TW201348085A - Container - Google Patents

Abstract

A cap (7) for an application container, which is a container relating to the present invention, is characterized by comprising: a protrusion (74) which is a rib inserted in the front end of a nozzle (6) along the axial direction while the container body (1) is closed by the cap, the axial direction being the direction in which the nozzle (6) extends; and a sloped rising plane (75) on which a rising portion from which the protrusion (74) rises is provided so as to be tilted relative to the direction in which the nozzle (6) extends. As a result of this configuration, the sloped front end section (64) of the nozzle can be stably closed by the cap in such a manner that the sloped front end section (64) is less likely to be damaged by an adhesive agent (B).

Description

container

The present invention relates to a container having a lid that covers a container in which an adhesive is placed.

In the past, various containers having a container body in which an adhesive is placed and a lid for covering the container body have been proposed. In such a container, it has also been proposed to provide a protrusion on the inner surface of the cover in order to effectively avoid the hardening of the adhesive in the container body and to prevent the adhesive from coming into contact with the outside air when the cover is covered. When the cover is installed, the protruding portion is inserted into the front end of the container, and in the state in which the cover is attached, the protruding portion can avoid the contact of the adhesive with the outside air. In particular, such a cover is effective for a nozzle having a special shape disposed on the front end side of the container (for example, refer to Patent Document 1).

However, even in the container of the above-mentioned Patent Document 1, in the case where the protrusion of the cover comes into contact with the adhesive which has been in contact with the outside air at the stage before the capping, there is a possibility that the adhesive and the protrusion are caused. The situation begins to harden in the state. Thus, in the next use, the protrusion cannot be separated from the adhesive when the cover is to be taken out from the container body, and the knot is However, it also causes the absence of the protrusion from the cover.

[Advanced technical literature] [Patent Literature]

[Patent Document] Japanese Special Fair No. 5-41316

The present invention has been developed in view of such a deficiency, and an object thereof is to provide a container which is capable of stably covering a lid of a container body without being damaged by an adhesive.

The present invention employs the following means for achieving this purpose.

That is, the container of the present invention is provided with a container body having a nozzle to which an adhesive is applied, and a cover attached to the container body, wherein the cover is provided with a protruding portion from the nozzle The front end is inserted along the longitudinal direction of the nozzle; and the inclined rising surface is provided so as to be inclined with respect to the longitudinal direction of the nozzle at a portion where the protruding portion stands.

According to this container, since the rising area of the protruding portion is inclined from the axial direction, the area of the protruding portion from the angle perpendicular to the axial direction is larger. As a result, since the protruding portion can be erected with a large area, it is possible to provide a protruding portion having a strong strength particularly in the standing portion. As a result, it is possible to provide a coating that is less susceptible to adhesion A container that is damaged and can stably cover the lid of the container body.

Since the protruding portion is inserted into the tip end of the nozzle with high strength, it is possible to cover the tip end of the nozzle ideally, and it is possible to effectively maintain the shape of the tip end when the tip end of the nozzle faces the oblique direction in the longitudinal direction.

Further, in the case where the tip end of the nozzle is inclined, the inclination of the inclined standing surface and the tip end of the nozzle are made closer, and the degree of sealing can be further improved.

In order to ensure the proper positioning of the protruding portion to the front end of the nozzle, it is preferable to mount the container body by screwing.

Further, the shape of the protruding portion that is easily inserted without interfering with the shape of the nozzle is preferably such that the tip end of the protruding portion faces the oblique direction of the longitudinal direction of the nozzle.

In addition, even if the tip end of the nozzle which is difficult to ensure the shape is formed thin, in detail, the thickness of the tip end is set to 0.3 mm or less, and the shape of the nozzle can be effectively ensured by inserting the protruding portion into the tip end of the nozzle.

According to the present invention, it is possible to provide a container which is capable of stably covering the lid of the container body without being damaged by the adhesive.

1‧‧‧ container body

6‧‧‧ nozzle

7‧‧‧ cover

74‧‧‧Protruding

75‧‧‧Slanted facade

B‧‧‧Binder

Fig. 1 is a perspective view showing a first embodiment of the present invention.

Fig. 2 is a front view of the same embodiment.

Fig. 3 is a front elevational view of the same embodiment.

Figure 4 is an exploded view of the same embodiment.

Fig. 5 is a partial explanatory view of the same embodiment.

Fig. 6 is a partial explanatory view of the same embodiment.

Fig. 7 is a partial explanatory view of the same embodiment.

Fig. 8 is a partial perspective view showing the same embodiment.

Fig. 9 is a partial plan view showing the same embodiment.

Fig. 10 is an explanatory view of the operation of the same embodiment.

Fig. 11 is an explanatory view of the operation of the same embodiment.

Figure 12 is a cross-sectional view taken along line A-A of Figure 11.

Fig. 13 is an explanatory view of the operation of Fig. 12.

Fig. 14 is an explanatory view of the operation of the same embodiment.

Fig. 15 is an operation explanatory view and a partial enlarged perspective view of the same embodiment.

Fig. 16 is an operation explanatory view and a partial enlarged perspective view of the same embodiment.

Fig. 17 is an operation explanatory view and a partial enlarged perspective view of the same embodiment.

Figure 18 is a perspective view showing a second embodiment of the present invention.

Figure 19 is a front elevational view of the same embodiment.

Fig. 20 is another front view of the same embodiment.

Figure 21 is an exploded view of the same embodiment.

Figure 22 is a partial plan view showing the same embodiment.

Fig. 23 is an explanatory view of the operation of the same embodiment.

Fig. 24 is an explanatory view of the operation of the same embodiment.

Fig. 25 is an explanatory view of the operation of the same embodiment.

Figure 26 is a central cross-sectional view corresponding to Figure 24.

Figure 27 is a central cross-sectional view corresponding to Figure 25.

Fig. 28 is a partial bottom sectional view showing the same embodiment.

Figure 29 is a partial perspective view showing the same embodiment.

Figure 30 is a view as seen from the line I of Figure 29.

Figure 31 is a central longitudinal sectional view of Figure 30.

Figure 32 is a view as seen from II of Figure 29.

Figure 33 is a central longitudinal sectional view of Figure 32.

