JP7511989B2 - Squeeze pouring container - Google Patents

Description

The present invention relates to a squeeze dispenser.

Squeeze pouring containers are known that can pour liquid contents such as soy sauce and other foods by squeezing (pressing) the body of the container body. For example, Patent Document 1 describes a squeeze pouring container that has a container body, a pouring plug attached to the mouth of the container body, and an inner plug attached to the pouring plug, in which the inner plug has a cylindrical part that forms an internal flow path and a flow path narrowing part attached to the inner surface of the pouring plug, and a flow limiting part that has a cross-shaped slit that extends radially along the diameter direction and limits the flow rate of the internal flow path, and the inner plug is formed of a flow path forming member that forms a part of the cylindrical part, and a valve member that forms the flow limiting part and another part of the cylindrical part. By providing such an inner plug, the flow rate of the contents can be restricted, thereby suppressing dripping when the container is tilted to pour the contents, and excessive splashing of the contents during the squeeze operation.

Patent No. 6242708

However, in conventional squeeze dispenser containers such as those described above, the valve member is usually made of silicone resin, so there is room for improvement in terms of recyclability. That is, in conventional squeeze dispenser containers such as those described above, for example, when the container body is made of polyethylene terephthalate (PET) resin, the dispenser is discarded as PET resin recycling waste without being separated, and silicone resin, which has a specific gravity equivalent to that of PET resin, is not separated from the PET resin during the recycling process and may end up being mixed into the recycled materials.

The present invention aims to solve these problems, and its objective is to provide a squeeze pouring container that has good recyclability and can prevent dripping when tilted to pour the contents and excessive spilling of the contents during the squeeze operation.

The squeeze pouring container of the present invention comprises a container body having a body and a cylindrical mouth portion connected to the upper end of the body and accommodating a content, a pouring tap attached to the mouth portion, and an inner plug attached to the pouring tap, wherein the inner plug has a bottomed cylindrical portion forming an internal flow path and a flow path throttle portion attached to the inner surface of the pouring tap, and a flow rate limiting portion for limiting a flow rate of the internal flow path, wherein the flow path throttle portion has only one opening extending from a cylindrical wall of the bottomed cylindrical portion to an outer periphery of a bottom wall of the bottomed cylindrical portion , and a flange portion extending radially outward from the cylindrical wall above the opening and attached to the inner surface of the pouring tap, and wherein the flow rate limiting portion the body portion having a plurality of connecting pieces arranged in the circumferential direction, each of which extends in the circumferential direction and has an end on one circumferential side connected to the inner peripheral surface of the cylindrical wall of the flow path narrowing portion, and a movable body connected to the end on the other circumferential side of each of the connecting pieces, which is pushed by the contents when a squeeze operation is performed on the body portion and moves upward relative to the flow path narrowing portion due to elastic deformation of the plurality of connecting pieces, thereby reducing the restriction of the flow rate , and the inside plug is composed of a flow path forming member which forms at least a part of the cylindrical wall and the bottom wall, and a valve member which is attached to the flow path forming member and forms at least another part of the cylindrical wall and the flow restriction portion .

In the squeeze pouring container of the present invention, in the above configuration, it is preferable that the opening is a long hole extending in the vertical direction.

In the squeeze pouring container of the present invention, in the above configuration, it is preferable that the opening is trapezoidal in shape, the width of which increases downward.

In the squeeze pouring container of the present invention, in the above configuration, it is preferable that the number of connecting pieces is four.

In the squeeze dispensing container of the present invention, in the above configuration, it is preferable that the moving body and the multiple connecting pieces are formed by the same number of slits as the number of connecting pieces.

In the above configuration, the squeeze dispensing container of the present invention has a cap that is detachable from the dispensing tap, a transition tap body that has a sealing part that seals the dispensing outlet of the dispensing tap and is attached to the cap, and a sealing tube that is connected to the transition tap body via a part that is intended to break and is attached to the dispensing tap, and it is preferable that the dispensing tap has an attachment tube that has a locking part that is elastically deformed to overcome and lock onto the mouth from above, and a circumferentially weakened part that is broken to release the locking of the locking part to the mouth.

The present invention provides a squeeze pouring container that has good recyclability and can suppress dripping when tilted to pour the contents and excessive spilling of the contents during the squeeze operation.

