated shampoo by dissolving shampoo in carbonated drinking water purchased separately, or by mixing shampoo with baking soda and citric acid to generate carbon dioxide, but this requires extra time and effort, such as purchasing carbonated water and mixing the shampoo.

[0006] SUMMARY OF THE INVENTION In view of the above circumstances, the present invention aims to provide a carbon dioxide mixing device that can easily produce a carbonated liquid and use it in a simple manner. [Means for solving the problem]

[0007] The present invention is directed to a method for storing a liquid. The main body is positioned so that Carbonated liquid container and a carbonation injector corresponding to the carbonated liquid container. Equipped with The carbonated liquid container can inject carbon dioxide gas into the carbonated liquid container. The device is detachably disposed at one end of the main body. an injection part and a device for discharging the liquid mixed with carbon dioxide from the carbonated liquid container; The other end of the main body is a discharge portion, The carbon dioxide injector includes a cylinder storage container for storing a carbon dioxide cylinder, and an injection operation unit that projects laterally from above the cylinder storage container and has an injection nozzle disposed therein, When injecting liquid and carbon dioxide gas into the carbonated liquid container, the injection part is removed from the main body of the carbonated liquid container, and liquid is poured into the main body from an opening on one end side. After attaching the injection part to the main body, the injection port of the injection operation part is connected to the injection part of the carbonated liquid container, and carbon dioxide gas can be injected into the injection part of the carbonated liquid container from the carbon dioxide cylinder by the pressure of the carbon dioxide gas sealed in the carbon dioxide cylinder. It is configured as follows: When discharging carbonated liquid from the carbonated liquid container, the carbonated liquid container is removed from the carbonation injector, and then the discharge part is turned upward to discharge the carbonated liquid from the discharge part. , The liquid and carbon dioxide gas are supplied to the carbonated liquid container from one end of the main body, and the carbonated liquid is discharged from the other end of the main body. The present invention relates to a carbon dioxide mixing device characterized by the above.

[0008] In the carbonated liquid mixing device of the present invention, the injection passage provided in the injection section is configured to open and close in response to external pressure, and the discharge section can be equipped with an opening / closing valve that connects the internal space of the carbonated liquid container to the outside in response to external operation.

[0009] In the carbonated liquid mixing device of the present invention, the liquid contained in the carbonated liquid container may be a detergent or a cosmetic.

[0010] The carbonated liquid mixing device of the present invention includes a container holder capable of holding the carbonated liquid container with the discharge portion facing downward, When the carbonated liquid container is held in the container holder, the other end of the carbonated liquid container can be inserted into the opening of the container holder, and the injection portion at one end of the carbonated liquid container can be exposed facing upward.

[0011] In the carbon dioxide mixing device of the present invention, The carbon dioxide injector can be configured so that the injection operation part can be moved up and down, and so that when the injection operation part is pressed down, a carbon dioxide supply path to the carbon dioxide cylinder is opened and carbon dioxide is injected from the injection port. [Effects of the Invention]

[0012] The carbonated mixture device of the present invention has the excellent effect of easily producing a carbonated liquid and easily utilizing the liquid. [Brief explanation of the drawings]

[0013] [Figure 1] 1 is a perspective view schematically showing an example of a configuration of a carbon dioxide mixing device according to an embodiment of the present invention. [Figure 2] FIG. 2 is a side view showing the carbon dioxide mixing device of FIG. 1 in use. [Figure 3] FIG. 2 is an exploded perspective view showing an example of the configuration of a carbonated liquid container that constitutes the carbonated liquid mixing device. [Figure 4] 1 is a cross-sectional view showing an example of the structure of a discharge portion of a carbonated liquid container, with the left side showing a closed state and the right side showing an open state, with the center as the dividing line. DETAILED DESCRIPTION OF THE INVENTION

[0014] Hereinafter, an embodiment of the present invention will be described with reference to the accompanying drawings.

[0015] 1 and 2 show an example of the configuration of a carbon dioxide mixing device according to the present invention. The carbon dioxide mixing device of this embodiment comprises a carbon dioxide injector 1 and a carbonated liquid container 2, and is configured so that carbon dioxide gas is injected by the carbon dioxide injector 1 into the carbonated liquid container 2, which contains a liquid therein. A carbon dioxide cylinder 3 containing carbon dioxide gas is used as the carbon dioxide gas supply source, and the carbon dioxide gas is injected into the carbonated liquid container 2 by the pressure of the carbon dioxide gas sealed in the carbon dioxide cylinder 3.