Figure 34 is a view as seen from line III of Figure 29.

Figure 35 is a view as seen from IV of Figure 29.

Fig. 36 is an explanatory view of the operation of the same embodiment.

Fig. 37 is an explanatory view of the operation of the same embodiment.

Fig. 38 is an explanatory view of the operation of the same embodiment.

Figure 39 is a schematic explanatory view of Figure 36.

Figure 40 is a schematic explanatory view of Figure 36.

Fig. 41 is a view showing a modification of the same embodiment as Fig. 20;

Fig. 42 is a view showing a modification of the same embodiment as Fig. 20;

Fig. 43 is a view showing a modification of the same embodiment as Fig. 20;

Figure 44 is a perspective view showing a third embodiment of the present invention.

Figure 45 is a front elevational view of the same embodiment.

Figure 46 is a front elevational view of the same embodiment.

Figure 47 is an exploded view of the same embodiment.

Fig. 48 is an explanatory view of the operation of the same embodiment.

Fig. 49 is an explanatory view of the operation of the same embodiment.

Figure 50 is a central cross-sectional view corresponding to Figure 48.

Figure 51 is a central sectional view corresponding to Figure 49.

<First embodiment>

Hereinafter, a first embodiment of the present invention will be described with reference to Figs. 1 to 17 .

The coating container as the container of the present embodiment is a container body 1 for applying, for example, a coating material, and has a container body 1 for accommodating an adhesive; and a front end for sealing the container body 1 The cover 7. In the container main body 1, the pressing member 3 attached to the accommodating portion 2 is pressed by a finger or the like, and the adhesive B filled in the tube T as the sealing portion housed in the accommodating portion 2 is pressed toward the nozzle 6 of the coating portion. The adhesive B can be applied to the object from the front end surface 68 of the nozzle 6. When the coating container is not in use, as shown in FIG. 3, the tip end of the nozzle 6 is sealed by the lid 7, and the adhesive B is prevented from coming into contact with the outside air. The structure of the cover 7 will be described in detail with respect to the middle cover 5 and the like.

In addition, the pipe T has a pipe main body T1 formed by forming an aluminum plate in a thin plate shape, for example, in a state in which the adhesive B is sealed, and a mounting screw portion T2 formed in a male screw shape on the end side of the pipe main body T1; On the other end side of the screw portion T2, the aluminum material is made thin, and the aluminum material is broken inside the inner side surrounded by the mounting screw portion T2, and the adhesive B can be taken out to the external extraction surface T3. The structure of the tube T may be an existing tube prepared by holding, for example, an existing adhesive agent B, a liquid or a gel, or the like. That is, the tube T can be used as a container even if it is a single unit. In this case, by pressing the surface of the tube main body T1 with a finger or the like to form the abdomen T4 in the front and back, it is possible to extract the coating material, that is, the adhesive B, from the portion where the aluminum material of the surface T3 is broken. T external.

Further, as shown in FIG. 4, the container body 1 includes, as components thereof, an inner cover 4 installed in the accommodating portion 2 in addition to the accommodating portion 2, the pressing button 3, and the nozzle 6, and is fixed thereto. In the state of the nozzle 6, the cover 5 is externally fitted to the accommodating portion 2, and these members are appropriately combined.

Here, the cover 7 of the present invention is characterized in that a projection 74 that is inserted into the axial direction of the extension of the nozzle 6 toward the front end of the nozzle 6 in a state in which the container body 1 is covered is provided; The erected portion of the protruding portion 74 is a slanting erecting surface 75 that is inclined to extend in the extending direction of the nozzle 6. The structure of the cover 7 will be described in detail later.

Hereinafter, the structure of each part of the container body 1 will be described in order. And the structure of the cover 7.

The accommodating portion 2 is integrally molded by, for example, a resin, and is formed into a symmetrical so-called half-divided structure via a resin hinge provided on the proximal end side opposite to the distal end on which the nozzle 6 is positioned. That is, the accommodating portion 2 is held by the other constituent elements to be accommodated via the resin hinge. The accommodating portion 2 has a button hole 21 formed by opening a center at a center in the longitudinal direction and the width direction, and the push button 3 can be exposed; the push button 3 is used to sandwich the inner side surface of the push button 3 The button attachment portion 22 of the groove; the inner lid attachment portion 23 as a groove for sandwiching the inner lid 4 on the inner side surface and the front end; and the inner lid 5 can be fitted into the inner lid attachment portion 24. Further, the middle cover attaching portion 24 includes an engagement guide portion 25 to be described later, a separation guide portion 201 for disengaging the middle cover 5 when the respective portions are discarded, and induction to the separation guide portion 201 The departure induction unit 202. The detachment guide portion 201 is a groove extending in the longitudinal direction of the middle cover attachment portion 24 provided in the vicinity of the engagement guide portion 25. The detachment inducing portion 202 is formed by processing the surface of the engagement guide portion 25 to the detachment guide portion 201 into a curved surface.

The push button 3 is a symmetrical shape member integrally formed of, for example, an elastic resin, and has a button body 31 that is directly pressed by a user; and pressed against the button body 31, the tube body T1 has a flat belly T4. The pressing plate 32 pressed from the one surface and the other surface with equal strength; the pair of button bodies 31 and the pressing plate 32 are operatively held by the elasticity of the resin, and are at the base end of the housing portion 2 The base end portion 33 is exposed on the side. The button body 31 specifically has: The finger or the like is easily slid and is easily grasped, and the plurality of ribs are disposed at equal intervals to form an operation portion 34 having an uneven shape, and a thin-walled hinge portion 36 bent at the proximal end side of the operation portion 34. The pressing plate 32 has a conveying rib 35 that protrudes in the opposite direction from the vicinity of the front end portion so that the protruding end does not abut against the button body 31; and the other end of the tube T is clamped at the base end portion, and can be thinned The hinge 37 is bent preferentially.