1 is a vertical cross-sectional view showing an unopened squeeze pouring container according to one embodiment of the present invention. FIG. FIG. 2 is a bottom view of the valve member shown in FIG. 1 . FIG. 2 is a vertical cross-sectional view showing the squeeze pouring container shown in FIG. 1 in an opened state.

The following describes an embodiment of the present invention with reference to the drawings.

In this specification, the vertical direction means the direction along the central axis O of the mouth 2a, the upward direction means the direction from the body toward the mouth 2a, the downward direction means the opposite direction, the radial direction means the direction along a straight line perpendicular to the central axis O, the circumferential direction means the direction going around the central axis O, and the longitudinal section means a section including the central axis O.

The squeeze dispensing container 1, which is one embodiment of the present invention shown in Figure 1, has a container body 2, a dispensing plug 3, an inner plug 4, a transition plug 5, and a cap 6. The inner plug 4 is composed of a flow path forming member 4a and a valve member 4b. The transition plug 5 is composed of a transition plug body 7 and a sealing tube 8.

The container body 2 is composed of a PET resin bottle formed by blow molding. The spout plug 3, flow path forming member 4a, valve member 4b, transfer plug 5, and cap 6 are each integrally molded by injection molding of polypropylene resin or polyethylene resin. However, it is preferable that the flow path forming member 4a is made of polypropylene resin and the valve member 4b is made of polyethylene resin. The container body 2 is not limited to being made of PET resin, and may be made of, for example, polypropylene (PP) resin or polyethylene (PE) resin.

The container body 2 has a cylindrical body with a bottom (not shown) that can be elastically deformed by a squeezing operation, and a cylindrical mouth portion 2a that is connected to the upper end of the body and has a central axis O as its center, and forms a storage space inside for storing liquid contents.

The contents are not particularly limited as long as they are liquid, but for example, they can be food such as soy sauce or soup. In addition, the squeeze pouring container 1 of this embodiment is particularly suitable for use with low-viscosity contents.

The spout plug 3 has an attachment tube 3a attached to the mouth, a cylindrical lower peripheral wall 3b that extends upward from the inner peripheral edge of the attachment tube 3a and is arranged coaxially with the central axis O, a circular annular lower annular wall 3c that extends radially inward from the upper end of the lower peripheral wall 3b, a cylindrical upper peripheral wall 3d that extends upward from the inner peripheral edge of the lower annular wall 3c and is arranged coaxially with the central axis O, a circular annular upper annular wall 3e that extends radially inward from the upper end of the upper peripheral wall 3d, and a cylindrical tip tube 3f with a reduced diameter at the top that extends upward from the inner peripheral edge of the upper annular wall 3e and is arranged coaxially with the central axis O.

The mounting tube 3a has an outer tube 3g that contacts the outer peripheral surface of the mouth 2a, an inner tube 3h that contacts the inner peripheral surface of the mouth 2a, and a top wall 3i that contacts the upper end surface of the mouth 2a. The mounting tube 3a also has a locking portion 3j that is elastically deformed to overcome and lock onto the mouth 2a from above via an undercut shaped portion, and a circumferentially weakened portion 3k that is broken to release the locking of the locking portion 3j to the mouth 2a. The locking portion 3j and the circumferentially weakened portion 3k are provided on the outer tube 3g. The mounting tube 3a is attached to the mouth 2a by the locking portion 3j.

The inner peripheral surface of the lower peripheral wall 3b is provided with a number of vertical ribs 3l that hang down from the underside of the lower annular wall 3c and are aligned in the circumferential direction. The outer peripheral surface of the lower peripheral wall 3b is provided with a male thread portion 3m.

A pouring outlet 3n is formed at the upper end of the tip tube 3f for pouring out the contents.

The transfer plug body 7 has a convex sealing portion 7a that is inserted from above into the outlet 3n to seal the outlet 3n, a top wall 7b that is connected to the upper end of the sealing portion 7a, and a cylindrical peripheral wall 7c that hangs down from the outer periphery of the top wall 7b and is arranged coaxially with the central axis O.

The sealing tube 8 is cylindrical and arranged coaxially with the central axis O, and the upper end of the sealing tube 8 is connected to the outer peripheral edge at the lower end of the peripheral wall 7c of the transition plug body 7 via a breakable portion 9. The sealing tube 8 is also attached to the outer peripheral surface of the upper peripheral wall 3d of the spout plug 3 by elastic deformation so that it overcomes and engages from above.

