KR20230057069A - Pump for discharge container for liquid and discharge container having the pump - Google Patents

Abstract

The present invention relates to a pump and a discharging container for discharging shaped bubbles with high clarity. The pump generates bubbles during the process of sucking liquid substances containing surfactants through a tube and moving the liquid substances to an upper part by a pressure difference generated by a physical force applied from the outside, on the basis of the piston principle of the syringe, and improves the density during the foam formation process, thereby increasing the hardness of the bubble and discharging the bubble to the outside. In the discharging container, the pump for the liquid substances discharge container is mounted inside the container, the shape thereof is determined according to the various types of holes formed in an upper part of the container such that the bubbles are discharged to the outside, for example, in the shape of a flower. The bubbles provide fun and aesthetics to a user by sticking to the surface of the palm of the user while having the clear shape of bubbles. The discharge container discharges highly clear shaped bubbles which can further increase customer friendliness of a product.

Description

Pump for liquid material discharge container containing surfactant and discharge container for discharging shaped bubbles with high clarity by mounting the pump {PUMP FOR DISCHARGE CONTAINER FOR LIQUID AND DISCHARGE CONTAINER HAVING THE PUMP}

The present invention relates to a pump for a liquid substance discharge container used for discharging liquid substances such as hand wash products, and a discharge container for discharging bubbles having a constant shape with high clarity by mounting the pump therein,

More specifically, the generation of bubbles and the density of the generated bubbles during the process of inhaling a liquid material containing a surfactant through a tube and moving it upward by using the pressure difference between the outside and the inside of the container by mounting it inside the container. A pump for a liquid material discharge container that enhances and discharges the

By mounting the pump for the liquid substance discharge container inside, it discharges high-definition shaped bubbles that form a certain shape according to the various shapes of holes formed on the upper part of the container, and is applied to product containers used by children such as hand wash. By providing fun, interest and aesthetic sense, it is possible to further increase customer confidence in the product.

By generating high-density foam, the quality of the foam is improved, especially when washing your face, you can expect a higher result in adsorbing and removing wastes in the pores. It is about a discharge container that does.

In general, liquid substances containing surfactants, such as hand wash products, are pumped when the head of the pump container in use is pressed and released by hand, and the solution in the container is discharged to the outside, resulting in a bubble form rather than a liquid state. transformed into and discharged.

When the head of the pump container is pressed, the spring is compressed while pushing the air inside the pump container downward. At this time, a small bead that acts as a valve is opened from the inside.

Conversely, when the hand is removed from the head of the pump container, the compressed spring is restored and the bead-shaped valve is closed.

Due to the difference in pressure generated during this process, the solution inside the container is sucked into the tube and the solution inside the container is discharged through the outlet of the head.

Foam is defined as a dispersion of gases present in a liquid. However, pure liquids of a single component cannot form stable foam, so the liquid must contain a material capable of stabilizing foam, such as a surfactant.

The two fundamental factors that generate foam are surfactant and agitation.

The surfactant shows a great difference in the property or form of generating foam depending on its ionic type, chemical form, HLB, etc.

The agitation is a mechanical movement that is essential in various industrial processes such as blending, emulsifying, mixing, pumping, scrubbing, and cleaning, and is a continuous mechanical movement. It is the physical cause of occurrence, and the shape and amount of generated bubbles are directly affected by this.

Existing products on the market have received attention from users by making the foam discharged out of the container form various shapes, but the shape is not clear, which is somewhat disappointing.

Accordingly, the present inventor provides a discharge container for discharging shaped bubbles with high clarity, which enhances the user's fun and reliability by increasing the clarity of the bubbles discharged in a certain shape, thereby increasing the user's preference for the product. want to do

Republic of Korea Patent Publication 10-2019-0102190 (published on September 3, 2019)

In order to solve the problem of the prior art,

The present invention is installed in a container to measure the generation of bubbles and the density of the generated bubbles during the process of inhaling a liquid material containing a surfactant through a tube and moving it upward by using the pressure difference between the outside of the container and the inside of the container. A pump for a liquid material discharge container that enhances and discharges;

By mounting the pump for the liquid material discharge container inside, it is applied to product containers used by children such as hand wash by discharging high-definition shaped bubbles formed in a certain shape according to various types of holes formed on the upper part of the container. It is an object of the invention to provide a discharge container that can further increase customer's reliability of the product by providing fun, interest, and aesthetic sense by doing so.