As shown in FIGS. 5 to 7 , the push button 3 of the present embodiment has a pair of button bodies 31 attached to the accommodating portion 2 in which the tube T is housed, and is pressed by pressing the button body 31. And the plate T4 is in close contact with the abdomen T4 of the tube T and is pressed and pressed in pairs. Further, the pressing plate 32 presses the abdomen T4 of the tube T in a planar shape from the other end side of the opposite side of the extraction surface T3 toward the end side of the extraction surface T3 side. As a result, as shown in FIG. 6, even if the user presses the operation portion 34 in a dot shape, the tube T is pressed one by one from the other end toward the end side on which the extraction surface T3 is provided. Thereby, the adhesive B of the contents in the tube T is not wasted and can be stably withdrawn. In particular, in the present embodiment, in the pressing operation, the contact portion between the communication rib 35 provided on the pressing plate 32 and the button body 31 gradually changes from the other end side toward the one end side. Thereby, even if the tube with a small residual amount of the adhesive B as shown in FIG. 7 can be pressed in a planar shape, the adhesive can be extracted.

The inner cover 4 is a member for fixing the tube T to the inside of the accommodating portion 2, and has a female screw portion 41 to which the screw is fixed to the mounting screw portion T2 of the tube T, and the inner lid mounting portion 23 inserted into the accommodating portion 2 a mounting flange 42; and a spray that abuts against the nozzle 6 to position the nozzle 6 in the longitudinal direction The mouth abutting portion 43. Further, in the present embodiment, in order to smoothly screw the inner cover 4 to the tube T, irregularities are formed on the outer circumferential surface of the flange 42 to be mounted. Moreover, the unevenness of the circumferential surface is engaged with the projection (not shown) provided on the inner surface of the inner lid attachment portion 23 when being accommodated in the inner lid attachment portion 23, and the relative rotation at the time of attachment is prohibited.

The middle cover 5 is provided with a liquid dripping preventing portion 50 at the front end portion, and can effectively avoid the occurrence of the drop of the adhesive B falling from the nozzle 6. Further, the middle cover 5 is formed with a knurling 5a (FIG. 11) having a concavo-convex shape on a part of the surface, and has an inner cover mounting portion 23 outer covering portion 51 which can cover the accommodating portion 2 from the outside; a first screw groove 81 and a second thread groove 82 which will be described later are formed, and can be screwed to the screw portion 8 of the cover 7; a nozzle mounting portion 53 having a positioning groove 57 for fixing the nozzle 6 in the axial direction; An opening (not shown) in which a part of the fitting portion 51 is opened. In the present embodiment, the outer fitting portion 51 has a rotation engagement claw 55 that is engageable toward the inner centering cover attaching portion 24. The rotation engagement claw 55 has an extending portion 58 extending in the circumferential direction by appropriately cutting the resin material; the front end of the extending portion 58 is protruded inwardly for engaging the middle cover mounting portion 24 directly. End 59. The specific structure of the screw portion 8 will be described in detail later.

As shown in Fig. 8, the nozzle 6 is integrally formed of a transparent or translucent resin, and it is easy to know whether or not the adhesive B is present inside. The nozzle 6 has a nozzle body 61 that is exposed from the accommodating portion 2, a mounted portion 62 to which the centering cover 5 is attached, and a drawing tube 63 that draws the adhesive B closer to the proximal end side than the attached portion 62. The nozzle body 61 has an inclined front end portion of the front end surface 68 formed by cutting the front end side in an oblique direction. 64; and a tapered portion 69 formed to gradually become smaller in outer diameter when reaching the inclined front end portion 64. The mounted portion 62 has a flange 65 that is positioned in the longitudinal direction of the middle cover 5, and two positioning ribs 66a and 66b that are prohibited from rotating about the axis and projecting to determine the relative angle of the centering cover 5. Here, the inclined front end portion 64 of the nozzle 6 cuts the nozzle body 61 in the oblique direction to form the distal end surface 68. The front end face 68 is a slit having an inclined plane shape in the nozzle body 61. Thereby, the nozzles 6 are formed in such a shape that the contact areas of the objects can be different by making the directions of the objects different. Thereby, the application range of the adhesive agent B can be arbitrarily changed. That is, the nozzle 6 has a shape that is directional. Further, in the present embodiment, by setting the thickness of the material constituting the inclined distal end portion 64 to 0.3 mm or less, the amount of the adhesive B from the convex portion of the inclined distal end portion 64 can be made extremely small, and the adhesive can be accurately obtained. B is applied to the desired fine portion. In other words, the nozzle 6 can be applied in a dot shape toward a desired portion while the front end surface 68 is facing upward.

In particular, as shown in FIG. 9, the container main body 1 of the present embodiment includes an engagement guide portion 25 for allowing the container 6 and the middle cover 5 to be coated with the adhesive B. The first engagement position (P) at which the portion 2 is engaged with the nozzle 6 and the nozzle 6 from the first engagement position (P) in which the accommodating portion 2 and the nozzle 6 mutually have a predetermined directivity can be The second engagement position (Q) in which the adhesive B is not engaged with the adhesive B can be engaged with the container 2 and the nozzle 6 and can be guided from the first engagement a position (P) toward the second engagement position (Q); the nozzle 6 can be provided from the accommodating portion 2 The detachment guide portion 201 from which the middle cover 5 is detached, and the detachment induction portion 202 can induce an operation from the second engagement position (Q) to the detachment of the guide portion 201.

In the present embodiment, the engagement guide portion 25 is provided in the middle cover attachment portion 24 of the accommodating portion 2, and the engagement guide portion 25 is provided by the nozzle attachment portion 53 provided with the nozzle 6 that is non-rotatably mounted. The rotation engagement claws 55 of the middle cover 5 are engaged and guided, and the nozzles 6 are indirectly positioned toward the first engagement position (P) and the second engagement position (Q). The engaging guide portion 25 has, as shown in FIG. 9 in particular, an introduction guiding groove 26 for inserting the engaging end 59, and a first indirect positioning of the nozzle 6 at the first engaging position (P). Engagement hole 27; rotation guide groove 28 continuous from the first engagement hole 27 in the groove of the spiral feed direction; and by being guided by the rotation guide groove 28, the engagement end 59 cannot be rotated Positioning, the nozzle 6 is indirectly fixed to the second engaging hole 29 of the second engaging position (Q).