The cap 6 has a top wall 6a that covers the top wall 7b of the transition plug body 7, a locking tube 6b that hangs down from the top wall 6a and is engaged with the outer peripheral surface of the peripheral wall 7c of the transition plug body 7 from above by elastic deformation via an undercut shaped portion, a threaded tube 6d that hangs down from the top wall 6a and has a female threaded portion 6c on its inner peripheral surface, and an outer peripheral tube 6e that hangs down from the outer peripheral edge of the top wall 6a and covers the threaded tube 6d. The peripheral wall 7c of the transition plug body 7 is attached to the cap 6 by the locking tube 6b. The cap 6 is attached to the spout plug 3 by screwing the female threaded portion 6c into the male threaded portion 3m.

As shown in Figures 1 to 4, the inner plug 4 is attached to the inner surface of the tapered dispensing tube 3o, which is composed of the lower peripheral wall 3b, the lower annular wall 3c, the upper peripheral wall 3d, the upper annular wall 3e, and the tip tube 3f.

The plug 4 has a flow path restricting section 10 including a bottomed cylindrical section 10b forming an internal flow path 10a and a flange section 10c extending radially outward from the bottomed cylindrical section 10b and attached to the inner surface of the pouring tube 3o by fitting, and a flow restricting section 11 for restricting the flow rate of the internal flow path 10a. The bottomed cylindrical section 10b is made up of a cylindrical wall 10d and a bottom wall 10e. The cylindrical wall 10d is made up of a cylindrical upper cylindrical wall 10f arranged coaxially with the central axis O, and a lower cylindrical wall 10g that hangs down from the lower end of the inner peripheral surface of the upper cylindrical wall 10f, is arranged coaxially with the central axis O, and has an inverted truncated cone shape with a diameter decreasing downward. The bottom wall 10e extends radially inward from the lower end of the cylindrical wall 10d and has a disk shape perpendicular to the central axis O. The flange portion 10c extends radially outward from the lower end of the outer circumferential surface of the upper cylindrical wall 10f.

The flow path forming member 4a forms the flange portion 10c, the entire lower portion of the upper cylindrical wall 10f and the inner peripheral portion of the vertical middle portion, the lower cylindrical wall 10g, and the bottom wall 10e. The valve member 4b forms the entire upper portion of the upper cylindrical wall 10f and the outer peripheral portion of the vertical middle portion, and the flow restriction portion 11.

The flow path restrictor 10 has only one opening 10h that extends from the vertical middle of the lower cylindrical wall 10g to the outer periphery of the bottom wall 10e. The opening 10h is a long hole extending in the vertical direction. The opening 10h is also trapezoidal in shape, the width of which increases downward. In Figure 1, the shape of the opening 10h as viewed along the arrow A (i.e., as viewed from an angle 90° different from that in Figure 1, centered on the central axis O) is shown by a two-dot chain line.

The width of the opening 10h is about 1 mm to 1.5 mm (in the case of a trapezoidal shape, about 1 mm at the top end and about 1.5 mm at the bottom end), and the length of the opening 10h (length along the vertical direction) is preferably about 3 mm, but this can be adjusted appropriately depending on the viscosity of the contents. The shape of the opening 10h is not limited to a trapezoidal shape, nor is it limited to a long hole extending along the vertical direction.

The flange portion 10c is attached to the spout tap 3 by the outer peripheral surface of the flange portion 10c being elastically deformed to overcome and engage with the inner peripheral surfaces of the vertical ribs 3l from below via the undercut shaped portions, and the upper surface of the flange portion 10c abutting against the lower surface of the lower annular wall 3c.

As shown in Figures 1 and 2, the flow rate restricting section 11 has a number of connecting pieces 11a arranged in the circumferential direction, each of which extends in the circumferential direction and has one circumferential end connected to the inner circumferential surface of the upper part of the upper tube wall 10f, and a moving body 11b connected to the other circumferential end of each connecting piece 11a, which is pushed by the contents when a squeeze operation is performed on the body and moves upward relative to the flow rate restricting section 10 due to elastic deformation of the connecting pieces 11a, thereby reducing the restriction of the flow rate of the internal flow path 10a. In this embodiment, the number of connecting pieces 11a is four. However, the number of connecting pieces 11a is not limited to four and can be changed as appropriate depending on the viscosity of the contents, etc.

