KR20130112776A - Bulle generator type plug - Google Patents

Abstract

PURPOSE: A lid structure is provided to facilitate discharge of contents in a liquid phase even if a container is used lifting the container upside down or is used in a correct way. CONSTITUTION: A content discharge hole (120) has protrusions (122) and external pores (121) which are formed alternately. The protrusions are connected with an inner periphery surface of a lid (100) in a solid bottom. A discharge pore (123) is cut with an upper surface of a content discharge hole in a blocked state and a lower surface is open. An inclined wing faces an expanded stepped surface (110) which is expanded being extended from a lower part of a discharge hole (110) on the lid. An upper part and a lower part of a main body are equipped each net body. The inclined wing is inclined from a terminal of an expanded board in a disk type. An air guide unit has a discharge pipe in the center and a pipe inserting hole which is composed in a solid bottom to a right under part of the discharge pipe.

Description

Stopper structure with bubble generating part {BULLE GENERATOR TYPE PLUG}

The present invention relates to a stopper of a tubular container (hereinafter referred to collectively as a container) for holding a liquid or gel content, in particular having a bubble generating part inside the stopper, after the contents are discharged inside the discharge port structure of the stopper, If the force to press is excluded, it is easy to introduce air into the container, so that the recovery time of the container can be shortened, and the contents can be easily discharged even when the container is upright or the container is turned over. The present invention relates to a stopper having a bubble generator for effectively generating bubbles while the contents are leaked by the generator.

There is a family of products that must be used while generating bubbles, ie bubbles, when they are taken out from the container containing the liquid contents to the outside through a stopper.

For example, liquid contents, such as shaving cream or foam soap, are more effective to generate bubbles than to be used as they are discharged out of the container.

In order to generate and use such a bubble, it is known that a bubble generating part connecting the inside of the container and the stopper is generally known, which is complicated by the installation of the bubble generating part and the cost increases due to the large number of parts. Of course, there are deriving problems such as an increase in defective rate and frequent leakage.

In addition, since the bubble generating part should be accommodated in the container, the content contained in the quantitative container is filled less as much as the volume of the bubble generating part, and thus there is a problem in that it is not possible to satisfy the satisfaction of product consumers.

In addition, when the bubble generating unit is accommodated and mounted inside the container, there is a structural complexity more than necessary, such that the contents are discharged to the outside and the outside air is supplied to the inside of the container.

In addition, since the bubble generating part has a bubble generating part adopted in the liquid content and a bubble generating part adopted in the gel content, the bubble generating part is changed according to the state of the content, so that the bubble generating part is changed. There is a problem that is increased.

In addition, in the coupling structure between the cap and the container, leakage of the contents of the container is essentially leaked to the outside, and thus, a separate configuration such as a sealing or a packing is required to prevent the leakage of the container. There is this.

In order to solve these problems, the applicant has filed a stopper having a bubble generating device by the patent application No. 10-2012-0018969.

As described above, the patent filed by the present applicant is suitable for solving the above-mentioned problems, but when the container is restored to its original state after squeezing the contents from the container, the mesh of the bubble generator prevents the flow of air inflow relatively. There is a problem that the recovery time is delayed somewhat occurs, and when you want to reuse immediately after squeezing once in the container, there is a problem to wait until the container is restored to its original state. In this case, there is a problem that it is difficult to discharge the contents.

Patent Registration No. 10-1036398

Therefore, the present invention is to solve the above problems, the object is to facilitate the discharge of the contents of the liquid contained in the container even if the container is used upside down or used upright.

In another aspect, the present invention has another object to increase the restoring force to shorten the time to restore the container to its original state after the discharge of the contents in the container to be reused in a short time.

In addition, the present invention has another object to increase the generation efficiency of bubbles when the liquid contents are discharged to the outside of the container by the bubble generating portion inside the stopper.

According to an aspect of the present invention,

In the stopper structure coupled to the discharge portion of the tubular container,

The outer peripheral surface is formed irregularities and the projections and the external pores are formed alternately, the upper surface is blocked in the discharge hole in the blocked state and the lower surface is open, the contents outlet which is connected to the inner peripheral surface of the stopper integrally;

The body is inserted and inserted from the lower side of the contents outlet, the main body having a mesh body at the upper and lower ends of the central portion, integrally provided with a partition plate having an incision hole in the inner circumferential surface, and a disc shape integrally extending from the outer peripheral surface of the lower end of the main body. And the expansion plate is made of, the bubble generating portion made of integrally inclined wings inclined from the end of the expansion plate,

It is inserted into the lower end of the bubble generating part to form a central discharge tube and the tube is inserted into the discharge tube lower end, and a disc member is formed on the end side of the partition rib extending from the outer peripheral surface of the discharge tube, the air flow guided by the partition rib Is formed, characterized in that consisting of the air induction portion having an insertion port extending integrally to the lower surface of the disc member.

