JP2022156009A - discharge container - Google Patents

Abstract

To create a discharge container capable of discharging a certain amount of contents while diffusing the contents evenly, and preventing the contents from clumping due to humidity, with a simple configuration.SOLUTION: A discharge container includes: a container main body 10; an inner cap 20 including a top wall 22 on which a first discharge spout 21 communicating with inside the container main body 10 protrudes, and provided on a mouth portion 11 of the container main body 10; an outer cap 30 including a compression chamber Q that compresses an air inside thereof by a second discharge spout 46 discharging a content P and a pressing portion 51 capable of elastically deforming, and is attached to the mouth portion 11; and a measuring cylindrical body 60 that forms a measurement space M with the inner cap 20 for measuring the content P. An air passage AP that supplies the compressed air E into the measurement space M is formed between the measurement cylindrical body 60 and the inner cap 20. The inside of the container main body 10 and the second discharging spout 46 are communicated through the first discharge spout 21, the measuring space M, and a ventilation route L.SELECTED DRAWING: Figure 1

Description

TECHNICAL FIELD The present invention relates to a discharge container capable of discharging a fixed amount of powdery, granular or liquid contents.

As a container capable of dispensing a certain amount of powdery or granular content, a cap is fitted into the mouth-and-neck portion of the container body, with a weighing tube suspended from a lid that closes the mouth-and-neck portion of the container body. The upper end of the tapered tube rising from the bottom wall of the main body is loosely inserted into the measuring tube, and the powder can flow into the measuring tube by inverting the main body of the container. Part of the contents in the cylinder returns to the container body, but the other part can accumulate a certain amount of contents in the measuring chamber connected to the tapered cylinder, and when the container body is turned upside down again. , a container in which contents in a weighing chamber can be shaken out from a weighing-out hole provided in a lid is known (Patent Document 1).

JP 2013-10556 A

However, in the container described in Patent Document 1, since the contents are discharged by dropping from the weighing chamber through the weighing out hole provided in the lid, the contents are likely to be discharged intensively. However, in the case of seasonings such as pepper and salt, the seasonings cannot be sprinkled evenly over the ingredients, and there is a risk of unevenness in the taste of the ingredients.
In addition, the container described in Patent Document 1 also has a problem that moisture contained in the air tends to enter the container body in a humid environment, and part of the seasoning tends to clump together.

In order to solve the above-described problems in the prior art, the present invention enables a fixed amount of powdery, granular, or liquid content to be discharged while being evenly diffused with a simple configuration. An object of the present invention is to create a discharge container capable of suppressing agglomeration of powdery or granular contents due to moisture.

Among the means for solving the above problems, the main means of the present invention are
A container main body for containing contents, an inner cap provided on the mouth of the container main body having a top wall with a protruding first discharge port communicating with the container main body, and a second discharge port for discharging the contents. 2. An outer cap, which has a pressurizing chamber for pressurizing the internal air by means of an ejection port and an elastically deformable pressing portion, is attached to the mouth portion, and the inner cap is placed between the inner cap and the content entering the first ejection port. A discharge container comprising a measuring cylinder forming a measuring space for measuring,
An air passage is formed between the measuring cylinder and the inner cap for supplying pressurized air from the pressurizing chamber to the measuring space,
It is characterized in that the inside of the container body and the second outlet are communicated with each other through the first outlet, the measuring space and the ventilation route.
In the main means of the present invention, the content can be held in the weighing space by performing the inversion operation and the returning operation, and the content held in the weighing space can be held by pressurized air by performing the following pressing operation. By the force of , it is possible to achieve the ejection from the second ejection port while diffusing evenly.

Another means of the present invention is the main means of the present invention, wherein the weighing cylinder comprises a top wall, an outer cylinder connected to the outer peripheral edge of the top wall, and a lower surface of the top wall and inside the outer cylinder. It has an inner cylindrical body that hangs down in the vicinity and a sealed envelope that hangs down at a position on the lower surface of the top wall and inside the inner cylinder, and is connected to the lower end of the pressing part, A means is added in that it is configured to be movable according to the deformation of the pressing portion.
In the above-described means, when the pressing portion is pressed, the airtight envelope abuts against the curled portion of the first ejection port, thereby forming the measuring space.