[0016] The carbon dioxide injector 1 comprises a cylinder housing section 4 for housing a carbon dioxide cylinder 3, and an injection operation section 5 to which a carbonated liquid container 2 is attached and which performs an operation of injecting carbon dioxide gas into the carbonated liquid container 2.

[0017] The cylinder storage section 4 is a vertically long, approximately cylindrical housing with an internal space for storing the carbon dioxide cylinder 3. A cylinder mounting section 6 for fixing the carbon dioxide cylinder 3 is provided at the top of the internal space. The cylinder mounting section 6 is designed to hold the carbon dioxide cylinder 3 in a suspended state by screwing the opening of the carbon dioxide cylinder 3 into it from below.

[0018] The injection operation unit 5 protrudes from the upper end of the cylinder storage unit 4 in a direction intersecting the axial direction of the carbon dioxide cylinder 3 stored in the cylinder storage unit 4. The base of the injection operation unit 5 is rotatably attached to the upper end of the cylinder storage unit 4, so that the injection operation unit 5 moves up and down relative to the cylinder storage unit 4. That is, the rotation axis of the injection operation unit 5 relative to the cylinder storage unit 4 is set to a direction perpendicular to the axis of the carbon dioxide cylinder 3 stored in the cylinder storage unit 4 and the extension direction of the injection operation unit 5 itself. This allows the injection operation unit 5 to rotate up and down between a position indicated by a dashed line in FIG. 2 (referred to as the closed position) and a position pushed downward as indicated by a solid line (referred to as the open position). An operating mechanism using an elastic body (not shown) is provided at the connection between the injection operation unit 5 and the cylinder storage unit 4, and this operating mechanism normally biases the injection operation unit 5 to the closed position.

[0019] An injection port 7 for injecting carbon dioxide gas is provided at the tip of the injection operation part 5 so as to protrude slightly from the underside. A carbon dioxide supply path 8 is provided inside the cylinder storage part 4, extending from the upper end of the cylinder storage part 4 to the injection operation part 5, and leading from the cylinder attachment part 6 to the injection port 7 (see the dashed line in Figure 2), so that the carbon dioxide gas in the carbon dioxide cylinder 3 is guided to the injection port 7 through the carbon dioxide supply path 8.

[0020] Further, an opening / closing mechanism equipped with an opening / closing valve (not shown) is provided in the carbon dioxide supply path 8, and the operation of the opening / closing mechanism is linked to the position of the above-mentioned injection operation unit 5. When the injection operation unit 5 is in the closed position, the carbon dioxide supply path 8 is closed by the opening / closing valve, but when the injection operation unit 5 is pressed to the open position against the biasing force of the operating mechanism, the opening / closing valve opens, the carbon dioxide supply path 8 is opened, and carbon dioxide gas is sprayed from the nozzle 7. When the injection operation unit 5 is no longer pressed, the biasing force of the operating mechanism returns the injection operation unit 5 to the closed position, and at the same time, the opening / closing valve closes and the spray of carbon dioxide gas stops.

[0021] A leg 9 is provided at the bottom of the cylinder storage section 4 so as to extend below the injection operation section 5, and is designed to support the carbon dioxide injector 1 so that it does not tip over when the injection operation section 5 is operated.

[0022] The carbonator 1 and the carbonation cylinder 3 may be commercially available products as devices and cylinders for producing carbonated drinks.

[0023] As shown in FIGS. 1 to 3, the carbonated liquid container 2 has a substantially cylindrical main body 10 to one end of which an injection part 11 is detachably attached, and a discharge part 12 is provided at the other end.

[0024] One end face of the roughly cylindrical main body 10 is formed as an opening, and the injection part 11 is attached to cover this opening. The injection part 11 is a short, cylindrical part with roughly the same outer diameter as the main body 10. An injection port 11a is provided in the center of one end face, and an injection nozzle 11b extends along the central axis at the other end. The inner peripheral surface of the injection port 11a is sized and shaped to allow the injection port 7 (see Figure 2) protruding from the underside of the injection operation part 5 to be inserted and fitted into it. The injection nozzle 11b is a thin, tubular member with openings at both ends, with its base end connected to the back side of the injection port 11a and its tip protruding from the main body of the injection part 11 toward the other end.