In order to achieve the above purpose,

The present invention is a pump for a discharge container installed in a container to suck in a liquid material containing a surfactant and discharge it in the form of bubbles using a pressure difference between the outside of the container and the inside of the container,

A liquid suction unit for sucking liquid material in a liquid state;

Including a bubble generating discharge unit that is detachably and integrally coupled to the upper end of the liquid suction unit to transform the liquid material sucked through the liquid suction unit into a bubble form and discharge it upward,

The liquid suction part is formed through an inlet tube pipe for directly sucking the liquid material in a state submerged in the liquid material, and an upper part of the inlet tube pipe, and is formed with a relatively larger diameter than the diameter of the inlet tube pipe. After accommodating the liquid material flowing through the inlet tube pipe, a piston action tube for discharging the liquid material through the opening and closing action of the check valve formed in the foam generating discharge part, and formed through the top of the piston action tube, A coupling tube formed to have a relatively larger diameter than the diameter of the piston action tube and receiving the lower side of the foam generating discharge unit therein to form a coupling;

The bubble generating discharge unit includes a check valve that opens and closes for suction of the liquid material while performing a piston movement inside the piston action tube of the liquid suction unit, and a liquid material that moves the liquid material introduced through the check valve upward. The moving pipe, the elastic body formed along the outer circumference of the liquid material moving pipe, and the upper end of the liquid material moving pipe are integrally coupled to each other, forming a funnel shape of the upper and lower beams to be coupled to the coupling tube of the liquid suction unit. And, a foam generating filter unit that is combined with the upper end of the coupling unit to first change the liquid material flowing through the liquid material transfer pipe into a bubble shape, and mixing by collision between bubbles discharged through the foam generating filter unit Provided is a pump for a liquid material discharge container including a foam generating screw unit that causes a blending phenomenon to improve the sharpness shown by the surface forming the bubble appearance.

And, as including a pump for the liquid material discharge container,

A liquid material accommodating unit for accommodating a liquid material including a surfactant therein;

A bubble ejection unit that is detachably coupled to the liquid material accommodating unit and discharges bubbles deformed from the liquid material in a three-dimensional shape forming a constant shape;

Including a pump for a liquid material discharge container mounted inside the liquid material accommodation unit and the bubble discharge unit,

The liquid material filled in the liquid material container is generated as bubbles through the pump for the discharge container and discharged to the outside through the upper cap of the bubble discharge unit,

The upper plate of the cap part is formed with a plurality of petal-shaped through-holes forming a long and narrow elliptical width, and the bubbles discharged through the through-holes form a three-dimensional petal shape, providing a discharge container for discharging high-definition flower-shaped bubbles. .

By increasing the density through the pump for the discharge container proposed in the present invention to generate bubbles, and discharging the bubble generated through the pump to the outside through the discharge container, Applied to the product, it is possible to give the user fun and familiarity with the product through bubbles expressed in various shapes to the user, thereby increasing the preference for the product, and thus improving product competitiveness.

In addition, compared to conventional products, the outer surface of the shaped bubbles forming a certain shape expressed by the bubbles is clear, thereby increasing the sharpness, thereby having the advantage of further increasing the consumer's product preference through the shaped bubbles.

In addition, by generating high-density foam, the quality of the foam is improved, especially during face washing, higher results can be expected in adsorbing and removing wastes in the pores. It has the advantage of being usable.

1 is an overall perspective view of a pump for a discharge container according to the present invention.
Figure 2 is a side perspective view of the pump for the discharge container according to the present invention
Figure 3 is an exploded perspective view of a pump for a discharge container according to the present invention.
Figure 4 is a side exploded perspective view of the pump for the discharge container according to the present invention
Figure 5 is an operating state diagram of a state in which the pump for discharge container according to the present invention is mounted in the container.
Figure 6 is a perspective view of the foam generating discharge portion constituting the pump for the discharge container according to the present invention as viewed from the lower side.
Figure 7 is a perspective view of the foam generating discharge portion constituting the pump for the discharge container according to the present invention as viewed from the upper side direction.
Figure 8 is a perspective view as viewed from the side of the foam generating discharge portion constituting the pump for the discharge container according to the present invention.
Figure 9 is an exploded perspective view of the foam generating discharge portion constituting the pump for the discharge container according to the present invention as viewed from the upper side direction.
Figure 10 is an exploded perspective view of the foam generating discharge portion constituting the pump for the discharge container according to the present invention as viewed from the lower side.
11 is a perspective view of a discharge container equipped with a pump for discharge container according to the present invention.
12 is an exploded perspective view of the discharge container shown in FIG. 11 viewed from a lower side;
13 is an exploded perspective view of the discharge container shown in FIG. 11 viewed from the upper side;
14 is an exploded perspective view of the discharge container shown in FIG. 11 viewed from the side;
15 is an exploded perspective view of another embodiment of the discharge container of FIG. 14 viewed from the side;
16 is a photograph comparing the sharpness of shaped bubbles (a) discharged through a conventional discharge container and shaped bubbles (b) discharged through a discharge container according to the present invention.