Next, referring to FIG. 10 to FIG. 14, it is explained that by guiding the nozzle 6 from the first engagement position (P) toward the second engagement position (Q), the direction of the nozzle 6 is positioned to be ideal when in use. A series of operations of the state of the container body 1 can be used at the position; and, for example, in order to separate the tubes T, the nozzles 6 are removed together with the middle cover 5 from the accommodating portion 2.

First, in Fig. 10, the state in which the middle cover 5 to which the nozzle 6 is fixed is introduced toward the accommodating portion 2 is shown. Actually, in this operation, the middle cover 5 is carried out in a state of being attached to the cover 7. Specifically, the engaging end 59 of the rotation engaging claw 55 of the middle cover 5 is fitted to a position where it can be inserted into the introduction guide groove 26. Then when the engaging end 59 is further introduced from this state When the guide groove 26 is moved toward the proximal end side, the engagement end 59 is fitted into the first engagement hole 27 to obtain the first engagement position (P). At the first engagement position (P), since the proximal end of the nozzle 6, that is, the through end 67 of the extraction tube 63 is separated from the extraction surface T3 of the tube T, the adhesive B cannot be injected into the nozzle 6. status. Then, when the middle cover 5 is screwed in order to rotate the engagement end 59 along the rotation guide groove 28, the penetration end 67 is inserted into the inside of the tube T while passing through the extraction surface T3 while rotating. Further, in the present embodiment, when the spiral operation is rotated by 90 degrees from the first engagement position (P), the engagement end 59 is inserted into the second engagement hole 29 as shown in FIG. In this state, the engagement end 59 is deeply inserted into the second engagement hole 29, and if it is not an external force that is much larger than the normal operation force, the engagement cannot be released. As described above, a series of actions up to this point are performed via the cover 7. Therefore, in a state in which the engaging end 59 is fitted into the second engaging hole 29, the positioning portion 70 of the cover abuts against the cover fixing portion 20 of the accommodating portion, and is prevented from further rotating. Further, in the state of the same figure, the nozzle 6 is such that the positioning rib 66 is fitted to the positioning groove 57, and the rotation operation is prohibited, and the flange 65 abuts against the nozzle abutting portion 43 so that the movement of the nozzle 6 is prohibited. Thus, the nozzle 6 is in a state in which the accommodating portion 2 is indirectly fixed at the second engagement position (Q).

At the second engagement position (Q), the distal end surface 68 of the nozzle 6 is in the same direction as the direction in which the button body 31 of the push button 3 attached to the accommodating portion 2 is exposed. That is, the direction in which the operation portion 34 is exposed coincides with the direction in which the front end surface 68 of the nozzle 6 faces. Therefore, the direction in which the abdomen T4 of the tube main body T1 and the operation portion 34 are exposed coincides with the direction in which the front end surface 68 of the nozzle 6 faces. That is, it is easy to perform the pressing operation of the tube T and come from The discharge of the adhesive B on the front end face 68 is confirmed. Thereby, the direction of the front end face 68 can be easily recognized by the user from the direction in which the button body 31 is pressed.

As described above, in the present embodiment, the detachment structure in which the middle cover 5 can be detached from the accommodating portion 2 is employed. That is, when the middle cover 5 is further rotated from the second engagement position (Q), the middle cover 5 can be removed from the accommodating portion 2. This operation is performed without using the cover 7, but by grasping the knurl 5a or the like provided on the middle cover 5 with a finger. Further, such a detachment structure is not limited to the detachment of the middle cover 5 from the accommodating portion 2, and may be used for other applications.

That is, in the present embodiment, the detachment guide portion 201 is formed in the accommodating portion 2 as the detachment requirement, and is formed to be disengaged from the second engagement position (Q) as the engagement position. When the middle cover 5 of the main component is further actuated, the middle cover 5 can be detached; and the detachment inducing portion 202 induced from the engagement position toward the detachment guide portion 201. Specifically, when the knurl 5a provided on the surface of the middle cover 5 or the like is further rotated from the second engagement position (Q) shown in FIGS. 11 and 12, the state shown in FIG. 13 is obtained. In this state, the engaging end 59 is disengaged from the second engaging hole 29, and is induced by the detachment inducing portion 202, and the detachment of the groove-shaped detachment guide portion 201 extending to the upper end of the middle cover attaching portion 24 is obtained. Possible location.

When the middle cover 5 is pulled from the state in which the engaging end 59 is brought into contact with the groove-shaped detachment guide portion 201, as shown in FIG. 14, the middle cover 5 can be detached from the accommodating portion 2 with a small force. Further, the used tube T can be removed from the accommodating portion 2 after the middle cover 5 is removed. That is, the aluminum tube T can be discarded differently from other parts made of resin. The base described above The detachment structure of the cover 5 as the detachment requirement and the accommodating portion 2 as the detachment requirement may be adopted as a structure of other various assembled products.

The threaded portion 8 has a first thread groove 81 provided in a single thread groove of the surface of the middle cover 5; a second thread groove 82 formed deeper than the first thread groove 81 and having a larger width dimension; on the surface of the middle cover 5 a step portion 83 provided at a portion other than the start end portion of the second thread groove including the start end portion of the first thread groove 81; and a step portion provided as a step portion at the end portion of the second thread groove 82 84. The second thread groove 82 is a single groove formed at a position 180° different from the angle of the first thread groove, and the second protrusion (not shown) of the cover 7 is passed over by providing the span portion 84 near the terminal end. When the traverse portion 84 is present, the user is given a sense of paragraph to know that the second convex portion has reached the vicinity of the operation terminal. The step portion 83 is a portion that is formed at a starting end portion of the first screw groove 81 and has an outer diameter that is larger than the depth dimension of the first screw groove 81 and the second screw groove 82. By the second convex portion abutting against the step portion 83, the screwing of the cover 7 to the screw portion 8 is prohibited.

Further, as shown in Figs. 15 to 17, the cover 7 is screwed to cover the front end side of the container body 1 so as to cover the nozzle 6. The cover 7 is a member formed by integrally molding a resin, for example, and has a first convex portion 71 and a second convex portion (not shown) formed by projecting a resin toward the inner side surface; a stepped portion formed at the edge portion of the locating portion 70; and, for example, four sliding ribs 73 extending in the longitudinal direction near the front end of the cover 7 and slidable to the outside of the nozzle 6, and from the inner surface of the front end portion of the cover 7 toward the base end a protrusion protruding in a cylindrical shape and insertable into the inside of the nozzle 6 74; and a slanted erecting surface 75 as a standing bottom surface of the protruding portion 74.