Further, according to the present invention,

In the stopper structure coupled to the discharge port of the tubular container,

The first body diameter of the upper side is formed relatively larger than the diameter of the lower side of the second body, and the mesh body forms the mesh body toward the upper end of the first body and the lower side of the second body. Bubble generating unit having,

An expansion plate for forming a soft disc shape fitted into a step between the first body and the second body of the bubble generating part, the inclined wings being inclined upwardly from the end of the outer periphery to be integral with the bottom end of the discharge port;

An air induction path is formed by a partition rib extending from the outer circumference of the discharge tube into which the lower end of the second body of the bubble generating unit is inserted, and an insertion recess is formed on the upper surface of the disc member connected to the end of the partition rib. An air induction part to be inserted and coupled;

Each of the upper and lower parts has a hollow shape, and the lower end of the discharge pipe of the air induction part is inserted upward. The partition member having a hole in the center partitions the inside, and has an uneven part on the inner peripheral surface of the partition member. It is characterized by the configuration consisting of a connecting tube to be inserted.

According to the present invention, even if the tubular container is used upside down or used upright, the liquid contents contained in the container can be easily discharged in a state where bubbles are easily generated, and after the container is discharged, It can be expected that the effect of increasing the resilience to shorten the time to restore to the original state to be able to reuse in a short time.

In addition, in the present invention, since the bubble generating part itself is accommodated in the stopper, the bubble generating part inside the container can be removed to increase the receiving volume of the contents, so that quantitative filling can be performed, thereby ensuring the reliability of the product.

In addition, according to the present invention, even if a separate seal or packing is not provided in the configuration for implementing the bubble generating unit, the liquid or gel contents contained in the container can be expected to have an effect of preventing leakage such as natural leakage to the outside of the container. In addition, due to the drastic reduction in the number of parts, significant reductions in production costs can be expected.

1 is an exploded perspective view showing the inside of the plug according to the present invention separated
FIG. 2 is a schematic front sectional view in the state in which the plug according to FIG. 1 is coupled; FIG.
FIG. 3 is a partially cutaway view of the stopper shown in FIG. 1, and a partially cutaway perspective view in a state excluding a bubble generating part and an air induction part coupled to the stopper.
Figure 4 is a perspective view partially cut in the bubble generating portion adopted in the present invention
Figure 5 is a perspective view partially cut in the air induction portion adopted in the present invention
Figure 6 is a cross-sectional view showing a coupling state between the stopper and the tubular container according to the present invention
7 is a schematic cross-sectional view showing a state of discharging the contents upside down the container coupled to the stopper adopted in the present invention;
8 is a schematic cross-sectional view showing a state in which air is introduced into the container after the contents are bubbled to the outside and discharged.
9 is a perspective view of the inside of the closure according to the second embodiment of the present invention
10 is a cross-sectional view of the state coupled by FIG.
Fig. 11 is a perspective view, partially cut away, of a plug adopted by the second embodiment of the present invention.
12 is a perspective view partially cut away from the bubble generating unit according to a second embodiment of the present invention
13 is a partial cutaway perspective view of an air induction part according to a second embodiment of the present invention;
14 is a partially cutaway perspective view of a connector according to a second embodiment of the present invention.
15 is a cross-sectional view showing a state in which the contents are discharged with the container upside down in the second embodiment of the present invention.
16 is a cross-sectional view of the bubble is generated in the present invention after the discharge, the outside air flows into the container

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, which are divided into a first embodiment and a second embodiment.

1st Example

As shown in the accompanying Figure 1, the present invention is provided with a bubble generating unit 200 and the bubble generating unit 200 is coupled to enter the stopper 100 and the stopper 100, the lower side of the bubble generating unit 200 outside the air The air inlet 300 is coupled to the tube 400 inside the container while allowing the inside to flow into the container.

The stopper 100 refers to a common stopper generally applicable to both short cap or double cap.

In the embodiment of the present invention mainly described and illustrated by applying to a short cap, but need not be limited to this, of course, it is also possible to apply to a double cap.

Such a stopper 100 is opened in use by a cover (not shown) which is hinged to a portion of the outer peripheral surface of the stopper 100 as shown in FIGS. 1 and 3, and is normally closed after use is completed. It can be understood as the stopper (100).