Hereinafter, specific technical details of the discharge container according to the present invention will be described in detail together with drawings.

First, the term 'shaped foam' described throughout the specification of the present invention means a three-dimensional foam that forms a certain shape, including an animal shape and a flower shape, through foam.

As shown in Figures 1 to 10,

The pump 10 for a discharge container of a liquid material according to the present invention is a pump installed in a container to suck in a liquid material containing a surfactant and discharge it in the form of bubbles using a pressure difference between the outside of the container and the inside of the container,

A pump (10) for a discharge container that is mounted in a container and sucks in a liquid material containing a surfactant using a pressure difference between the outside of the container and the inside of the container and discharges it in the form of bubbles,

A liquid suction unit 11 for sucking liquid material in a liquid state;

It includes a bubble generating discharge unit 12 that is detachably and integrally coupled to the upper end of the liquid suction unit 11 to transform the liquid material sucked through the liquid suction unit 11 into a bubble form and discharge it to the top, ,

The liquid suction part 11 is formed through an inlet tube pipe 111 for directly sucking the liquid material in a state submerged in the liquid material, and an upper part of the inlet tube pipe 111, and the inlet tube pipe ( 111) is formed to have a relatively larger diameter than the diameter of the inlet tube 111 and receives the liquid material flowing through the inlet tube 111, and then opens and closes the check valve formed in the foam generating discharge part 12 to open and close the liquid material. The piston action tube 112 through which the gas is discharged, and formed through the top of the piston action pipe 112, but formed with a relatively larger diameter than the diameter of the piston action pipe 112, so that the bubble generating discharge portion 12 Includes a coupling pipe 113 that accommodates the lower side of the inside to form a coupling,

The foam generating discharge unit 12 includes a check valve 121 that opens and closes for suction of liquid material while performing a piston movement inside the piston action pipe 112 of the liquid suction unit 11, and the check valve A liquid material transfer tube 122 for moving the liquid material introduced through 121 upward, an elastic body 123 formed along the outer circumference of the liquid material transfer tube 122, and the liquid material transfer tube 122 The coupling part 124 formed integrally coupled with the upper end of the upper and lower beams to form a funnel shape and coupled to the coupling pipe 113 of the liquid suction unit 11, and the upper end of the coupling unit 124 Collisions between the foam generating filter unit 125, which firstly changes the liquid material flowing through the liquid material transfer tube 122 into bubbles by forming a bond, and the bubbles discharged through the foam generating filter unit 125 It includes a foam generating screw unit 126 that causes a blending phenomenon by and improves the sharpness shown by the surface forming the foam outline.

As shown in FIG. 5 , the liquid suction unit 11 serves to suck the liquid material by using a pressure difference between the outside of the container and the inside of the container in a state of being immersed in the liquid substance filled inside the discharge container.

As shown in Figures 3 and 4,

The liquid suction part 11 is formed through an inlet tube pipe 111 for directly sucking the liquid material in a state of being submerged in a liquid material containing a surfactant and an upper portion of the inlet tube pipe 111, A piston action pipe 112 formed to have a relatively larger diameter than the diameter of the inlet tube 111 to accommodate the liquid material flowing through the inlet tube 111 and then discharge it through the opening and closing action of the valve; It is formed through the upper part of the piston action pipe 112, but is formed with a relatively larger diameter than the diameter of the piston action pipe 112, and is formed to accommodate the lower side of the foam generating discharge part 12 inside to form a combination. Includes tube (113).

The liquid material sucked through the liquid suction part 11 is passed through the upper end of the liquid suction part 11 and transferred to the bubble generating discharge part 12 integrally formed,

In the foam generating discharge unit 12, the liquid material forms bubbles and discharges them to the outside by increasing the sharpness indicated by the surface forming the outer shape of the bubbles.