The first convex portion 71 is a protrusion that protrudes in a substantially rectangular shape corresponding to the depth dimension and the width dimension in which the first thread groove 81 is formed. a second convex portion (not shown) is formed at a position facing the first convex portion 71, and is protruded to a size corresponding to a depth dimension and a width dimension of the second thread groove 82. That is, it protrudes into a rectangular shape having a larger protruding size and a protruding area than the first convex portion 71, so that the second thread groove 82 can be inserted without shaking. The positioning unit 70 is in contact with the container body 1 at the end position (Q1), and can effectively hold the end position (Q1). The positioning portion 70 is not in contact with the lid 7 of the container body 1, but is in contact with the fixing portion of the lid 7 provided in the housing portion. Thereby, even if the user wants to screw the cover 7 with a strong force, the force does not affect the middle cover 5. The sliding ribs 73 are ribs provided at four places in the circumferential direction of the inside of the cover 7 at equal intervals, and are formed by tilting the front end of the tapered portion of the nozzle 6, so that the screwing can reach the end position. In the case of (Q1), it is slidably attached to the tapered portion, and functions to scrape the adhesive B adhering to the tapered portion. The protruding portion 74 is used to cover the inclined front end portion without any gap at the end position (Q1), and to avoid the member which is produced by the contact between the adhesive B in the nozzle 6 at the end position (Q1) and the external air. . Further, the protruding portion 74 has an inclined end 74a formed so that the front end portion of the inside of the cover 7 faces the direction in which the screw advances and retreats, that is, the axial direction faces the oblique direction. By the inclined end 74a, the protruding portion 74 is configured to be less likely to interfere with the shape of the inclined front end portion 64 of the nozzle 6.

Moreover, in this embodiment, as shown in FIGS. 15 to 17, Regardless of whether the user rotates the cover 7 from any direction, it must be screwed from a starting position (P1) at a single relative position, and the screwing is ended at a single end position (Q1).

First, the user covers the nozzle 6 with the cover 7 formed in an arbitrary direction for locking the cover 7, and starts the spiral traveling operation, and the second convex portion is rotated while being blocked by the step portion 83. Of course, since the step portion 83 is also formed at the beginning end of the first screw groove 81, there is no case where the second projection portion is erroneously inserted into the first screw groove 81. Further, when the first convex portion 71 and the second convex portion enter the first thread groove and the second thread groove 82, the starting position (P1) shown in Fig. 15 is obtained, from which the screwing is started. At this time, the protruding portion 74 is in a state in which the inclined end 74a faces the front of the figure, and has not yet come into contact with the inclined front end portion 64. When the rotation of the cover 7 is continued, as shown in FIG. 16, the first convex portion 71 and the second convex portion travel in the first screw groove 81 and the second screw groove 82, respectively. As shown in the figure, in a state where the cover is screwed into the 90° from the start position (P1), the front end face 68 of the nozzle 6 facing obliquely upward and the inclined end 74a of the projecting portion 74 facing obliquely downward face each other and become slightly In the state of contact, the insertion of the inclined end 74a toward the inclined front end portion 64 is started from this portion. Here, since the inclined front end portion 64 sets the thickness of the material to be a very thin thickness of 0.3 mm, a certain amount of inclination and bending may occur from the illustrated state, but by inserting the protruding portion 74, This bending or the like can be gradually corrected. Further, when the first convex portion 71 and the second convex portion are formed in the first screw groove 81 and the second screw groove 82 and rotated by 180° from the start position (P1), the cover 7 is at the end position shown in FIG. Q1) is positioned. Here, the cover 7 is not At the end position (Q1), the first convex portion 71 and the second convex portion abut against the terminals of the first screw groove 81 and the second screw groove 82. In other words, the positioning portion 70 provided at a portion different from the first convex portion 71 and the second convex portion abuts against the screw portion 8 and abuts against the lid fixing portion 20 provided on the side of the housing portion of the container body 1. Thereby, even if the user operates the cover 7 with a strong operating force, it is possible to effectively avoid the operation force from affecting the screw portion 8 and thereby effectively avoiding the influence of the middle cover 7. At this time, the front end surface 68 is in a state of being in close contact with or very close to the inclined rising surface 75, and the direction of the inclined end 74a is in the state of the deep portion in the drawing, that is, 90° different from the direction of the front end surface 68. The state of the phase. Thereby, the contact area between the protruding portion 74 and the inclined front end portion 64 can be made small, and the influence of the adhesive B on the protruding portion 74 when the cover 7 is opened can be minimized.

With the above configuration, the cover 7 of the present embodiment is inclined from the axial direction by the rising area of the protruding portion 74, and is inclined from the virtual plane orthogonal to the axial direction in detail, so that it is more from the protruding portion 74. The area of the cross-sectional area of the angle orthogonal to the direction of the axis itself is larger. As a result, since the protruding portion 74 can be erected with a larger area, it is possible to provide a protruding portion having a strong strength particularly in the standing portion. Thereby, it is hard to be damaged by the adhesive B, and the cover 7 which can cover the container body 1, ie, the inclined front end part 64 of the nozzle 6, can be acquired.

Since the protruding portion 74 of the present embodiment is inserted into the tip end of the nozzle 6 with high strength, the shape of the inclined front end portion 64 in which the nozzle 6 is formed thin can be effectively ensured.

Further, in the present embodiment, the application is based on the thread portion. The screwing structure of the first thread groove 81, the first convex portion 71, the second thread groove 82, and the second convex portion can ensure the accurate positioning of the protruding portion 74 with respect to the inclined front end portion 64 of the nozzle 6.

In particular, in the present embodiment, by forming the tip end of the protruding portion 74 as an inclined end, it is possible to smoothly insert the inclined tip end portion 64 while avoiding interference with the nozzle 6 at the time of screwing.