On the other hand, in the general structure of such a stopper 100, the central portion of the stopper 100 is penetrated to enable the discharge of the contents of the container 500, and forms the discharge port 110 in the central portion of the stopper 100. .

The inner circumferential surface of the discharge port 110 is provided with a content outlet 120 formed integrally.

The contents outlet 120 has a role of allowing the contents contained in the container 500 to flow out to the center, and at the same time, the outside air, that is, the outside air flows into the container 500.

In order to enable such a role, the contents outlet 120 has an outer circumferential surface in the form of concavo-convex shape when viewed in plan view, and the protrusions 122 are spaced apart, and the ends of the protrusions 122 are formed with the inner circumferential surface of the discharge port 110. It is integrally formed and connected.

The protrusion 122 is made long in the longitudinal direction over the entire length of the contents outlet 120.

In this way, the protrusion 122 is integrally connected to the inner circumferential surface of the discharge port 110, so that the outer air holes 121 are naturally formed between the protrusions 122 and the protrusions 122 to the outside through the outer air holes 121. Air was allowed to flow into the interior of the container 500.

On the other hand, the contents outlet 120 is in a state where the upper surface is blocked, but partially cut the plurality of discharge holes 123, the contents contained when the container 500 is squeezed through the discharge hole 123 It is to be discharged, for this purpose the contents outlet 120 is formed in the open state.

In addition, the stepped surface 124 is formed inside the upper end of the contents outlet 120 to be in contact with the upper surface of the main body 210 of the bubble generating unit 200 to be described later.

The bubble generating unit 200 is shown in Figure 4, and as shown in the combined cross-sectional view of Figure 6, while being discharged to the inside of the contents outlet 120 provided in the discharge port 110, the discharge port 110 Inside).

When the bubble generating unit 200 squeezes the container 500, bubbles are formed while the contents pass through the bubble generating unit 200, and when the discharge process of the contents is completed, the outside air is restored for the original condition of the container 500. When the expansion plate 230 partitioning the inside when it is introduced can be flipped so that the original recovery of the container 500 can proceed quickly.

To this end, the bubble generating unit 200 forms a main body 210 having an upper and lower openings in the center, and a mesh body 220 for generating bubbles at upper and lower ends of the main body 210.

The mesh body 220 may be configured differently from the mesh degree in order to maximize the efficiency of the bubble generation.

Meanwhile, the inner circumferential surface of the main body 210 divides the inside of the main body 210 so that the partition plate 211 is integrally formed. The incision hole 212 is spaced at regular intervals in the radial direction by the partition plate 210. Formed to allow the contents introduced through the mesh body 220 at the bottom of the main body 210 to be discharged through the cutting hole 212 of the partition plate 210, the mesh body 220 at the top of the main body 210 again ) To be discharged.

Comprising the partition plate 210 and constituting the cutting hole 212 by the partition plate 210, the contents of the liquid passing through the mesh body 220 at the bottom of the main body 210 passes through the cutting hole 212 And after the pressure is to be ejected in the provided state, it is to be discharged to the outside through the mesh body 220 of the top of the main body 210 to increase the formation rate and bubble generation degree of the bubble.

On the other hand, it is provided with an expansion plate 230 integrally extending from the outer peripheral surface of the main body 210, the end of the expansion plate 230 is provided with an inclined wing 231 having an inclined form.

The extension plate 230 and the inclined wings 231 will preferably be made of a soft material, if it is difficult to double insert injection by a different material from the main body 210, the injection molding of the same material, but the expansion plate 230 and the inclined The thickness of the wing 231 should be made thin so that elasticity is provided.

On the other hand, the inclined wing 231 is in close contact with the extended step surface 111 extending from the lower end of the discharge port 110 of the stopper 100 as shown in FIG.

As described above, when the inclined vanes 231 are in close contact with the expansion step surface 111 of the stopper 100, the outlet port 110, when the container 500 is squeezed and the internal contents flow out, the outside air is discharged. Since it is in a state that does not flow through the outer air 121 of 110, the inclined wings 231 of the expansion plate 230 is maintained in close contact with the expansion step surface 111.

On the contrary, when the contents of the container 500 are discharged and left in the finished state, the container 500 is restored to its original state. In the process, outside air is introduced through the outside air 121 and is introduced. Outside air is to be tilted back 231 of the expansion plate 230, as shown in Figure 8 is made to flow quickly into the container 500, it is to promote the original recovery of the container 500.

To this end, it is of course preferable that the inclined wings 231 are bent upward.

On the other hand, it is preferable that the lower end side of the main body 210 is configured to protrude, in order to facilitate the insertion of the discharge tube 310 of the air induction unit 300 to be described later.