As described above, the liquid phase suction unit 11 includes an inlet tube pipe 111, a piston action pipe 112, and a coupling pipe 113.

The inlet tube pipe 111 serves to directly suck the liquid material into the tube while being submerged in the liquid material.

As shown in FIG. 5, the piston action pipe 112 is formed with a relatively larger diameter than the diameter of the inlet tube 111, and temporarily removes the liquid material introduced through the inlet tube 111. While receiving it, it plays a role of guiding the liquid material to flow into the inlet tube pipe 111 by the opening and closing action of the check valve formed at the lower end of the foam generating discharge part 12.

The coupling pipe 113 is formed through the upper portion of the piston action pipe 112 and has a relatively larger diameter than the diameter of the piston action pipe 112, thereby discharging the lower side of the foam generating discharge part 12. Receive it inside and form a bond.

That is, as shown in FIGS. 1 to 4, the check valve 121, the liquid material transfer pipe 122, and the elastic body 123 constituting the foam generating discharge unit 12 are mounted therein and fixed through coupling. By forming, the liquid material can be smoothly sucked through the organic working relationship of the check valve 121, the liquid material transfer pipe 122, and the elastic body 123.

The foam generating discharge unit 12 transforms the liquid material introduced through the liquid suction unit 11 into a bubble form and discharges it to the outside.

As shown in Figures 1 to 10,

The foam generating discharge unit 12 includes a check valve 121 that opens and closes for suction of liquid material while performing a piston movement inside the piston action pipe 112 of the liquid suction unit 11, and the check valve ( 121) to move the liquid material introduced through the upper portion of the liquid material transport tube 122, the elastic body 123 formed along the outer circumference of the liquid material transport tube 122, and the liquid material transport tube 122. The coupling part 124, which is integrally coupled with the upper end, forms a funnel shape of the upper and lower beams and is coupled to the coupling pipe 113 of the liquid suction unit 11, and the upper end of the coupling unit 124 In the collision between the foam generating filter unit 125, which first changes the liquid material flowing through the liquid material transfer pipe 122 into a bubble shape, and the bubbles discharged through the foam generating filter unit 125 It includes a foam generating screw unit 126 that improves the sharpness shown by the surface forming the foam shape by causing a blending phenomenon.

As shown in FIGS. 5, 6 and 10, the check valve 121 is formed at the lower end of the foam generating discharge part 12, and the piston action pipe 112 of the liquid suction part 11 While the piston moves inside, it opens and closes for the suction of liquid substances through the opening and closing action.

When the check valve 121 is pressurized through the upper end of the foam generating/discharging part 12, the spring installed in the foam generating/discharging part 12 is compressed, and the air inside the piston action tube 112 is compressed. While pushing in the direction, the closed check valve 121 is opened. The liquid material filled in the piston action pipe 112 flows into the liquid material transfer pipe 122 through the opened check valve 121 .

Conventional products use a small bead to play the same role as the check valve 121, but in the case of the bead shape, the amount of liquid material flowing into the liquid material transfer pipe 122 is not sufficient, so that the liquid material transfer pipe 122 Although the amount filled in was small, the present invention has the advantage that the inflow can be increased by 30% or more compared to the conventional bead-shaped valve by using the conical check valve 121. The increase in the inflow amount increases the density of the foam generated while passing through the foam generating filter unit 125 and the foam generating screw unit 126, and thus has a good effect on forming externally hard foam.

That is, compared to the conventional bead-shaped check valve 121, a harder form of bubble is formed, and thus has the advantage of further improving the sharpness of the shaped bubble discharged to the outside of the container.

When pressure is applied to the upper end of the foam generating discharge part 12 and then the applied pressure is removed, the check valve 121 is closed while the compressed spring is restored, and the foam is transmitted through the upper end of the discharge part 12 As the liquid material filled in the liquid material transfer pipe 122 rises upward due to the pressure difference generated by the pressure difference, it is transformed into a foam form through a friction process between the foam generating filter unit 125 and the foam generating screw unit 126, and is transformed to the outside. is discharged with

The liquid material moving pipe 122 serves to transfer the liquid material sucked by the opening and closing action of the check valve 121 upward, and at the same time, the elastic body 123 along the outer surface of the liquid material moving pipe 122 ) is installed to serve as a guide for the vertical motion of the elastic body 123.