Further, as described above, the protruding portion 74 can be inserted into the inclined tip end portion 64 in a reliable manner, and the thickness of the tip end can be set to a thickness of 0.3 mm or less in detail, even if the shape is not easily formed as in the embodiment. The front end portion 64 can also effectively ensure the shape of the inclined front end portion 64 by easily and surely inserting the protruding portion 74.

<Second embodiment>

Hereinafter, a second embodiment of the present invention will be described with reference to Figs. 18 to 40.

The coating container of the present embodiment is a container body 1 for applying, for example, a coating material, and has a container body 1 for accommodating an adhesive; and a cover 7 for sealing the front end of the container body 1 . In the container main body 1, the pressing member 3 attached to the accommodating portion 2 is pressed by a finger or the like, and the adhesive B filled in the tube T as the sealing portion housed in the accommodating portion 2 is pressed toward the nozzle 6 of the coating portion. The adhesive B can be applied to the object from the front end surface 68 of the nozzle 6. When the coating container is not in use, as shown in FIG. 20, the tip end of the nozzle 6 is sealed by the lid 7, and the adhesive B is prevented from coming into contact with the outside air. Regarding the structure of the cover 7, The specific description will be described in detail after the equalization of the middle cover 5.

In addition, the pipe T has a pipe main body T1 formed by forming an aluminum plate in a thin plate shape, for example, in a state in which the adhesive B is sealed, and a mounting screw portion T2 formed in a male screw shape on the end side of the pipe main body T1; On the other end side of the screw portion T2, the aluminum material is made thin, and the aluminum material is broken inside the inner side surrounded by the mounting screw portion T2, and the adhesive B can be taken out to the external extraction surface T3. The structure of the tube T may be an existing tube prepared by holding, for example, an existing adhesive agent B, a liquid or a gel, or the like. That is, the tube T can be used as a container even if it is a single unit. In this case, by pressing the surface of the tube main body T1 with a finger or the like to form the abdomen T4 in the front and back, it is possible to extract the coating material, that is, the adhesive B, from the portion where the aluminum material of the surface T3 is broken. T external.

Moreover, as shown in FIG. 21, the container main body 1 as a component is provided with the inner cover 4 installed in the accommodating part 2 in addition to the accommodating part 2, the push button 3, and the nozzle 6, and is fixed. In the state of the nozzle 6, the cover 5 is externally fitted to the accommodating portion 2, and these members are appropriately combined.

Here, the container main body 1 of the present embodiment has a housing portion 2 that accommodates the adhesive B and has a directional shape, and a nozzle 6 that is attached to the container portion 2 for being housed in the container portion 2 The container B of the accommodating portion 2 is coated with an object, and a container body 1 having a directional inclined tip end portion 64 is formed, and is characterized in that an engagement guide portion 25 is provided, which is not coated in the nozzle 6 Cloth of the aforementioned adhesive B a first orientation (P) at which the accommodating portion 2 and the nozzle 6 are engaged, and the accommodating portion 2 and the nozzle 6 from the first engagement position (P) have a predetermined directivity and a second engagement position (Q) that is incapable of relatively moving in a state in which the nozzle 6 is applied to the nozzle B, and the housing portion 2 and the nozzle 6 are engaged with each other, and can be guided from the first The engagement position (P) moves toward the second engagement position (Q).

Moreover, the screwing structure X of the container body 1 and the cover 7 of the present embodiment is provided with a first screwing portion X1 having a first screw groove 81 provided in the container body 1 as a screw body, And a first convex portion 71 of the cover 7 as a screw body that can be screwed into the container body that can be inserted into the first thread groove, the first convex portion is for the container body 1 and the cover 7 Rotating from a starting position (P1) that becomes a predetermined relative angle and screwing at an end position (Q1) that is a predetermined relative angle; and a second screwing portion X2 having a first thread The groove 81 is recessed and disposed in the second thread groove 82 and the second convex portion 72 of the container body 1. The second protrusion is provided on the cover 7 so as to be inserted only into the predetermined second thread groove 82 and screwed It is not possible to insert the first thread groove 81 described above. The structure of the screw mounting structure X will be described in detail later.

Hereinafter, the structure of each part of the container body 1 and the structure of the cover 7 will be described in order.

The accommodating portion 2 is integrally molded by, for example, a resin, and is formed into a symmetrical so-called half-divided structure via a resin hinge provided on the proximal end side opposite to the distal end on which the nozzle 6 is positioned. That is, the accommodating portion 2 is held in such a manner that the other constituent elements to be accommodated are held via the resin hinge. With. The accommodating portion 2 has a button hole 21 formed by opening a center at a center in the longitudinal direction and the width direction, and the push button 3 can be exposed; the push button 3 is used to sandwich the inner side surface of the push button 3 The button attachment portion 22 of the groove; the inner lid attachment portion 23 as a groove for sandwiching the inner lid 4 on the inner side surface and the front end; and the inner lid 5 can be fitted into the inner lid attachment portion 24. Further, the middle cover attaching portion 24 has the engagement guide portion 25 of the present embodiment, and the specific configuration of the engagement guide portion 25 will be described in detail later.

The push button 3 is a symmetrical shape member integrally formed of, for example, an elastic resin, and has a button body 31 that is directly pressed by a user; and the push button 3 is pressed to make the tube body T1 have a flat belly T4. The pressing plate 32 pressed from the one surface and the other surface with equal strength; the pair of button bodies 31 and the pressing plate 32 are operatively held by the elasticity of the resin, and are at the base end of the housing portion 2 The base end portion 33 is exposed on the side. Specifically, the button body 31 has an operation portion 34 that is formed in a concave-convex shape at a predetermined interval so as to be easily grasped so that a finger or the like does not slide, and a base end that faces the slave operation portion 34 The side is protruded in a direction close to each other, and the protruding end portion abuts against the communication rib 35 of the pressing plate 32.

The inner cover 4 is a member for fixing the tube T to the inside of the accommodating portion 2, and has a female screw portion 41 to which the screw is fixed to the mounting screw portion T2 of the tube T, and the inner lid mounting portion 23 inserted into the accommodating portion 2 The mounting flange 42 and the nozzle abutting portion 43 that abuts against the nozzle 6 and positions the nozzle 6 in the longitudinal direction. Furthermore, in the present embodiment, in order to smoothly perform the inside The cover 4 is fixed to the screw of the tube T, and irregularities are formed on the outer circumferential surface of the flange to be mounted 42.