The bottom surface of the expansion plate 230 is when the container 500 is placed upside down or when the contents are squeezed in an upside down state, the contents are in contact with the inclined wing (end) side of the expansion plate 230 in this state ( 231 and the end portion of the expansion plate 230 cover the expansion step surface 111 with a sufficient area, thereby completely preventing the contents from leaking to the outside.

As shown in FIG. 5, the air induction part 300 squeezes the container 500 and guides the discharge of the contents when the contents are discharged to the outside, and at the same time, the container 500 after the discharge is completed. In the process of restoring to the original state, it is a configuration for inducing external air to flow into the container 500.

To this end, the air induction part 300 is integrally formed with a pipe insertion hole 313 in which a discharge tube 310 is formed in the center and a diameter thereof decreases directly below the discharge tube 310.

The pipe insertion hole 313 is intended to be coupled to the pipe 400 for guiding the discharge of the contents provided in the container 500 to the outside, as shown in the cross-sectional view of FIG.

On the other hand, as shown in Figure 5 is provided with an outlet guide 311 having a shape like a mountain to the upper end of the tube insertion hole 313, the outlet hole 312 through which the center of the outlet guide 311 is penetrated Perforate.

That is, after the contents of the container 500 is introduced through the pipe 400, it is configured to be discharged through the outlet hole 312.

The outflow hole 312 is configured to have a relatively small diameter in order to maximize the bubble generation effect in the bubble generating unit 200, so that the flow rate and pressure of the contents are increased.

Meanwhile, the outer circumferential surface of the discharge tube 310 has a partition rib 320 which is formed at an equal interval and integrally formed, and a disc member 340 having a circular shape is integrally connected to an end side of the partition rib 320. Be sure to

As shown in the drawing, the partition rib 320 and the disc member 340 form an air inflow path 330 through which the outside air can flow between the partition rib 320 and the partition rib 320. do.

On the other hand, the bottom surface of the disc member 340 constitutes an insertion hole 341 which extends integrally, and this insertion hole 341 is inside the discharge part 510 of the container 500 as shown in FIG. Forced insertion

As shown in FIG. 6, the disc member 340 contacts the upper surface of the discharge part 510 of the container 500 while the upper surface of the disc member 340 extends the stepped surface of the stopper 100. It is in close contact with the bottom surface of the second extended step surface 112 that extends from (111) to the second extension.

That is, the disk member 340 is a screw member between the stopper 100 and the discharge part 510 of the container 500 by such a structure, as shown in the drawing, as shown in the drawing, the air induction part 300 is always in a firm fixed state. It can be maintained.

Meanwhile, a plurality of inflow paths 314 partially cut to the upper end side of the pipe insertion hole 313, that is, to the lower end side of the outlet guide 311 corresponding to a portion connected to the lower end of the discharge tube 310. Dogs were made up.

This inlet 314 is a means for guiding the air to mix with the contents when the contents inside the container 500 is discharged to the outside.

That is, when the contents inside the container 500 are discharged to the outside, more efficient bubble generation may occur when air is mixed with the contents before passing through the bubble generating unit 200.

Meanwhile, the inflow passage 314 serves as a passage through which the contents of the container 500 can be introduced as well as air inflow.

As shown in FIG. 7, when the container 500 is inverted to squeeze out the contents, the inflow passage 314 serves as a passage through which the contents can be introduced into the discharge tube 310, and the end of the tube 400 is upper. Oriented to the direction that the air inside the container 500, rather than the role of the contents are introduced.

That is, in this case, the end of the tube 400 is directed upward. In this process, the contents of the container 500 are leaned toward the stopper 100, and the end of the tube 400 is upward. Consists of the contents to be plugged toward the stopper 100, the contents are not discharged to the outside of the container 500 through the pipe 400, the contents can be discharged to the outside through the inlet 314, As described above, air in the container 500 is introduced from the end of the pipe 400 and guided to the discharge tube 310, mixed with the liquid content, and then flowed into the bubble generating part 200 before being flowed to the bubble generating unit 200. The period is mixed.

On the other hand, when the contents are used in the state in which the container 500 is directly upright, its role is different. The end of the pipe 400 provided inside the container 500 is sufficiently in contact with the bottom surface of the container 500. ) Can be used to squeeze out the contents of the inside, and the inlet path 314 of the upper end of the tube insertion hole 313 serves to introduce air into the container 500, and the contents and the air as described above. After being guided to the discharge tube 310 side in the mixed state, it flows to the bubble generating unit 200 side.