[0025] Thread grooves are formed on the inner peripheral surface of the injection part 11 and on the outer peripheral surface of one end of the main body part 10, and the injection part 11 can be fixed to the main body part 10 by screwing one end of the main body part 10 into the other end of the injection part 11, which is formed as an opening. With the injection part 11 attached to the main body part 10 in this manner, the tip of the injection nozzle 11b is located inside the main body part 10 as shown in Figures 1 and 2, and the internal space of the carbonated liquid container 2 formed by the main body part 10 and the injection part 11 communicates with the outside through the injection nozzle 11b and the injection port 11a. A gasket (not shown) is provided between the injection part 11 and the main body part 10 to maintain airtightness between the injection part 11 and the main body part 10.

[0026] A passage formed in the injection part 11 by the injection port 11a and the injection nozzle 11b (hereinafter, this passage will be referred to as the "injection passage") is provided with an on-off valve (not shown), which opens and closes the injection passage in response to external pressure. In other words, the injection passage is opened only when, with the injection part 11 attached to the main body 10, the pressure applied from the outside to the injection port 11a reaches a threshold value or more relative to the internal pressure of the carbonated liquid container 2.

[0027] A relief hole 11c for releasing pressure is provided around the injection port 11a on the end face on one end side of the injection part 11, and the relief hole 11c is connected to the back side of the end face of the injection part 11 (the inside when the injection part 11 is attached to the main body part 10) through a passage (not shown) (hereinafter referred to as the "relief passage"). In other words, when the injection part 11 is attached to the main body part 10, the internal space of the carbonated liquid container 2 is also connected to the outside through this relief passage.

[0028] This relief passage is provided with a pressure regulating valve (not shown) that opens and closes depending on the pressure from inside. That is, the relief passage is opened only when the pressure applied from inside the carbonated liquid container 2 reaches a threshold value or more relative to the pressure outside the relief hole 11c while the injection part 11 is attached to the main body part 10. This prevents the pressure inside the carbonated liquid container 2 from rising above the threshold value.

[0029] The pressure at which the pressure regulating valve of the relief passage operates should be set below a threshold value determined by law. Japanese law stipulates that when filling a container such as the carbonated liquid container 2 with gas, the internal gas pressure must not exceed a specified threshold value. If the operating pressure of the pressure regulating valve of the relief passage is set below the threshold value determined by law, there is no risk that the operation of introducing carbon dioxide gas into the carbonated liquid container 2, which will be described later, will violate the law.

[0030] The discharge section 12 provided at the other end of the main body section 10 (opposite the injection section 11) is equipped with an opening / closing valve 13, which connects the internal space of the carbonated liquid container 2 to the outside in response to an operation from outside.

[0031] An example of the structure of the on-off valve 13 that constitutes the discharge portion 12 is shown in Figure 4. The on-off valve 13 includes a valve body 13a, a housing 13b, and a cup portion 13c. The cup portion 13c is a disk-shaped member that forms the outermost periphery of the on-off valve 13, and its peripheral portion is airtightly attached to the member of the main body portion 10 via a gasket 13d.

[0032] The housing 13b is a cylindrical member attached so as to protrude from the center of the cup portion 13c toward the inside of the main body portion 10. Both ends of the housing 13b are formed as openings, and the valve body 13a is inserted inside from the opening on the base end side. A tube 13e is attached to the tip end side of the housing 13b and extends into the carbonated liquid container 2.

[0033] Valve element 13a is a cylindrical member that penetrates the center of cup portion 13c and is held by housing 13b and sealing body 13f. Sealing body 13f is a ring-shaped member made of a flexible material such as rubber, and is held by cup portion 13c and housing 13b with its peripheral edge sandwiched between the inner periphery of cup portion 13c and the base of housing 13b. Valve element 13a passes through a central hole in sealing body 13f.

[0034] One end of the cylindrical valve body 13a located inside the carbonated liquid container 2 is closed, and the other end located outside is formed as an opening. One end side of the valve body 13a is located inside the housing 13b, and a biasing body 13g, which is a coil spring, is provided between the end face of the one end side of the valve body 13a and the inner circumferential surface of the housing 13b.