The moving body 11b and the multiple connecting pieces 11a are formed by slits 11c in the same number as the connecting pieces 11a. The multiple slits 11c are lined up in the circumferential direction. Each slit 11c is made up of a circumferential side portion that forms the outer periphery of the connecting piece 11a, a circumferential other side portion that forms the inner periphery of the connecting piece 11a adjacent to the other circumferential side of the connecting piece 11a, and a circumferential intermediate portion that connects the circumferential side portion and the circumferential other side portion. Each slit 11c has an inverted V-shaped vertical cross section over its entire circumferential length.

In the natural state of the flow restricting section 11, before the multiple connecting pieces 11a are elastically deformed, each slit 11c has a smallest gap, and as a result, the flow restricting section 11 most restricts the flow rate of the internal flow path 10a. When the moving body 11b is pushed by the contents and moves upward relative to the flow path narrowing section 10, causing the multiple connecting pieces 11a to elastically deform, the gaps of each slit 11c expand, and as a result, the restriction of the flow rate of the internal flow path 10a by the flow restricting section 11 decreases. Note that each slit 11c does not have to have a gap in the natural state (i.e., the opening and closing section 11 may close the internal flow path 10a in the natural state).

The valve member 4b is composed of a disk-shaped plate wall 11d with multiple slits 11c, and a cylindrical outer wall 11e that hangs down from the outer edge of the plate wall 11d. The valve member 4b is attached to the flow passage forming member 4a by the outer wall 11e (i.e., the outer peripheral portion of the vertical middle part of the upper cylindrical wall 10f) being elastically deformed to overcome and engage the inner peripheral portion of the vertical middle part of the upper cylindrical wall 10f from above via an undercut shaped portion. The outer wall 11e has an outer diameter equal to the inner peripheral surface of the upper peripheral wall 3d.

To start using the squeeze dispensing container 1, first twist the cap 6 in the unscrewing direction to break the breakable portion 9 of the transfer plug 5. The sound and vibrations that occur during this process allow the user to know that the squeeze dispensing container 1 has not been tampered with. By further twisting the cap 6 to remove it from the dispensing plug 3, the sealing portion 7a comes out of the dispensing outlet 3n, opening the dispensing outlet 3n as shown in FIG. 3.

From this state, the container body 2 is tilted and the body is squeezed to elastically deform the body, which allows the contents in the storage space to be poured out from the spout 3n. At this time, the flow path inside the spout plug 3 is narrowed by the flow path narrowing section 10 of the inner plug 4, and the flow rate of the internal flow path 10a of the bottomed tubular section 10b of the flow path narrowing section 10 is restricted by the flow rate restricting section 11. This prevents the contents from spilling out of the spout 3n simply by tilting the container body 2, and prevents the contents from spilling out of the spout 3n with excessive force when the squeeze operation is performed. In addition, squeezing the body reduces the restriction of the flow rate of the internal flow path 10a by the flow rate restricting section 11, allowing the contents to be poured out with moderate force.

In addition, the flow path narrowing section 10 appropriately narrows the flow path by the flange section 10c, the bottomed cylindrical section 10b, and the opening 10h of the bottomed cylindrical section 10b, so that the contents can be poured out quickly and with an appropriate force in response to the squeeze operation.

When disposing of the squeeze dispensing container 1, the circumferentially weakened portion 3k of the mounting tube 3a of the dispensing tap 3 is broken to release the engagement of the engagement portion 3j with the mouth portion 2a, and the dispensing tap 3 can be removed from the container body 2 together with the inner plug 4. Therefore, the container body 2 can be disposed of as recycled waste in a separated state. Although not shown, the mounting tube 3a also has a vertically weakened portion that is continuous with the circumferentially weakened portion 3k, so that when disposing of the container separately, the circumferentially weakened portion 3k can be easily broken by breaking the vertically weakened portion.

In addition, even if the user inadvertently discards the squeeze dispensing container 1 without removing the dispensing plug 3 and discarding the container body 2 as recyclable waste without sorting it, the inner plug 4 and the dispensing plug 3 are made of PP resin or PE resin material, which has a lower specific gravity than the PET resin material that forms the container body 2, so they can be easily separated during the recycling process by taking advantage of the difference in specific gravity. This makes it possible to prevent PP resin or PE resin from being mixed into the PET resin recycled material.