When the user wants to discharge the contents of the liquid contained in the container 500 according to the present invention having the above configuration to the outside, the user presses the container 500 by hand, as shown in FIG. 7. As the contents are discharged to the outside through the pipe 400, the air inside the container 500 is introduced into the inlet passage 314 of the upper end of the tube insertion hole 313, the outlet guide of the upper end of the tube insertion hole (313) ( Discharged through the outlet hole 312 formed in the 311, and then the contents guided to the discharge tube 310 flows into the main body 210 of the bubble generating unit 200 is connected to the discharge tube 310 do.

As such, the contents introduced into the main body 210 pass through the incision hole 212 which is radially perforated by the lower mesh 220 and the partition plate 211 of the bubble generator 200, and then again. In the state where the bubble is generated through the upper mesh body 220 of the main body 210, the bubble is generated to the outside through the discharge hole 123 which is radially perforated in the upper surface of the discharge port 110 of the stopper 100 Since it is completely discharged from the state, it can be used by the user.

On the other hand, when using the internal contents in the inverted state of the container 500 as shown in Figure 7 while the contents are discharged to the inlet path 314 side cut in the end side of the tube insertion hole 313 is inserted into the tube 400 At the same time, the air inside the container 500 is introduced through the end of the pipe 400 and guided to the discharge tube 310 in the mixed state, and then through the above process, the discharge port 110 of the stopper 100 is discharged. Bubbles are generated and discharged to enable use by the user.

As such, the contents of the container 500 are bubbled by the bubble generating part 200 to the outside, and after being discharged and used, the container 500 needs to be quickly restored to its original state. After the outside air flows through the outer circumferential surface side outer pores 121 of the contents outlet 120, the inclined wings 231 of the bubble generating unit 200 are flipped downward as shown in FIG. 8, and the bubble The outside air passed while tilting the inclined wing 231 of the generator 200 passes through the air induction path 330 of the air induction part 300, and then enters the inside of the container 500, and returns to the original shape of the container 500. The return time can be significantly shortened.

Second Example

Unlike the first embodiment described above, the present invention can be achieved by the accompanying drawings of FIGS. 9 to 16.

As shown in the accompanying Figure 9, the present invention is provided with a bubble generating unit 200 and the bubble generating unit 200 is coupled to enter the stopper 100 and the stopper 100, the lower side of the bubble generating unit 200 outside the air The air inlet 300 is coupled to the tube 400 inside the container while allowing the inside to flow into the container.

The stopper 100 is applicable to both a short cap or a double cap to mean a general stopper, in the embodiment of the present invention is described and shown mainly applied to a short cap, but need not be limited to this, of course It is also possible to apply a double cap.

Such a stopper 100 is opened in use by a cover (not shown) which is hinged to a part of the outer circumferential surface of the stopper 100 as shown in FIGS. 9 to 11, and is normally closed after use is completed. It can be understood as the stopper (100).

On the other hand, in the general structure of such a stopper 100, the central portion of the stopper 100 is penetrated to enable the discharge of the contents of the container 500, and forms the discharge port 110 in the central portion of the stopper 100. .

At the lower end side of the discharge port 110, an insertion hole 113 is formed to be inserted into and fixed to the insertion recess 351 formed as the upper surface of the disc member 350 of the air induction part 300 which will be described later.

As shown in FIG. 12, the bubble generating unit 200 forms a hollow cylindrical body and is inserted and coupled from the lower end of the discharge port 110 to be positioned in the same plane as the upper surface side of the discharge port 110. While the contents filled in the 500 are supplied to the container 500 through the bubble generating unit 200, bubbles are generated by mixing with air supplied from the lower side of the pipe 400. It is to be supplied through the discharge port 110.

The bubble generating unit 200 forms a cylindrical body in which the first body 210a and the second body 210b are integrally formed, and the outer diameter of the first body 210a is larger than the outer diameter of the second body 210b. By forming relatively large, the stepped portion is naturally formed on the boundary between the second body (210b) and the first body (210a).

On the other hand, the mesh body 220 is formed in each of the inner peripheral surface of the upper end side of the first body (210a) and the inner peripheral surface of the lower end side of the second body (210b).

The mesh body 220 is to allow the bubble to be generated by properly mixing the contents and the air flowing into the bubble generating unit 200 side, it can be configured differently the mesh degree to maximize the efficiency of the bubble generation will be.

On the other hand, the expansion plate 230 in close contact with the step forming the boundary between the first body (210a) and the second body (211) is fitted.

The expansion plate 230 is made of a soft material, the outer peripheral side is to be made inclined upwardly inclined wings 231 integrally, to control the lower end of the discharge port 110.