As described above, the elastic body 123 is installed while wrapping along the outer surface of the liquid material transfer pipe 122, and provides elastic energy for the piston movement of the check valve 121 by pressure applied from the outside. plays a role in conveying

At this time, the elastic body 123 uses a nickel-plated spring or a spring made of stainless steel in order to block harmful components from flowing into the liquid material due to corrosion.

As shown in FIGS. 1 to 4, the coupling part 124 is integrally coupled with the upper end of the liquid material transfer pipe 122, and forms a funnel shape of the upper and lower beams to form the liquid phase suction part 11. It forms a coupling with the coupling pipe 113.

As shown in FIGS. 6 to 10, the foaming filter unit 125

A hollow cylindrical tube 125a, a first mesh network 125b formed on the lower end surface of the cylindrical tube 125a through which the liquid material primarily passes, and formed on the upper end surface of the cylindrical tube 125a It includes a second mesh network 125c through which the liquid material passes secondly, and the cylindrical tube 125a has a diameter of 0.5 to 1.2 cm and a length of 1.0 to 1.8 cm, and the first mesh network 125 b and the first mesh network 125 b The 2-mesh network 125c is characterized in that one having a different mesh size is installed.

The foam generating filter unit 125 has a hollow cylindrical structure, and mesh nets are installed on each of the upper and lower surfaces, and the mesh size of the upper mesh net and the lower mesh net are different from each other, so that friction with liquid substances It increases the effect so that foam generation can occur effectively.

The liquid material introduced through the liquid material transfer pipe 122 first forms bubbles while passing through the foam generating filter unit 125 .

At this time, due to the difference in mesh size between the first mesh network 125b at the bottom and the second mesh network 125c at the top, the blending and mixing action for generating bubbles is increased to increase the amount of bubbles to be generated. improves density. This increase in density increases the hardness of the shaped bubbles formed in a certain shape by the bubbles, thereby forming the outline of the shaped bubbles discharged to the outside more clearly, thereby increasing the sharpness of the shaped bubbles.

As shown in FIG. 5, after the primary foam is formed, the primarily formed foam passes through the foam generating screw unit 126 for secondary foam generation.

As shown in FIGS. 5, 7, and 9, the foam generating screw unit 126 has a screw-shaped groove formed on its inner surface, and rotates the primary foam along the screw-shaped groove. While giving, the mixing (Blending) and stirring (Mixing) action are increased secondarily to increase the foam generation, so that the foam density can be further increased compared to the primary foam production.

As such, in the present invention, by maximizing the generation of bubbles through blending and mixing through physical friction with the liquid material containing the surfactant through the first and second processes, By improving the density, the sharpness of the discharged shaped bubbles can be further increased when compared to existing products.

The foam passing through the foam generating screw unit 126 is discharged to the outside through the foam discharge unit of the discharge container.

Next, the discharge container (A) equipped with the pump 10 for the discharge container described above will be examined in detail with drawings.

As the discharge container (A) is shown in FIGS. 11 to 15,

A liquid material accommodating unit 1 for accommodating liquid material including a surfactant therein;

A bubble discharge unit 2 that is detachably coupled to the liquid material accommodating unit 1 and discharges bubbles deformed from the liquid material in a three-dimensional shape forming a constant shape;

Including a pump 10 for a liquid material discharge container mounted inside the liquid material accommodation unit 1 and the bubble discharge unit 2,

The liquid material filled in the liquid material accommodating part 1 is generated as bubbles through the discharge container pump 10 and discharged to the outside through the upper cap part 21 of the bubble discharge part 2,

The upper plate 212 of the cap part 21 is formed with a plurality of petal-shaped through-holes 212a forming a long and narrow oval shape, and the bubbles discharged through the through-holes 212a form a three-dimensional petal shape. do.

The lower body portion 1 has a hollow shape and serves to accommodate a liquid material containing a surfactant therein. The liquid material is filled with a material that forms bubbles when discharged, including generally sold hand wash.

In the present invention, an antibacterial coating layer formed on the inner surface of the lower body portion 1 may be used to increase use stability through the lower body portion 1.

The upper body part 2 is detachably coupled with the lower body part 1, and serves to allow the user to discharge hand wash in the form of foam to the outside.

The pump 10 for the discharge container is mounted vertically inside the lower body part 1 and the upper body part 2.