Another means of the present invention is the main means of the present invention, wherein the weighing cylinder comprises a top wall, an outer cylinder connected to the outer peripheral edge of the top wall, and a lower surface of the top wall and inside the outer cylinder. It has an inner cylindrical body that hangs down in the vicinity thereof, and an airtight envelope that hangs down from the lower surface of the top wall and inside the inner cylinder, and is formed integrally with the outer shell body. , is added.
With the means described above, it is possible to achieve a configuration in which a measuring space is provided between the measuring cylinder integrally formed with the outer shell and the inner cap.

Another means of the present invention is the above means, in which a ball is provided between the sealing envelope and the second ejection port.
With the above means, when the dispensing container is placed in an inverted position, the ball moves toward the airtight envelope, allowing the contents to move from the container body into the measuring space. In addition, when the inverted posture is returned to the upright posture, the ball seals the second discharge port and cuts off the container main body and the measuring space, so that the pressurized air does not leak to the container main body side, and the pressurized air rushes out from the second discharge part. It can be achieved to be discharged to the outside.

Another means of the present invention is the above means, in which the pressing portion is provided with a stick for pressing the ball against the second ejection port.
With the above-described means, the ball can be strongly pressed into the second ejection port, so even if the contents adhere to the surface of the second ejection port and the sealing performance is deteriorated, the container main body and An isolation from the metering space can be reliably achieved.

Another means of the present invention is the above-mentioned means, wherein the ventilation route is provided upright in the annular gap formed in the portion where the inner cylinder of the measuring cylinder and the top wall of the inner cap face each other and the inner cap. It is formed by connecting a vent hole formed in the guide cylinder and a cutout hole formed in the lower end of the outer cylinder of the measuring cylinder.
With the above means, it is possible to secure a passage for the air in the measuring space to escape to the second discharge port, so that it is possible to reliably discharge the contents of the measuring space.

Further, according to another means of the present invention, in the above means, the upper end of the first discharge port is formed with a curled portion that warps outward in the radial direction to function as a backflow prevention wall. It is a thing.
With the above means, it can be reliably achieved that a certain amount of content is retained in the metering space.

Further, according to another means of the present invention, a valve body is provided at the second discharge port to any one of the above means.
With the above means, it is possible to prevent moisture contained in the air from entering the container body.

According to another means of the present invention, in addition to any one of the above means, the overcap is provided with a closing portion for closing the second discharge port.
By the means described above, it is possible to prevent the content from leaking and suppress the content from clumping together due to moisture.

According to the present invention, with a simple configuration, a certain amount of powdery, granular or liquid content can be discharged while being evenly diffused by pressurized air.
In addition, since it is possible to prevent moisture contained in the air from entering the container body, it is possible to prevent the contents from clumping together due to moisture.

1 is a partial cross-sectional view showing an upright posture (initial state) of a discharge container as a first embodiment of the present invention; FIG. FIG. 4 is a plan view of the outer cap showing an open state; FIG. 4 is a partial cross-sectional view of the discharge container showing an inverted posture as an example of use. FIG. 4 is a partial cross-sectional view of the discharge container showing a state returned to an upright position; FIG. 10 is a partial cross-sectional view of the discharge container showing a state immediately after the pressing operation; 4 is a partial cross-sectional view of a discharge container showing a discharge state; FIG. FIG. 6 is a partial cross-sectional view showing the upright posture of the discharge container as a second embodiment of the present invention; FIG. 4 is a plan view of the outer cap showing an open state;

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, embodiments of the present invention will be described with reference to the drawings.
FIG. 1 is a partial cross-sectional view showing the upright position (initial state) of the discharge container as the first embodiment of the present invention, FIG. 2 is a plan view of the outer cap showing an open state, and FIG. 3 is an inverted state as an example of use. FIG. 4 is a partial cross-sectional view of the discharge container showing the state of returning to the upright posture, FIG. 5 is a partial cross-sectional view of the discharge container showing the state immediately after the pressing operation, and FIG. It is a partial sectional view of a discharge container showing a state. 3 to 6 omit the overcap.