The expansion plate 230 should be configured to have a thin thickness to provide elasticity, and as shown in FIGS. 10 and 15 to 16, an extension step surface 111 extending and extending from the lower end of the discharge port 110 of the stopper 100. ) And the inclined wings 231 of the extension plate 230 to be in close contact.

As described above, when the inclined vanes 231 are in close contact with the expansion step surface 111 of the stopper 100, the outlet port 110, when the container 500 is squeezed and the internal contents flow out, the outside air is discharged. Since the state does not flow through the 110, the inclined wings 231 of the expansion plate 230 is to maintain a state in close contact with the expansion step surface 111.

On the contrary, when the contents of the container 500 are discharged and left in the finished state, the air is introduced through the discharge port 110 in the process of recovering the container 500, and the introduced outside air is expanded ( The inclined vanes 231 of the 230 are to be folded back and the inflow is made quickly into the container 500 to facilitate the original recovery of the container 500.

To this end, it is of course preferable that the inclined wings 231 are bent upward as described above.

The bottom surface of the expansion plate 230 when the container 500 is placed upside down or when squeezing the contents in an upside down state, the contents are in contact with the state, even in this state the inclined wings 231 of the expansion plate 230 Covering the expansion step surface 111 with a sufficient area, it is possible to completely prevent the phenomenon that the contents leak out.

As shown in FIG. 13, the air induction part 300 squeezes the container 500 and guides the discharge of the contents when the contents are discharged to the outside, and at the same time, after the discharge is completed, the container 500 returns to its original state. In the process of being restored, it includes a configuration for inducing outside air to flow into the container 500.

To this end, the air induction part 300 is an air induction path 330 by the partition rib 320 extending from the outer circumference of the discharge tube 310, the lower end of the second body 210b of the bubble generating unit 200 is fitted. The insertion groove 351 is formed on the upper surface of the disc member 350 which is formed and connected to the end of the partition rib 320 so that the lower insertion hole of the outlet 100 of the stopper 100 is inserted and coupled thereto.

In addition, the lower end of the discharge tube 310 is to be connected by a connection pipe 360 for connecting the connection to the tube 400 leading to the inner bottom of the container 500.

Directly below the discharge tube 310, the tube insertion hole 313 is integrally formed to be inserted and coupled to the connection pipe 360 described above, and a partition plate 315 is formed to partition the discharge tube 310 inside. The through-hole 316 is formed at the center of the partition plate 315.

In the through hole 316, the air existing in the container 500 is discharged to the discharge port 110. The inside of the container 500 introduced through the uneven portion 363 of the connecting pipe 360 to be described later. The air supplied through the contents and the through hole 316 is mixed and passes through the bubble generating unit 200 to form bubbles.

On the other hand, the outer side of the discharge tube 310 is provided with a disc member 350, the disc member 350 and the discharge tube 310 to be connected by a partition rib 320 to be configured to be spaced apart a predetermined interval. An air induction path 330 is formed between the compartment rib 320 and the compartment rib 320.

Insertion grooves 351 are formed on the upper surface side of the disc member 350 so as to be inserted into the insertion holes 113 formed by connecting to the peripheral edge of the bottom surface side of the discharge port 110 of the stopper 100.

As such, the bubble generating part 200, the air induction part 300, and the pipe 400 are fixed to the stopper 100 by coupling between the insertion recess 351 and the insertion hole 113 of the disc member 350. do.

On the other hand, the connection pipe 360, the pipe insertion hole 313, which is the lower end of the discharge pipe 310 of the air induction portion 300 is inserted and connected, and also the pipe 400 to the lower side of the connection pipe 360 While having the form to be connected, the container 500 into the space between the outer peripheral surface of the tube insertion hole 313 of the lower end of the discharge tube 310 coupled with the connecting tube 360 when the container 500 is turned over to discharge the contents to the discharge port 110 side By allowing the contents of the 500 to be introduced, the contents of the 500 may be introduced into the bubble generator 200 through the discharge tube 310 to serve as a guider for introducing and inducing the contents.

To this end, that is, in order to maintain the separation between the pipe insertion hole 313 and the outer peripheral surface of the discharge pipe 310 of the connection pipe 360, the concave-convex portion 363 is formed on the inner peripheral surface of the connection pipe 360.

At this time, the position where the concave-convex portion 363 is formed in the connection pipe 360 is formed only on the inner peripheral surface of the upper side with respect to the central portion of the connection pipe 360. In addition, a partition member 361 is formed to partition the inner center of the connection pipe 360, and a hole 362 is formed at the center of the partition member 361.

The hole 362 is the end of the tube 400 in order to invert the container 500 to mix with the contents of the container 500 when the user squeezes the contents and to generate bubbles in the bubble generating unit 200. Through it serves to guide the air remaining in the container 500.