The cap part 21 has a cylindrical shape so that the user can press it with the palm of his hand, and the cap body part 211 has a structure in which the central part excluding the rim is recessed,

In the central portion, a top plate 212 for discharging bubbles in a flower shape through a plurality of through holes 212a;

A bubble inlet pipe 213 forming a penetrating coupling with the upper end of the pump 10 for a discharge container at the center of the lower end of the cap body part 211;

Includes a connecting cap member 214 formed to cover the foam inlet pipe 213 at the top and coupled with the liquid material container 1 at the bottom to cover the pump 10 for the discharge container to the inside do.

The foam discharged through the pump 10 for the discharge container is discharged through the through hole 212a of the top plate 212, and the shape formed through the foam at this time is of the through hole 212a formed in the top plate 212. It can be presented in various forms depending on the shape, number and arrangement.

In the present invention, as an example, an elliptical petal shape formed long in the longitudinal direction is suggested, but such a shape can be changed into various shapes as needed.

The inner surface of the through hole 212a maintains a thickness t of a predetermined width so that the outer surface forming the shape can be smoothly discharged while giving a three-dimensional effect during the process of discharging the bubbles. In the present invention, in order to give an appropriate three-dimensional effect, the upper and lower width thickness (t) of the inner surface of the through hole 212a is maintained at 0.3 to 1.5 cm.

If necessary, fragrance may be emitted in relation to the shaped bubbles discharged through the through hole 212a.

For example, when flower-shaped bubbles are discharged, the flower scent is emitted.

The divergence of the floral scent is done by adding a floral scent to the liquid material or

Alternatively, the cap part 21 may be manufactured using plastic with a flower scent.

In addition to the shaped bubbles, when scent associated with the shaped bubbles is emitted, the user can increase his preference for the product and increase competitiveness compared to existing products.

FIG. 15 is an exploded perspective view of another embodiment of the discharge container shown in FIG. 14 viewed from the side. The difference from FIG. 14 is that a threaded groove is formed on the inside of the bubble inlet pipe 213.

That is, no threaded groove is formed in FIG. 14, but a threaded groove is formed in FIG. 15.

This is to increase the foam generation once again during the process of passing through the foam inlet pipe 213 after forming foam through the first and second steps for forming foam from the liquid material.

As shown in FIG. 16, it is a photograph comparing the sharpness of shaped bubbles (a) discharged through a conventional discharge container and shaped bubbles (b) discharged through a discharge container according to the present invention.

The photographs presented through (a) and (b) of FIG. 16 are photographs taken in a state in which the hand wash product filled in the discharge container is discharged, and the surfactant accounts for the total content of the hand wash product filled in each container. proportions are almost the same.

As shown in (b) of FIG. 16, by increasing the sharpness displayed through the surface forming the outer shape of the bubble, it is possible to further increase the reliability and product satisfaction of the consumer.

The shape presented through the drawings of the present invention is a flower-shaped bubble, but it is obvious to those skilled in the art that various types of bubbles can be discharged by changing the shape and arrangement of the grooves formed in the cap part, and the present invention suggests It is obvious that the shape of the groove formed in the cap part 21 can be changed in the technique.

The pump for a discharge container according to the present invention and the discharge container for discharging shaped bubbles with high clarity by mounting the pump are applied to products such as hand wash, thereby stimulating the curiosity of users including children and increasing product preference, such as hand washing, etc. It can induce users to participate more actively in hygiene activities, which can contribute to product competitiveness and people's hygiene activities,

By generating high-density foam, the quality of the foam is improved, especially during face washing, higher results can be expected in adsorbing and removing wastes in the pores. Considering that it is possible, industrial applicability is high.

A: Discharge container
1: liquid material receiving part 2: foam discharge part
10: pump for discharge container 11: liquid suction unit
12: foam generating discharge unit 21: cap unit
111: inlet tube pipe 112: piston action pipe
113: coupling pipe 121: check valve
122: liquid material transfer pipe 123: elastic body
124: coupling part 125: foam generating filter part
125a: cylindrical tube 125b: first mesh network
125c: second mesh network 126: foam generating screw unit
211: cap body part 212: top plate
212: top plate 212a: through hole
213: bubble inlet pipe

Claims (7)