In the following description, the "upward" direction and the "downward" direction respectively mean the vertical upward direction and the vertical downward direction along the container axis O when the container body 10 is in an upright posture as shown in FIG. The side where the mouth portion 11 is located with respect to the bottom (not shown) of the container body 10 is defined as the upper side, and the side where the bottom portion is located with respect to the mouth portion 11 is defined as the lower side. Further, the "right" direction and the "left direction" refer to the right direction and the left direction perpendicular to the container axis O in FIG. 1, respectively. "Circumferential direction" is defined as a direction that circulates around the container axis O.

The discharge container 1 is a container for quantitatively discharging powdery, granular, or liquid contents P such as seasonings such as pepper and salt, or baby powder. First, the configuration of the discharge container 1 will be described.
As shown in FIG. 1, the discharge container 1 includes a container body 10 having a mouth portion 11 at its upper end, an inner cap 20 attached to the mouth portion 11, and an inner cap 20 attached to the outside of the inner cap 20 so as to cover the inner cap 20. It is configured with an outer cap 30 that is A measuring cylinder 60 is provided at the lower end of the outer cap 30 .

The container main body 10 is a bottomed cylindrical container in which the mouth portion 11 stands upright through a shoulder portion 13 formed on the body portion 12 in a diameter-reduced shape. A male thread 14 is provided for mounting the outer cylinder portion 42 of the outer shell body 40 . A seal member 70 for sealing the interior of the container body 10 in which the content P is accommodated is pasted in a detachable state on the upper edge of the mouth portion 11 before opening.

In the inner cap 20, a sealing member 70 is sandwiched between a top wall 22 having a cylindrical first discharge port 21 protruding along the container axis O and an opening 11 formed on the peripheral edge of the top wall 22. It has a flange portion 23 and a cylindrical guide cylinder 24 erected between the mouth portion 11 and the flange portion 23, and is integrally constructed of a synthetic resin material. A curled portion 21a that functions as a backflow prevention wall is formed at the upper end of the first discharge port 21 by curving outward in the radial direction. A vent hole 24a extending in the vertical direction and penetrating in the radial direction is formed at the position on the left side of the guide tube 24 in the drawing.

The outer cap 30 includes an outer shell 40 having an opening 41 opening at the top, an elastically deformable deformation member 50 sealing the opening 41, and a deformation member 50 suspended from the bottom surface of the deformation member 50. 50.

The outer shell body 40 includes an outer cylindrical portion 42 having a male screw 42a formed on the inner surface thereof and screwed into the mouth portion 11, and an upper end of the outer cylindrical portion 42 continuously provided with an open portion 41 at the top. The formed substantially hemispherical outer shell portion 43 is connected to the upper end and lateral position of the outer cylinder portion 42 as shown in FIG. It has an overcap 45 and is integrally molded of a synthetic resin material. A second discharge port 46 projecting radially outward is formed on the left side of the outer shell portion 43 in the drawing, and the open portion 41 at the upper end has a cylindrical shape and an undercut-like second discharge port 46 on the outer peripheral surface. A connecting tube portion 47 having one locking claw 47a is formed.

The deformation member 50 is made of an elastic deformation member such as silicon rubber, and is provided with a dome-shaped pressing portion 51 having a substantially hemispherical shape at the center thereof and capable of being deformed in the vertical direction. On the radially outer side of the deformable member 50 , there is provided a first engaged pawl 52 that engages with the first engaging pawl 47 a on the outer shell 40 side, and a double cylindrical shape that can be connected to the connecting tubular portion 47 . A first fitting portion 53 is provided. A double-cylindrical second fitting portion 55 is provided on the lower surface of the pressing portion 51 and includes a second locking claw 54 for supporting a weighing cylinder 60, which will be described later.

The measuring cylinder 60 includes a circular top wall 61 , a cylindrical outer cylinder 62 connected to the outer peripheral edge of the top wall 61 , and suspended near the inside of the outer cylinder 62 on the lower surface of the top wall 61 . A cylindrical inner cylindrical body 63 provided and a cylindrical inner cylindrical body 63 are suspended at a position on the lower surface of the top wall 61 and inside the inner cylindrical body 63. It has a sealed envelope 64 and is integrally formed of a synthetic resin material.