In the squeeze pouring container 1 of this embodiment, the stopper 4 has a flow path narrowing section 10 and a flow rate limiting section 11, the flow path narrowing section 10 has only one opening 10h extending from the cylindrical wall 10d to the outer periphery of the bottom wall 10e, and the flow rate limiting section 11 has multiple connecting pieces 11a and a moving body 11b, so that dripping when the container is tilted to pour out the contents and excessive splashing of the contents during the squeeze operation can be suppressed, and good recyclability can be achieved. In other words, the stopper 4 of this embodiment has a flow rate limiting function equivalent to that of the stopper described in Patent Document 1, and can also achieve good recyclability. In addition, the valve member 4b of this embodiment does not need to be made of silicone resin as in the case of the valve member described in Patent Document 1, so it can be formed at low cost.

In addition, in this embodiment, the opening 10h is a long hole extending in the vertical direction, which allows for even better flow restriction function.

In addition, in this embodiment, the opening 10h is trapezoidal in shape, with its width increasing downward, which allows for even better flow restriction functionality.

In addition, in this embodiment, one circumferential end of each connecting piece 11a is connected to the inner circumferential surface of the tube wall 10d, which provides an even better flow restriction function.

In addition, in this embodiment, the number of connecting pieces 11a is four, which allows for even better flow restriction function to be achieved.

In addition, in this embodiment, the moving body 11b and the multiple connecting pieces 11a are formed with the same number of slits 11c as the connecting pieces 11a, so an even better flow rate limiting function can be achieved.

In addition, in this embodiment, the inner plug 4 is composed of a flow path forming member 4a and a valve member 4b, so the inner plug 4 can be realized with a simple structure.

In addition, in this embodiment, the flow path restricting portion 10 has a flange portion 10c that extends radially outward from the cylindrical wall 10d above the opening 10h and is attached to the inner surface of the spout tap 3, thereby achieving an even better flow rate restricting function.

In addition, in this embodiment, a transfer plug 5 is provided, and the attachment tube 3a of the dispensing plug 3 has a locking portion 3j, so that a tamper-proof function can be realized. In addition, the attachment tube 3a further has a circumferentially weakened portion 3k, so that good recyclability can be ensured.

The present invention is not limited to the above-described embodiment, and various modifications are possible without departing from the spirit of the invention.

Therefore, the squeeze dispenser 1 of the above embodiment can be modified in various ways, for example as described below.

The squeeze pouring container 1 has a container body 2 that has a body and a cylindrical mouth 2a that is connected to the upper end of the body and that contains the contents, a pouring plug 3 that is attached to the mouth 2a, and an inner plug 4 that is attached to the pouring plug 3. The inner plug 4 has a bottomed cylindrical portion 10b that forms an internal flow path 10a and has a flow path throttle portion 10 that is attached to the inner surface of the pouring plug 3, and a flow rate limiting portion 11 that limits the flow rate of the internal flow path 10a. The flow path throttle portion 10 extends from the cylindrical wall 10d of the bottomed cylindrical portion 10b to the bottom wall 10e of the bottomed cylindrical portion 10b. Various modifications are possible as long as the flow restriction section 11 has only one opening 10h that extends to the outer periphery, has multiple connecting pieces 11a that are arranged in the circumferential direction, each of which extends in the circumferential direction and has one circumferential end connected to the flow path narrowing section 10, and has a moving body 11b that is connected to the other circumferential end of each connecting piece 11a and moves upward relative to the flow path narrowing section 10 due to elastic deformation of the multiple connecting pieces 11a when pressed by the contents when a squeeze operation is performed on the body, thereby reducing the restriction of the flow rate.

However, it is preferable that the opening 10h of the squeeze dispenser 1 be an elongated hole extending in the vertical direction.

It is also preferable that the opening 10h of the squeeze dispenser 1 be trapezoidal in shape, with the width increasing downward.

In addition, it is preferable that the squeeze pouring container 1 has one circumferential end of each connecting piece 11a connected to the inner circumferential surface of the cylindrical wall 10d.

It is also preferable that the squeeze pouring container 1 has four connecting pieces 11a.

In addition, it is preferable that the squeeze dispensing container 1 is formed by a moving body 11b and multiple connecting pieces 11a, and by the same number of slits 11c as the connecting pieces 11a.

In addition, it is preferable that the squeeze dispensing container 1 has an inner plug 4 composed of a flow path forming member 4a that forms at least a part of the cylindrical wall 10d and the bottom wall 10e, and a valve member 4b that forms at least another part of the cylindrical wall 10d and the flow rate restricting portion 11.

In addition, it is preferable that the flow path narrowing portion 10 of the squeeze dispensing container 1 has a flange portion 10c that extends radially outward from the cylindrical wall 10d above the opening 10h and is attached to the inner surface of the dispensing tap 3.