A pump (10) for a discharge container that is mounted in a container and sucks in a liquid material containing a surfactant using a pressure difference between the outside of the container and the inside of the container and discharges it in the form of bubbles,
A liquid suction unit 11 for sucking liquid material in a liquid state;
It includes a bubble generating discharge unit 12 that is detachably and integrally coupled to the upper end of the liquid suction unit 11 to transform the liquid material sucked through the liquid suction unit 11 into a bubble form and discharge it to the top, ,
The liquid suction part 11 is formed through an inlet tube pipe 111 for directly sucking the liquid material in a state submerged in the liquid material, and an upper part of the inlet tube pipe 111, and the inlet tube pipe ( 111) is formed to have a relatively larger diameter than the diameter of the inlet tube 111 and receives the liquid material flowing through the inlet tube 111, and then opens and closes the check valve formed in the foam generating discharge part 12 to open and close the liquid material. The piston action tube 112 through which the gas is discharged, and formed through the top of the piston action pipe 112, but formed with a relatively larger diameter than the diameter of the piston action pipe 112, so that the bubble generating discharge portion 12 Includes a coupling pipe 113 that accommodates the lower side of the inside to form a coupling,
The foam generating discharge unit 12 includes a check valve 121 that opens and closes for suction of liquid material while performing a piston movement inside the piston action pipe 112 of the liquid suction unit 11, and the check valve A liquid material transfer tube 122 for moving the liquid material introduced through 121 upward, an elastic body 123 formed along the outer circumference of the liquid material transfer tube 122, and the liquid material transfer tube 122 The coupling part 124 formed integrally coupled with the upper end of the upper and lower beams to form a funnel shape and coupled to the coupling pipe 113 of the liquid suction unit 11, and the upper end of the coupling unit 124 Collisions between the foam generating filter unit 125, which firstly changes the liquid material flowing through the liquid material transfer tube 122 into bubbles by forming a bond, and the bubbles discharged through the foam generating filter unit 125 A pump for a liquid material discharge container, characterized in that it includes a foam generating screw part 126 that improves the sharpness shown by the surface forming the outer shape of the foam by causing a blending phenomenon.
The method of claim 1,
The check valve 121 has a conical shape inverted downward to open and close the inlet of the liquid material transfer pipe 122.
The method of claim 1,
The foam generating filter unit 125 has a hollow cylindrical structure,
A hollow cylindrical tube 125a,
A first mesh network 125b formed on the lower end surface of the cylindrical tube 125a through which liquid material primarily passes;
A second mesh network 125c formed on the upper surface of the cylindrical tube 125a through which the liquid material secondly passes,
The cylindrical tube 125a has a diameter of 0.5 to 1.2 cm and a length of 1.0 to 1.8 cm,
The pump for a liquid material discharge container, characterized in that the first mesh network (125b) and the second mesh network (125c) are provided with different mesh sizes.
The method of claim 1,
The foam generating screw unit 126 is a pump for a liquid material discharge container, characterized in that a plurality of screw grooves are formed along the inner surface.
A liquid material accommodating unit 1 for accommodating liquid material including a surfactant therein;
A bubble discharge unit 2 that is detachably coupled to the liquid material accommodating unit 1 and discharges bubbles deformed from the liquid material in a three-dimensional shape forming a constant shape;
Including a pump 10 for a liquid material discharge container mounted inside the liquid material accommodation unit 1 and the bubble discharge unit 2,
The liquid material filled in the liquid material accommodating part 1 is generated as bubbles through the discharge container pump 10 and discharged to the outside through the upper cap part 21 of the bubble discharge part 2,
The upper plate 212 of the cap part 21 is formed with a plurality of petal-shaped through-holes 212a forming a long and narrow oval shape, and the bubbles discharged through the through-holes 212a form a three-dimensional petal shape. A discharge container that discharges flower-shaped bubbles with high sharpness.
The method of claim 1,
A discharge container for discharging flower-shaped bubbles with high sharpness, characterized in that an antibacterial coating layer is formed on the inner surface of the liquid substance accommodating unit (1).
The method of claim 5,
The cap part 21 has a cylindrical shape so that the user can press it with the palm of his hand, and the cap body part 211 has a structure in which the central part excluding the rim is recessed;
In the central portion, a top plate 212 for discharging bubbles in a flower shape through a plurality of through holes 212a;
A bubble inlet pipe 213 forming a penetrating coupling with the upper end of the pump 10 for a discharge container at the center of the lower end of the cap body part 211;
Includes a connecting cap member 214 formed to cover the foam inlet pipe 213 at the top and coupled with the liquid material container 1 at the bottom to cover the pump 10 for the discharge container to the inside Characterized in that, a discharge container for discharging flower-shaped bubbles with high sharpness.

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