A second engaging pawl 65 that engages with the second engaging pawl 54 of the second fitting portion 55 on the deformation member 50 side is formed at the upper end of the outer cylindrical body 62 . A pressure chamber Q is formed between the pressing portion 51 and the top wall 61 by engaging the second fitting portion 55 of the deformation member 50 with the upper end of the outer cylindrical body 62 . A gap 66 is provided around the portion where the outer cylindrical body 62 and the inner cylindrical body 63 face each other in the radial direction. The weighing cylinder 60 is configured to be vertically movable along the guide cylinder 24 . A plurality of communication holes 68 communicating with the gap 66 are formed in the outer edge of the ceiling wall 61 at predetermined intervals along the circumferential direction. communicated through In addition, in the gap 66, in a portion where the inner peripheral surface of the guide tube 24 and the outer peripheral surface of the inner cylindrical body 63 face each other in the radial direction, there is a communication hole 68 and the gap 66 together with the pressurizing chamber Q and the measuring space M. An air passage AP is formed to communicate with the .

As shown in FIG. 5 , the lower end of the outer cylindrical body 62 protrudes downward from the lower end of the inner cylindrical body 63 . When the measuring cylinder 60 moves downward, the lower end of the outer cylinder 62 contacts the top wall 22 of the inner cap 20 . At the same time, the sealed envelope 64 contacts the curled portion 21a. This makes it possible to double seal the inside and outside of the container body 10 . The inside is double-sealed, that is, between the top wall 61 and the top wall 22 in the vertical direction and between the first discharge port 21 and the guide tube 24 in the radial direction (the sealing envelope 64 and the inner cylinder 63). ), a doughnut-shaped measuring space M is formed. With such a configuration, it is possible to efficiently supply the pressurized air E from the pressurizing chamber Q to the measuring space M.
Even in this sealed state, the lower end of the inner cylindrical body 63 does not contact the top wall 22 of the inner cap 20, and an annular gap S is formed therebetween. A notch hole 67 is formed at the lower end of the outer cylindrical body 62 at the left side facing the second discharge port 46 in the radial direction. Between the second discharge port 46 and the measuring space M, a ventilation route L is formed by radially communicating the annular gap S, the ventilation hole 24a, and the cutout hole 67 (see FIGS. 1 and 6). ).

The overcap 45 is sized to accommodate the deformation member 50 inside. As indicated by the dashed line in FIG. 1, the inner surface of the overcap 45 is closed by coming into contact with the tip of the second discharge port 46 in the closed state, thereby preventing the contents P from leaking from the second discharge port 46. A slanted closing portion 45a is provided. The closing portion 45a prevents moisture contained in the air from entering the container body 10 when the discharge container 1 is not in use. Therefore, even in a humid environment, it is possible to prevent the contents P contained in the container body 10 from clumping together.

To assemble the discharge container 1, the flange portion 23 of the inner cap 20 is placed on the upper edge of the mouth portion 11 of the container body 10 to which the sealing member 70 is attached, and the deformation member 50 is attached to the outer shell 40 from above. Then, the outer cylinder portion 42 of the outer cap 30 to which the weighing cylinder 60 is assembled is put on the mouth portion 11 and attached by screwing the male screw 14 and the female screw 42a together.

Next, how to use the discharge container 1 having the above configuration will be described with reference to FIGS. 1 and 3 to 6. FIG.

In the initial state shown in FIG. 1, the outer cap 30 is once unscrewed, the inner cap 20 is removed, the seal member 70 is peeled off from the upper end of the mouth portion 11 and removed, and then the inner cap 20 and the outer cap 30 are attached again. to set the discharge container 1 to a usable state.

Subsequently, as shown in FIG. 3, an operation is performed to set the discharge container 1 in an inverted position, and the contents P are passed from the container main body 10 through the first discharge port 21 so that the airtight envelope 64 and the inner cylindrical body 63 are separated. It is separated and moved into the weighing space M in the open state, that is, onto the top wall 61 of the weighing cylinder 60 (inverted operation).
Subsequently, as shown in FIG. 4, the operation of returning the discharge container 1 to the upright state is performed again (return operation). In this returning operation, most of the contents P are returned into the container main body 10 through the first discharge port 21, but a certain amount of the contents P can remain in the measuring space M. That is, since the curled portion 21a formed at the upper end of the first ejection port 21 functions as a backflow prevention wall, a certain amount of the contents P is provided on the top wall 22 and around the first ejection port 21 in an open state. can be temporarily held in the metric space M of
Note that the inversion operation and the return operation can be performed with the overcap 45 in the closed state or in the open state. However, when the cover is closed, the closing portion 45a of the overcap 45 blocks the tip of the second ejection port 46, so that the contents P may flow out of the second ejection port 46 during these operations. It is preferable in that it can be prevented from being discharged.