The middle cover 5 is provided with a liquid dripping preventing portion 50 at the front end portion, and can effectively avoid the occurrence of the drop of the adhesive B falling from the nozzle 6. Further, the middle cover 5 has an inner cover attaching portion 23 outer covering portion 51 which can cover the outer portion 1 of the accommodating portion 2 from the outside, and a first thread groove 81 and a second thread which will be described later as the screw surface 56 are formed on the surface. The groove 82 is screwed to the screw portion 8 of the cover 7, the nozzle attachment portion 53 having the positioning groove 57 for fixing the nozzle 6 in the axial direction, and the opening portion 54 for opening a part of the outer fitting portion 51. In the present embodiment, the outer fitting portion 51 has a rotation engagement claw 55 that is engageable toward the inner centering cover attaching portion 24. The rotation engagement claw 55 has an extending portion 58 extending in the circumferential direction by appropriately cutting the resin material; the front end of the extending portion 58 is protruded inwardly for engaging the middle cover mounting portion 24 directly. End 59. The specific structure of the screw portion 8 will be described in detail later.

The nozzle 6 is integrally formed of a transparent or translucent resin, and it is easy to know whether or not the adhesive B is present inside. The nozzle 6 has a nozzle body 61 that is exposed from the accommodating portion 2, a mounted portion 62 to which the centering cover 5 is attached, and a drawing tube 63 that draws the adhesive B closer to the proximal end side than the attached portion 62. The nozzle body 61 has a tapered distal end portion 64 that is formed by cutting the distal end side in an oblique direction, and a tapered portion 69 that is formed to have an outer diameter that gradually decreases as it reaches the inclined distal end portion. The mounted portion 62 has a flange 65 that is positioned in the longitudinal direction of the middle cover 5, and a positioning rib 66 that protrudes in order to prohibit rotation about the axis. Here, the nozzle 6 The inclined front end portion 64 cuts the nozzle body 61 in the oblique direction to form the distal end surface 68. The front end face 68 is a slit having an inclined plane shape in the nozzle body 61. Thereby, the nozzles 6 are formed in such a shape that the contact areas of the objects can be different by making the directions of the objects different. That is, the nozzle 6 has a shape that is directional.

As described above, the container main body 1 of the present embodiment includes the engagement guide portion 25 that allows the accommodation portion 2 and the nozzle 6 to be engaged in a state where the nozzle B cannot be applied to the nozzle 6 The engagement position (P) and the nozzle 6 that has a predetermined directivity between the accommodating portion 2 and the nozzle 6 from the first engagement position (P) can be coated with the adhesive B. The second engagement position (Q) that cannot be engaged with the movement can engage the accommodation portion 2 and the nozzle 6 and can guide the first engagement position (P) toward the second engagement position. (Q) action.

In the present embodiment, the engagement guide portion 25 is provided in the middle cover attachment portion 24 of the accommodating portion 2, and the engagement guide portion 25 is provided by the nozzle attachment portion 53 provided with the nozzle 6 that is non-rotatably mounted. The rotation engagement claws 55 of the middle cover 5 are engaged and guided, and the nozzles 6 are indirectly positioned toward the first engagement position (P) and the second engagement position (Q).

The engaging guide portion 25 has, as shown in FIG. 22, in particular, an introduction guiding groove 26 for inserting the engaging end 59, and a first card for indirectly positioning the nozzle 6 at the first engaging position (P). a hole 27; a rotation guiding groove 28 continuous from the first engaging hole 27 in the groove of the spiral feeding direction; and by being guided by the rotation guiding groove 28, the engaging end 59 is non-rotatable set Position, the nozzle 6 is indirectly fixed to the second engaging hole 29 of the second engaging position (Q).

Here, referring to FIG. 23 to FIG. 27, it is explained that by guiding the nozzle 6 from the first engagement position (P) toward the second engagement position (Q), the direction of the nozzle 6 is ideally positioned at the time of use. The position of the container body 1 can be used in a series of actions.

First, in Fig. 23, the state in which the middle cover 5 to which the nozzle 6 is fixed is introduced toward the accommodating portion 2 is shown. Specifically, the engaging end 59 of the rotation engaging claw 55 is fitted to a position that can be inserted into the introduction guide groove 26. Then, when the engaging end 59 is further moved toward the proximal end side along the introduction guide groove 26 from this state, the first engagement position (P) shown in Figs. 25 and 27 is obtained. At the first engagement position (P), since the proximal end of the nozzle 6, that is, the through end 67 of the extraction tube 63 is separated from the extraction surface T3 of the tube T, the adhesive B cannot be injected into the nozzle 6. status.

Here, when the middle cover 5 is screwed in order to rotate the engagement end 59 along the rotation guide groove 28 from the state shown in FIG. 25, the penetration end 67 is inserted into the tube T while passing through the extraction surface T3 while rotating. internal. Further, in the present embodiment, when the spiral operation is rotated by 90 degrees from the first engagement position (P), the engagement end 59 is inserted into the second engagement hole 29 as shown in Figs. 25 and 27 . In this state, the engagement end 59 is deeply inserted into the second engagement hole 29, and if it is not an external force that is much larger than the normal operation force, the engagement cannot be released. Further, in the state of the same figure, the nozzle 6 is such that the positioning rib 66 is fitted to the positioning groove 57, and the rotation operation is prohibited, and the flange 65 abuts against the nozzle abutting portion 43 so that the movement of the nozzle 6 is prohibited. Thus, the nozzle 6 is in a state in which the accommodating portion 2 is indirectly fixed at the second engagement position (Q).