[0035] An annular groove 13h having a smaller outer diameter than the other portions is formed on the outer peripheral surface of the valve body 13a at an axially intermediate portion thereof, and the inner peripheral surface of the sealing body 13f fits into this groove 13h, thereby holding the valve body 13a in the center of the sealing body 13f. Also, a communication hole 13i is formed in a portion of the circumferential direction of the groove 13h, which communicates with the inner peripheral surface and outer peripheral surface of the cylindrical valve body 13a.

[0036] Normally, the valve body 13a is in the position shown on the left side in Fig. 4. In this position, the seal 13f is fitted into the groove 13h provided in the middle of the valve body 13a, and the communication hole 13i is closed by the seal 13f.

[0037] When a force (an upward force in FIG. 4) is applied to the valve disc 13a that pushes the valve disc 13a toward the inside of the carbonated liquid container 2, the valve disc 13a moves inward (to the position shown on the right in FIG. 4) against the biasing force of the biasing body 13g. Accordingly, the sealing body 13f, which was fitted in the groove 13h, is deformed by having a portion near its inner periphery pushed by the groove 13h and bending toward the inside of the carbonated liquid container 2. As the sealing body 13f deforms, the communication hole 13i, which was previously blocked by the sealing body 13f, becomes exposed at a position that is closer to the inside of the carbonated liquid container 2 than the sealing body 13f. This allows the internal space of the valve disc 13a to communicate with the internal space of the carbonated liquid container 2 through the communication hole 13i. Because the internal space of the valve disc 13a is in communication with the outside at the opening on the other end of the valve disc 13a, the internal space of the carbonated liquid container 2 is in communication with the outside through the valve disc 13a.

[0038] With this mechanism, the on-off valve 13 normally closes the discharge part 12 of the carbonated liquid container 2, and opens the discharge part 12 only when the valve body 13a is pressed in.

[0039] Furthermore, a discharge cap 14 is attached to the discharge part 12 so as to cover the other end of the valve body 13a. The discharge cap 14 is a button-shaped member provided to make it easy to press the valve body 13a with a finger, and is attached to the on-off valve 13 by inserting the other end of the valve body 13a into a mounting hole 14a provided on the bottom surface. The mounting hole 14a further communicates with a discharge port 14b opening on the side surface of the discharge cap 14 through an internal passage (not shown) (hereinafter referred to as the "discharge passage"), and when the discharge cap 14 is attached, the internal space of the valve body 13a is connected to the discharge port 14b through the discharge passage.

[0040] The carbonated liquid mixing device of this embodiment also includes a container holder 15 as shown in Fig. 1. The container holder 15 is a cylindrical part formed with an opening at the top end, and by inserting the other end of the carbonated liquid container 2 (the end on the side where the discharge part 12 is provided) into this opening, the carbonated liquid container 2 can be held with the discharge part 12 facing downward.

[0041] Next, the operation of the above-described embodiment will be described.

[0042] The carbon dioxide mixing device as described above can be used for the purpose of mixing carbon dioxide into hair detergents such as shampoos and conditioners, cosmetics such as lotions and emulsions, and various other liquids.

[0043] To use the carbonation mixer, first attach the carbonation cylinder 3 to the cylinder mounting portion 6 of the carbonator 1 and store it in the cylinder storage portion 4 (see Figures 1 and 2). Next, remove the injection portion 11 from the main body 10 of the carbonated liquid container 2, and pour the desired liquid into the main body 10 through the opening at one end. After reattaching the injection portion 11 to the main body 10, fit the injection port 11a (see Figures 1 and 3) at one end of the injection portion 11 with the injection nozzle 7 (see Figure 2) protruding from the underside of the injection operation portion 5. In this state, when the injection operation portion 5 is pressed down to the open position shown by the solid line in Figure 2, the opening / closing mechanism provided in the carbonation supply channel 8 in the carbonator 1 is activated, and the carbonation supply channel 8 is opened. The carbonation supply channel 8 is connected to the injection channel in the injection portion 11 via the injection nozzle 7, so that the pressure inside the carbonation cylinder 3 is applied to the injection channel through the carbonation supply channel 8. This activates the on-off valve of the injection passage, opening the injection passage and injecting the carbon dioxide gas from the carbon dioxide cylinder 3 into the carbonated liquid container 2 through the injection nozzle 11b. The pressure inside the carbonated liquid container 2 increases due to the injection of the carbon dioxide gas, and the carbon dioxide gas mixes with and dissolves in the liquid inside. At this time, when the internal pressure of the carbonated liquid container 2 increases to a threshold value, the pressure adjustment valve of the relief passage described above is activated and the internal gas is released to the outside through the relief hole 11c, so that the internal pressure of the carbonated liquid container 2 does not exceed a certain threshold value.