Next, an operation is performed to push down the pressing portion 51 of the deformation member 50 with a finger or hand (pressing operation).
Then, as shown in FIG. 5, the weighing cylinder 60 moves downward together with the pressing portion 51, and the lower end of the outer cylinder 62 contacts the top wall 22 of the inner cap 20. At the same time, the lower end of the airtight envelope 64 curls. 21a, and the inside and outside of the measuring space M are set in a closed state in which the inside and outside are doubly sealed except for a part (ventilation route L). Thereby, the container main body 10 and the measurement space M can be blocked from the outside.

Subsequently, when the pressing portion 51 is further pressed down, as shown in FIG. 6, the pressing portion 51 is deformed into a concave shape to reduce the volume of the pressurizing chamber Q, so that the air inside can be pressurized. The pressurized air E in the pressurization chamber Q is supplied from the communication hole 68 to the measurement space M through the gap 66 and the air passage AP, and further through the annular gap S, the vent hole 24a and the ventilation route L formed by the notch hole 67. It is discharged to the outside of the discharge container 1 from the second discharge port 46 . At the same time, since the moving pressurized air E blows away the contents P held in the measuring space M, the contents P are discharged to the outside through the ventilation route L and the second discharge port 46 together with the pressurized air E. be done.

As described above, in the discharge container 1 shown in the first embodiment, the contents P temporarily held in the measuring space M are blown away by the flow of the pressurized air E when the pressing portion 51 is pressed down, Since the configuration is such that the content P is vigorously ejected from the second ejection port 46 to the outside, the content P can be ejected while being evenly diffused. In particular, since it is configured to be double-sealed, it is possible to isolate the container body and the measuring space M from the outside, and the pressurized air E is introduced from the pressurizing chamber Q into the measuring space M and further to the second chamber. It can be efficiently moved toward the ejection port 46 .
After the content P is held in the measuring space M, the orientation of the discharge container 1, that is, the direction of the second discharge port 46 may be downward, upward, sideways, or the like. Regardless of the direction, it is possible to reliably discharge the contents P by pressing the pressing portion 51 .

As described above, in the discharge container 1, by performing the above-described inverted operation and return operation, a certain amount of the content P can be held in the measuring space M, and the constant amount of the content P held in the measuring space M by the subsequent pressing operation can be held. A quantity of the contents P can be discharged while being evenly diffused by the moving pressurized air E.

Further, in the discharge container 1 of the present embodiment, since only the content P held in the measuring space M is discharged, it is possible to prevent a large amount of the content P from being discharged at once. can be done. Furthermore, since the measuring space M is configured to hold a constant amount of the content P, a substantially constant amount of the content P can be discharged by a single pressing operation.

Immediately after the pressurized air E is discharged, the inside of the pressurizing chamber Q is in a decompressed state. Since it flows back into the pressurizing chamber Q from the second discharge port 46, the pressurizing chamber Q can be restored to its original state.

FIG. 7 is a partial cross-sectional view showing the upright position of the discharge container as a second embodiment of the present invention, and FIG. 8 is a plan view of the outer cap showing the open state.
The discharge container 1 shown in the second embodiment has a stick 56 provided on the deformable member 50, a ball B provided above the first discharge port 21, and a measuring cylinder 60 integrally provided with the outer shell 40. This embodiment is the same as the first embodiment except that it is configured so as not to move in any direction, and that the second ejection port 46 is configured to have three ejection holes 46a.

As shown in FIG. 7, in the second embodiment of the present invention, a stick 56 extending along the container axis O is suspended from the lower surface of the pressing portion 51 constituting the deformable member 50, and the lower end of the stick 56 is the measuring cylinder. It is inserted into a through-hole 61a provided in the center of a ceiling wall 61 that constitutes 60. As shown in FIG.