Meanwhile, the lower inner circumferential surface of the lower portion of the connection pipe 360, that is, the partition member 361 is formed to have a flat shape, and is pressed and inserted into the upper outer circumferential surface of the upper pipe 400.

Using the present invention having the above-described configuration, using a tube-shaped container 500 for receiving the contents of the liquid, such as cosmetics will be described a use form for causing the user to use the bubble generation.

First, the user opens the stopper 100. The stopper 100 opens the upper stopper by using a stopper 100 that can be rotated and opened around the hinge as can be seen by the above description and the accompanying drawings. A visual inspection of the discharge port 110 may be in an open state.

In this state, the user flips the container 500 to squeeze the container 500, and at this time, the contents contained in the container 500 have a phenomenon in which all of them are directed toward the stopper 100. In the end side, the contents do not come into contact with each other.

When the container 500 is squeezed upside down, the contents are not introduced through the lower end side of the pipe 400, but are connected to connect the pipe 400 and the pipe insertion hole 313 of the discharge pipe 310 of the air induction part 300. In the tube 360, the contents are introduced through the space spaced apart from the outer peripheral surface of the tube insertion hole 313 of the connecting tube 360 and the discharge tube 310 as described above.

That is, as described above, the contents are introduced through the space of the concave-convex portion 363 formed toward the inner circumferential surface side of the connecting tube 360, and then flowed into the end of the tube insertion hole 313, thereby discharging the discharge tube 310 of the air induction part 300. Guided along, it will have a path that flows into the bubble generating unit 200 side described above.

While the contents are introduced into the bubble generating unit 200 which is located directly below the stopper 100, the air is also simultaneously introduced into the bubble generating unit 200 and mixed with the contents to generate bubbles. do.

For this purpose, that is, the air is guided to the bubble generating unit 200 side, the air remaining inside the container 500 is introduced through the end of the tube 400 leading to the bottom of the container 500 as shown in the drawing In addition, the air introduced through the pipe 400 divides the plate across the center of the discharge pipe 310 of the air induction part 300 through a hole 362 which is punctured in the center of the partition member 361 of the connection pipe 360. Passing through the through hole 316 of 315 is passed through the bubble generating unit 200.

Therefore, the contents of the container 500 flows into the pipe insertion hole 313 side of the discharge pipe 310 through the inner peripheral surface uneven portion 363 at the upper end of the connecting pipe 360, and at the same time, the air inside the container 500 Inflow to the end side of the 400 is introduced through the inner hole 362 of the connection pipe 360 is supplied to the through hole 316 which is perforated in the center of the partition plate 315 of the discharge pipe 310 discharge tube 310 ) Inside the vessel 500 and the air supplied through the tube 400 is mixed to generate a primary bubble.

In addition, the primary mixture of the contents and the air introduced into the discharge tube 310 flows into the main body 210 of the bubble generator 200 and passes through the mesh body 220 at the bottom of the second body 210b. This is generated and then the final bubble is generated while passing through the upper mesh 220 of the first body (210a), to supply a high-quality bubble available to the user through the discharge port 110 of the stopper (100) .

At this time, the contents of the container 500 are inclined in the direction of the stopper 100, the contents of which are inclined wings 231 of the outer peripheral surface of the expansion plate 230 is coupled to the outer peripheral surface of the bubble generating unit 200 in the form of a band (100) By maintaining the state in close contact with the expansion step surface 111 of the inner circumferential surface, the phenomenon that the contents are discharged to the stopper 100 side can be completely prevented.

Subsequently, when the use of the contents inside the container 500 generates bubbles and the use is completed, the user stands up the container 500. In this process, the crushed shape of the container 500 is returned to the container 500 side for the original return. The outside air flows through the process.

As described above, in the process of introducing the outside air into the container 500, the outside air introduced through the discharge port 110 may be inclined by the air induction unit while the inclined wings 231 provided as the outer circumferential surface of the expansion plate 230 of the bubble generating unit 200. Through the air induction path 330 of 300, the container 500 is introduced into the container 500, and the container 500 is quickly restored.

In this case, the outside air passes through the air inflow path 330 of the air induction part 300, not the path that flows through the pipe 400.

On the other hand, in the present invention, even when the container 500 is up, the inner contents can be discharged while generating bubbles, that is, in this case, as described above, air is not induced through the pipe 400, but on the contrary, the pipe ( Through the process 400, the contents of the container 500 is introduced, and the air inside the container 500 is introduced into the connection pipe 360 as opposed to the above, and then discharged through the uneven portion 363. It is introduced into the bubble generating unit 200 side through the tube insertion hole 313 of (310).