[0044] When a sufficient amount of carbon dioxide gas has been injected into the carbonated liquid container 2, the operator stops pressing the injection operation unit 5, which returns the injection operation unit 5 to the closed position shown by the dashed line in Figure 2 by the operating mechanism, and the carbon dioxide supply path 8 is closed by the opening and closing mechanism, stopping the injection of carbon dioxide. The carbonated liquid container 2 is then removed from the carbon dioxide injector 1.

[0045] If the carbonated liquid container 2 is not to be used immediately, it is recommended to hold it in the container holder 15. The carbonated liquid container 2 in this embodiment has a vent hole 11c and the vent passage in the injection section 11. If the carbonated liquid container 2 is left standing with the injection section 11 facing downward, depending on the type of liquid contained in the carbonated liquid container 2, components contained in the liquid may adhere to the vent hole 11c and the vent passage, potentially causing clogging of the vent hole 11c and the vent passage. In the case of the carbonated liquid container 2 in this embodiment, the discharge section 12 is provided on the opposite side of the injection section 11, so the carbonated liquid container 2 alone cannot be left standing with the discharge section 12 facing downward. By using the container holder 15, the carbonated liquid container 2 can be held with the discharge section 12 facing downward, so the carbonated liquid container 2 can be held without facing the injection section 11 downward, preventing clogging of mechanisms such as the vent hole 11c and the vent passage provided in the injection section 11.

[0046] When using the liquid in the carbonated liquid container 2, the carbonated liquid container 2 is held with the discharge portion 12 facing upward and the discharge cap 14 is pressed down, which pushes in the valve body 13a (see Figure 4) of the opening / closing valve 13, opening the valve 13, and the liquid mixed with carbon dioxide gas in the carbonated liquid container 2 passes from inside the valve body 13a of the opening / closing valve 13 through the discharge passage in the discharge cap 14 and is discharged from the discharge port 14b.

[0047] As described above, with the carbon dioxide mixing device of this embodiment, carbon dioxide gas can be easily mixed into the desired liquid simply by setting the carbonated liquid container 2 in the carbon dioxide injector 1 and operating the injection operation unit 5. Furthermore, the carbonated liquid container 2 is provided with not only an injection unit 11 for injecting carbon dioxide gas but also an ejection unit 12 for ejecting the liquid mixed with carbon dioxide gas. Therefore, the liquid mixed with carbon dioxide in the carbonated liquid container 2 can be used immediately from the carbonated liquid container 2 without the need to remove the carbonated liquid container 2 from the carbon dioxide injector 1 and then transfer it to another container.

[0048] Since any liquid can be stored in the carbonated liquid container 2, for example, carbon dioxide gas can be mixed with a familiar brand of shampoo, or it can be mixed with detergents for the human body, such as detergents for pets, etc. In addition to detergents, it can also be used with cosmetics such as lotions and emulsions.

[0049] Furthermore, in this embodiment, the carbonator 1 that injects carbon dioxide gas into the carbonated liquid container 2 does not require any machinery such as a pump, and carbon dioxide gas can be injected using only the pressure of the carbonator 3. In other words, installation of the carbonation mixing device of this embodiment can be completed simply by placing the carbonator 1 in the desired location, such as a bathroom or washroom, and no power supply work is required. Therefore, it can be easily introduced into beauty salons, ordinary homes, etc. Furthermore, since a small carbonator cylinder sold for drinking water, etc., can be used as the carbonator 3, the entire carbonator 1 that uses this can be configured compactly and does not take up much space for installation.

[0050] As described above, the carbonated liquid mixing device of this embodiment includes the carbonated liquid container 2 that contains a liquid, and the carbonated liquid container 2 is configured to include an injection section 11 that injects carbon dioxide gas into the carbonated liquid container 2 and a discharge section 12 that discharges the liquid mixed with carbon dioxide from the carbonated liquid container 2. In this way, carbon dioxide can be mixed with the liquid in the carbonated liquid container 2, and the liquid mixed with carbon dioxide can be used in the carbonated liquid container 2 as is.