A ball B is arranged on the curled portion 21a of the first discharge port 21 provided opposite to the airtight envelope 64 of the weighing cylinder 60. As shown in FIG. The ball B has a diameter larger than the inner diameter of the first outlet 21 and smaller than the inner diameter of the tip of the curled portion 21a. Further, the ball B is always positioned between the curled portion 21a and the sealing envelope 64 facing each other and is movable in the vertical direction. is placed on the tip of the airtight envelope 64 . The ball B is positioned between the curled portion 21a and the airtight envelope 64 and is configured not to come off in the radial direction regardless of the posture of the discharge container 1. As shown in FIG.

The measuring cylinder 60 is integrally formed on the upper side of the outer shell 40, and the top wall 61 has a through hole 61a formed in its center. A stick 56 extending from the lower surface of the pressing portion 51 is slidably inserted into the through hole 61a, and the lower end of the stick 56 faces the ball B placed on the curl portion 21a. A measuring space M is provided between the top wall 61 of the measuring cylinder 60 and the top wall 22 of the inner cap 20 facing each other vertically.

In the discharge container shown in the second embodiment, when an inverted operation and a return operation are performed in the same manner as in the first embodiment, the ball B that closes the first discharge port 21 also moves up and down in accordance with the operation. The content P can be moved from the inside of the container body 10 to the measuring space M, and a certain amount of the content P can be temporarily held in the measuring space M.

Subsequently, when a pressing operation is performed, the pressing portion 51 is deformed into a concave shape, the stick 56 moves downward, and the lower end of the stick 56 immovably presses the ball B on the curl portion 21a. 21 is strongly sealed. At the same time, similarly to the first embodiment, the pressure chamber Q is reduced in volume to generate pressurized air E, which is supplied from the communication hole 68 to the measuring space M through the air passage AP, and furthermore, The liquid is discharged to the outside of the discharge container 1 through the three discharge holes 46a (see FIG. 8) formed in the second discharge port 46 through the ventilation route L formed by the annular gap S, the vent hole 24a and the notch hole 67. FIG. At the same time, the content P held in the measuring space M is vigorously discharged to the outside through the ventilation route L and the second discharge port 46 together with the moving pressurized air E. In particular, in the second embodiment, the ball B can reliably seal the first discharge port 21, so compared to the first embodiment, the pressurized air E is introduced from the pressurizing chamber Q into the measuring space M, Furthermore, it is possible to efficiently move toward the second ejection port 46 .

The inside of the pressurization chamber Q immediately after the pressurized air E is discharged is in a decompressed state. Therefore, when the finger or hand pressing down the pressing portion 51 is released, external air flows in from the three discharge holes 46a of the second discharge port 46, and flows into the pressurizing chamber Q in the opposite direction to that during discharge. Since it flows in the direction, the pressure chamber Q can be restored to its original state. In the second embodiment, the ball B can reliably seal the first discharge port 21 even while the air flows in the opposite direction. It can be restored to its original state.

In the above first and second embodiments, the second discharge port 46 is provided with a valve body formed of a soft material such as rubber or elastomer and having a slit formed by cutting the central part in a cross shape. It is preferable to provide a configuration. In such a valve body, when the pressing portion 51 is pressed down with a finger or hand, the pressurized air E passes through the cross-shaped slit while pushing it open in the outward direction, thereby opening the valve body and pressing it down. When the pressing operation is stopped by releasing the finger or hand that has been holding the valve, the air flows back, the slit is restored, and the valve body closes. For this reason, when the discharge container 1 is not in use, it is possible to prevent moisture contained in the air from entering the container body 10, so that even in a humid environment, the container body can be kept clean. It is possible to prevent the contents P contained in the interior 10 from clumping together.

As described above, the configuration and effects of the present invention have been described according to the embodiments, but the embodiments of the present invention are not limited to the above embodiments.
For example, in the above embodiment, the case where the outer cylindrical portion 42 of the outer shell 40 constituting the outer cap 30 and the mouth portion 11 of the container body 10 are attached via screws has been described. 42 may be attached by undercut engagement with the mouth portion 11 .

In the above embodiment, the overcap 45 that constitutes the outer cap 30 is provided integrally with the outer shell 40 via the hinge 44 so that it can be opened and closed. It may be configured separately from the

Moreover, although powdery or granular contents have been described in the above embodiments, liquid contents may be used.

In the above embodiment, the pressing portion 51 is a deformable dome-shaped member, but any member that can send air by elastic deformation, such as a fuigo having a flexible bellows structure, can be used. It may be composed of various members.