The squeeze dispenser container 1 also has a cap 6 that can be attached to the dispenser tap 3, a transfer plug body 7 that is equipped with a sealing portion 7a that seals the dispenser outlet 3n of the dispenser tap 3 and is attached to the cap 6, and a sealing tube 8 that is connected to the transfer plug body 7 via a breakable portion 9 and is attached to the dispenser tap 3. It is preferable that the dispenser tap 3 has an attachment tube 3a that has a locking portion 3j that is elastically deformed to overcome and lock onto the mouth portion 2a from above, and a circumferentially weakened portion 3k that is broken to release the locking of the locking portion 3j to the mouth portion 2a.

In addition, the squeeze dispenser container 1 in the above embodiment is a screw cap transition plug type, but a hinge cap may also be used.

LIST OF SYMBOLS 1 Squeeze pouring container 2 Container body 2a Mouth portion 3 Pour stopper 3a Mounting tube 3b Lower peripheral wall 3c Lower annular wall 3d Upper peripheral wall 3e Upper annular wall 3f Tip tube 3g Outer tube 3h Inner tube 3i Top wall 3j Locking portion 3k Circumferentially weakened portion 3l Vertical rib 3m Male thread portion 3n Pour outlet 3o Pour tube 4 Center plug 4a Flow path forming member 4b Valve member 5 Transfer stopper 6 Cap 6a Top wall 6b Locking tube 6c Female thread portion 6d Screw tube 6e Outer tube 7 Transfer stopper body 7a Sealing portion 7b Top wall 7c Peripheral wall 8 Sealing tube 9 To be broken portion 10 Flow path narrowing portion 10a Internal flow path 10b Bottomed tubular portion 10c Flange portion 10d, cylindrical wall 10e, bottom wall 10f, upper cylindrical wall 10g, lower cylindrical wall 10h, opening 11, flow rate restricting portion 11a, connecting piece 11b, movable body 11c, slit 11d, plate wall 11e, outer peripheral wall O, central axis

Claims (6)

A container body including a body and a tubular mouth connected to an upper end of the body and configured to accommodate contents;
A spout attached to the mouth portion;
An inner plug attached to the spout tap;
The inside plug has a bottomed tubular portion that forms an internal flow path and a flow path throttle portion that is attached to the inner surface of the spout plug, and a flow rate limiting portion that limits the flow rate of the internal flow path,
The flow path restricting portion has only one opening extending from the cylindrical wall of the bottomed cylindrical portion to the outer peripheral edge of the bottom wall of the bottomed cylindrical portion, and a flange portion extending radially outward from the cylindrical wall above the opening and attached to the inner surface of the spout tap,
the flow rate restricting portion includes a plurality of connecting pieces arranged in the circumferential direction, each of which extends in the circumferential direction and has an end portion on one circumferential side connected to the inner circumferential surface of the cylindrical wall of the flow path restricting portion; and a movable body connected to the end portion on the other circumferential side of each of the connecting pieces, which is pushed by the contents when a squeeze operation is performed on the body portion and moves upward relative to the flow path restricting portion due to elastic deformation of the plurality of connecting pieces, thereby reducing the restriction of the flow rate ,
A squeeze pouring container characterized in that the inner plug is composed of a flow path forming member that forms at least a portion of the cylindrical wall and the bottom wall, and a valve member that is attached to the flow path forming member and forms at least another portion of the cylindrical wall and the flow rate restricting portion . The squeeze dispenser container according to claim 1, wherein the opening is a long hole extending in the vertical direction. The squeeze dispenser container according to claim 2, wherein the opening is trapezoidal in shape and its width increases downward. The squeeze pour container according to any one of claims 1 to 3 , wherein the number of the connecting pieces is four. The squeeze pouring container according to any one of claims 1 to 4 , wherein the moving body and the plurality of connecting pieces are formed by the same number of slits as the number of the connecting pieces. A cap that is detachable from the dispensing tap;
A transfer stopper body that is attached to the cap and has a sealing portion that seals the spout of the spout stopper;
A sealing tube connected to the transfer plug body via a breakable portion and attached to the pouring plug;
The squeeze pouring container according to any one of claims 1 to 5, wherein the pouring plug has an attachment tube having a locking portion that is elastically deformed to overcome and lock onto the mouth portion from above, and a circumferentially weakened portion that is broken to release the locking of the locking portion to the mouth portion.

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