[0051] In the carbon dioxide mixing device of this embodiment, the injection passage provided in the injection part 11 is configured to open and close in response to external pressure, and the discharge part 12 is equipped with an on-off valve 13 that connects the internal space of the carbonated liquid container 2 to the outside in response to external operation. In this way, carbon dioxide gas can be mixed with the liquid in the carbonated liquid container 2 by applying carbon dioxide gas pressure to the injection part 11, and the liquid in the carbonated liquid container 2 mixed with the carbon dioxide gas can be discharged by operating the on-off valve 13.

[0052] In the carbonated liquid mixing device of this embodiment, the liquid contained in the carbonated liquid container 2 can be a detergent or a cosmetic. In this way, it is possible to mix carbon dioxide gas with, for example, a familiar brand of shampoo and use it.

[0053] The carbonated liquid mixing device of this embodiment is provided with a container holder 15 that can hold the carbonated liquid container 2 with the discharge part 12 facing downward. In this way, the carbonated liquid container 2 can be held without facing the injection part 11 downward, and clogging of the mechanism provided in the injection part 11 can be prevented.

[0054] The carbon dioxide mixing device of this embodiment is equipped with a carbon dioxide injector 1 that injects carbon dioxide gas from a carbon dioxide cylinder 3 containing carbon dioxide gas into an injection part 11 of a carbonated liquid container 2 by the pressure of the carbon dioxide gas sealed in the carbon dioxide cylinder 3. In this way, no power supply work or the like is required when installing the carbon dioxide mixing device, and the carbon dioxide mixing device can be easily introduced into beauty salons, ordinary homes, etc.

[0055] Therefore, according to the present embodiment, a liquid containing carbonated water can be easily produced and used.

[0056] The carbon dioxide mixing device of the present invention is not limited to the above-described embodiment, and various modifications can be made without departing from the spirit of the present invention. [Explanation of symbols]

[0057] 1 Carbonator 2 carbonated liquid containers 3 Carbonated Water Cylinder 11 Injection part 12 Discharge part 13 On-off valve 15 Container holder

Claims

1. a carbonated liquid container having a main body for containing a liquid; and a carbonation injector corresponding to the carbonated liquid container; The carbonated liquid container includes an injection part detachably disposed at one end of the main body part so as to inject carbon dioxide gas into the carbonated liquid container, and an ejection part disposed at the other end of the main body part so as to eject a liquid mixed with carbon dioxide from the carbonated liquid container, The carbon dioxide injector includes a cylinder storage container for storing a carbon dioxide cylinder, and an injection operation unit that projects laterally from above the cylinder storage container and has an injection nozzle disposed therein, When injecting liquid and carbon dioxide gas into the carbonated liquid container, the injection part is removed from the main body of the carbonated liquid container, and liquid is poured into the main body from an opening on one end side. After attaching the injection part to the main body, the nozzle of the injection operation part is connected to the injection part of the carbonated liquid container, and carbon dioxide gas can be injected into the injection part of the carbonated liquid container by the pressure of the carbon dioxide gas sealed in the carbon dioxide cylinder from the carbon dioxide cylinder. When discharging carbonated liquid from the carbonated liquid container, the carbonated liquid container is removed from the carbonation injector, and then the discharge part is turned upward to discharge the carbonated liquid from the discharge part, A carbonated liquid mixing device characterized in that the liquid and carbon dioxide gas are supplied to the carbonated liquid container from one end side of the main body, and the carbonated liquid is discharged from the other end side of the main body.

2. the injection passage provided in the injection part is configured to open and close in response to external pressure; The discharge portion is provided with an on-off valve that communicates the internal space of the carbonated liquid container with the outside in response to an external operation. The carbon dioxide mixing device according to claim 1,

3. The liquid contained in the carbonated liquid container is a detergent or a cosmetic product.

3. The carbon dioxide mixing device according to claim 1 or 2,

4. a container holder capable of holding the carbonated liquid container with the discharge portion facing downward; A carbonated liquid mixing device as described in any one of claims 1 to 3, characterized in that when the carbonated liquid container is held in the container holder, the other end of the carbonated liquid container is inserted into the opening of the container holder and the injection portion at one end of the carbonated liquid container is exposed upward.

5. The carbon dioxide injector is configured so that the injection operation part can be moved up and down, and when the injection operation part is pressed, a carbon dioxide supply path to the carbon dioxide cylinder is opened to inject carbon dioxide from the injection port. The carbon dioxide mixing device according to any one of claims 1 to 4, characterized in that

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