At the same time, the contents pass through the discharge pipe 310 of the air induction part 300 along the pipe 400, and then bubbles are generated and discharged to the discharge port 110 of the stopper 100 through the bubble generating part 200. .

As such, even when the container 500 is directly upright, the contents of the container 500 may be mixed with air to generate bubbles, and the same effect may be obtained even when the container 500 is upside down. The container 500 may be used until all the contents in the container are exhausted, as well as the bubble is generated through a three-step process, such that the use of the bubble can be satisfied by the consumer. This will improve the reliability of the product.

100; Stopper 110; Outlet
111; Extended step surface 112; 2nd extension step surface
113; Insertion hole 120; Outlet
121; Open air 122; spin
123; Incision 200; Bubble generator
210; Main body 210a; The first body
210b; Second body 211; Partition plate
212; Incision 220; Mesh
230; Extension 231; Beveled wings
300; Air induction part 310; Discharge pipe
311; Spill guide 312; Outflow hole
313; Tube insertion hole 314; Funnel
315; Compartment 316; Passage
320; Compartment rib 330; Air route
340; Disc member 341; parenthesis
350; Disc member 351; Insertion groove
360; Connector 361; Compartment
362; Hole 363; Uneven portion
400; Tube 500; Vessel

Claims (7)

In the stopper structure coupled to the discharge portion of the tubular container,
The outer peripheral surface is formed irregularities and the projections and the external pores are formed alternately, the upper surface is blocked in the discharge hole in the blocked state and the lower surface is open, the contents outlet which is connected to the inner peripheral surface of the stopper integrally;
The body is inserted and inserted from the lower side of the contents outlet, the main body having a mesh body at the upper and lower ends of the central portion, integrally provided with a partition plate having an incision hole in the inner circumferential surface, and a disc shape integrally extending from the outer peripheral surface of the lower end of the main body. And the expansion plate is made of, the bubble generating portion made of integrally inclined wings inclined from the end of the expansion plate,
It is inserted into the lower end of the bubble generating part to form a central discharge tube and the tube is inserted into the discharge tube lower end, and a disc member is formed on the end side of the partition rib extending from the outer peripheral surface of the discharge tube, the air flow guided by the partition rib Is formed, and the stopper structure having a bubble generating portion, characterized in that consisting of an air induction portion having an insertion port extending integrally to the lower surface of the disc member.
The method of claim 1,
A tube inserting port which is integrally extended to the lower side of the discharge tube but has an outer diameter relatively smaller than the discharge tube and is inserted into the container to guide the contents to be discharged to the outside by being accommodated inside the container; Stopper structure having a bubble generating portion comprising.
3. The method of claim 2,
A bubble generating part includes an outlet guide formed in a shape of a mountain at an interface of the discharge tube and the pipe insertion hole, and an outlet hole for discharging the contents of the container is drilled on an end side of the discharge guide having a mountain shape. Having a stopper structure.
The method of claim 2,
A stopper structure having a bubble generating part including a plurality of inflow paths in the upper end side of the pipe insertion hole at the boundary between the discharge pipe and the tube insertion hole, so that contents of the container can be discharged through the inflow path.
In the stopper structure coupled to the discharge port of the tubular container,
A bubble generating unit having a hollow form and forming a mesh in each of the upper and lower ends to be coupled to a lower end of the discharge port,
An expansion plate for forming a soft disc shape fitted into the outer circumferential surface of the bubble generating unit, the inclined wings being inclined upwardly from the end of the outer circumferential portion integrally to control the bottom of the discharge port;
An air induction path is formed by a partition rib extending from the outer circumference of the discharge tube into which the lower end of the second body of the bubble generating unit is inserted, and an insertion recess is formed in the upper surface of the disc member connected to the end of the partition rib. An air induction part to be inserted and coupled;
Each of the upper and lower parts has a hollow shape, and the lower end of the discharge pipe of the air induction part is inserted upward. The partition member having a hole in the center partitions the inside, and has an uneven part on the inner peripheral surface of the partition member. A stopper structure having a bubble generating unit, characterized in that the configuration consisting of a connecting pipe to be inserted.
The method of claim 5, wherein
The bubble generating unit has a bubble that includes a top of the first body diameter is formed relatively larger than the bottom side of the second body diameter starting from the center portion, and the strainer is provided to the top of the first body and the bottom of the second body, Stopper structure having a generation part.
The method according to claim 6,
A stepped portion is formed between the first body and the second body, and the expansion plate is attached to the stepped and includes a stopper structure having a bubble generating portion.

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