INDUSTRIAL APPLICABILITY The present invention can be used in a wider range of applications in the field of dispensing containers for dispensing a fixed amount of powdery, granular or liquid contents.

Reference Signs List 1: Discharge container 10: Container main body 11: Mouth portion 12: Body portion 13: Shoulder portion 14: Male thread 20: Inner cap 21: First discharge port 21a: Curl portion 22: Top wall 23: Flange portion 24: Guide cylinder 24a: vent hole 30: outer cap 40: outer shell 41: opening 42: outer cylinder 42a: male screw 43: outer shell 44: hinge 45: overcap 45a: closing part 46: second outlet 46a: Discharge hole 47 : Connecting tube portion 47a : First locking claw 50 : Deformable member 51 : Pressing portion 52 : First engaged claw 53 : First fitting portion 54 : Second locking claw 55 : Second fitting Portion 56: stick 60: measuring cylinder 61: top wall 61a: through hole 62: outer cylinder 63: inner cylinder 64: airtight envelope 65: second engaged claw 66: gap 67: notch hole 68: communication hole 70: Seal member AP: Air passage B: Ball E: Pressurized air L: Ventilation route M: Measuring space O: Container axis P: Contents Q: Pressurizing chamber S: Annular gap

Claims (9)

A container body (10) containing a content (P), and a top wall (22) having a first discharge port (21) communicating with the container body (10). An inner cap (20) provided on the mouth (11) of (10), a second ejection port (46) for ejecting the content (P), and an elastically deformable pressing portion (51) are used to extract the air inside. The first discharge port (21) enters between the outer cap (30) attached to the mouth (11) and the inner cap (20) having a pressurizing chamber (Q) for pressurizing the A discharge container comprising a measuring cylinder (60) forming a measuring space (M) for measuring a content (P),
An air passage (AP) for supplying pressurized air (E) from the pressurizing chamber (Q) to the measuring space (M) is formed between the measuring cylinder (60) and the inner cap (20). is,
The interior of the container body (10) and the second outlet (46) are communicated through the first outlet (21), the measurement space (M) and the ventilation route (L). A discharge container characterized by: A measuring cylinder (60) comprises a top wall (61), an outer cylinder (62) connected to the outer peripheral edge of the top wall (61), and a lower surface of the top wall (61) and the outer cylinder. An inner cylindrical body (63) suspended in the vicinity of the inner side of the body (62), and a lower surface of the top wall (61) and suspended at a position inside the inner cylindrical body (63) 2. The discharge container according to claim 1, further comprising a sealed envelope (64), connected to the lower end of the pressing portion (51), and movable according to deformation of the pressing portion (51). A measuring cylinder (60) comprises a top wall (61), an outer cylinder (62) connected to the outer peripheral edge of the top wall (61), and a lower surface of the top wall (61) and the outer cylinder. An inner cylindrical body (63) suspended in the vicinity of the inner side of the body (62), and a lower surface of the top wall (61) and suspended at a position inside the inner cylindrical body (63) A dispensing container according to claim 1, comprising a sealed envelope (64) and integrally formed with the outer shell (40). 4. Dispensing container according to claim 3, characterized in that a ball (B) is arranged between the sealed envelope (64) and the second outlet (46). 5. The discharge container according to claim 4, wherein the pressing part (51) is provided with a stick (56) for pressing the ball (B) against the first discharge port (21). The ventilation route (L) is an annular gap (S) formed in the portion where the inner cylinder (63) of the measuring cylinder (60) and the top wall (22) of the inner cap (20) face each other, and the inner cap. (20) a vent hole (24a) formed in a standing guide tube (24), a notch hole (67) formed in the lower end of an outer tube (62) of the weighing tube (60), 6. The discharge container according to any one of claims 1 to 5, wherein the discharge container is formed by communicating with each other. 7. The upper end of the first discharge port (21) is formed with a curled portion (21a) functioning as a backflow prevention wall by warping outward in the radial direction. discharge container. The discharge container according to any one of claims 1 to 7, wherein the second discharge port (46) is provided with a valve body. The discharge container according to any one of claims 1 to 8, wherein the overcap (45) is provided with a closing portion (45a) for closing the second discharge port (46).

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