Further, at the second engagement position (Q), the distal end surface 68 of the nozzle 6 is in the same direction as the direction in which the button body 31 of the push button 3 attached to the accommodating portion 2 is exposed. That is, the direction in which the operation portion 34 is exposed coincides with the direction in which the front end surface 68 of the nozzle 6 faces. Therefore, the direction in which the abdomen T4 of the tube main body T1 and the operation portion 34 are exposed coincides with the direction in which the front end surface 68 of the nozzle 6 faces. That is, it is easy to perform the pressing operation of the tube T and the discharge of the adhesive B from the distal end surface 68. Thereby, the user can easily recognize the direction of the distal end surface 68 from the direction in which the button body 31 is pressed, and can apply the adhesive B in a state where it is easy to grasp.

As described above, in the present embodiment, as shown in FIGS. 28 to 40, the screwing structure X can be achieved by the screw portion 8 and the cover provided in the middle cover 5.

The threaded portion 8 has a first thread groove 81 provided in a single thread groove of the surface of the middle cover 5; a second thread groove 82 formed deeper than the first thread groove 81 and having a larger width dimension; on the surface of the middle cover 5 a step portion 83 provided at a portion other than the start end portion of the second thread groove including the start end portion of the first thread groove 81; and a step portion provided as a step portion at the end portion of the second thread groove 82 84. The second thread groove 82 is a single groove formed at a position different from the first thread groove by 180°, by providing a span portion 84 near the terminal, and when the second protrusion 72 passes over the span portion 84, The user gives a sense of paragraph to let the second convex portion 72 reach the vicinity of the action terminal. The step portion 83 is formed at the first thread groove 81 In the start end portion, the outer diameter is formed to a portion where the diameter becomes larger than the difference between the depth dimension of the first screw groove 81 and the second screw groove 82. By the second convex portion 72 abutting against the step portion 83, the screwing of the cover 7 to the screw portion 8 is prohibited.

Further, as shown in FIGS. 28 and 36 to 38, the cover 7 is screwed to cover the front end side of the container body 1 so as to cover the nozzle 6. The cover 7 is a member formed by integral molding of, for example, a resin, and has a first convex portion 71 and a second convex portion 72 which are formed by projecting the resin toward the inner side surface, and are formed in a stepped manner at the side edge portion of the proximal end. a positioning portion 70 at the edge portion; for example, four sliding ribs 73 extending in the longitudinal direction near the front end of the inside of the cover 7 and slidably connected to the outside of the nozzle 6, and from the inner surface of the front end portion of the cover 7 toward the base end side An insertion rib 74 projecting in a cylindrical shape and insertable into the inside of the nozzle 6. The first convex portion 71 is a protrusion that protrudes in a substantially rectangular shape corresponding to the depth dimension and the width dimension in which the first thread groove 81 is formed. The second convex portion 72 is formed at a position facing the first convex portion 71, and protrudes into a size corresponding to a depth dimension and a width dimension in which the second thread groove 82 is formed, that is, protrudes into The rectangular shape having a larger protruding size and a protruding area than the first convex portion 71 allows the second thread groove 82 to be inserted without shaking. The positioning unit 70 is in contact with the container body 1 at the end position (Q1), and can effectively hold the end position (Q1). The positioning portion 70 is not in contact with the lid 7 of the container body 1, but is in contact with the lid fixing portion 20 provided in the housing portion. Thereby, even if the user wants to screw the cover 7 with a strong force, the force does not affect the middle cover 7. The sliding ribs 73 are arranged in the circumferential direction inside the cover 7 The ribs provided at the four portions of the spacer are formed by inclining the tip end in accordance with the angle of the tapered portion of the nozzle 6. When the screwing reaches the end position (Q1), the spacer can be slidably attached to the tapered portion to exhibit scraping adhesion. The role of the adhesive B in the tapered portion. The insertion rib 74 is used to cover the inclined front end portion without any gap at the end position (Q1), and to avoid the member which is produced by the contact between the adhesive B in the nozzle 6 at the end position (Q1) and the external air. .

Further, in the present embodiment, the first screw groove 81 and the first convex portion 71 constitute the first screw portion X1 of the present embodiment, and the second screw groove 82 and the second convex portion 72 constitute the present embodiment. Second screwing portion X2. Thereby, as shown in FIGS. 36 to 40, regardless of whether the user rotates the cover 7 from any direction, it must be screwed from a starting position (P1) at a single relative position, similarly at a single end position ( Q1) End the screwing. 39 and 40 are schematic views of the threaded portion and the inner side surface of the cover 7 viewed from the direction in which the screw is advanced and retracted.

First, the user covers the nozzle 6 with the cover 7 formed in any direction in order to lock the cover 7, and the spiral traveling operation is started. As shown in FIG. 39, the second convex portion 72 is blocked by the step portion 83. Rotate. Of course, since the step portion 83 is also formed at the starting end of the first thread groove 81, there is no case where the second protrusion portion 72 is erroneously inserted into the first thread groove 81. Further, when the second convex portion 72 enters the second screw groove 82, it is at the start position (P1) shown in Fig. 36, from which the screwing is started. Also at the start position (P1), the first convex portion 71 is also inserted into the first thread groove 81. Then, when the rotation of the cover 7 is continued, as shown in the upper and middle sections of FIGS. 37 and 40, the first convex portion 71 and the second convex portion 72 are formed. They travel in the first thread groove 81 and the second thread groove 82, respectively. Further, when the first convex portion 71 and the second convex portion 72 are moved in the first screw groove 81 and the second screw groove 82 and rotated by 180° from the start position (P1), the cover 7 is at the end position (Q1). Positioning. Here, the cover 7 is at the end position (Q1), and the first convex portion 71 and the second convex portion 72 are not in contact with the terminals of the first thread groove 81 and the second thread groove 82, but are disposed at the first end. The positioning portion 70 at a portion where the convex portion 71 and the second convex portion 72 are different is in contact with the lid fixing portion 20 provided on the side of the housing portion 2 of the container body 1, instead of abutting against the screw portion. Thereby, even if the user operates the cover 7 with a strong operating force, it is possible to effectively avoid the operation force from affecting the screw portion 8 and thereby effectively avoiding the influence of the middle cover 7. Further, when the second convex portion 72 comes into contact with the vicinity of the terminal end of the second screw groove 72, the span portion 84 is exceeded, and the user can be given a sense of paragraph, thereby effectively avoiding the user's extra force at the action terminal. The situation arises.

As described above, the container main body 1 of the present embodiment includes the accommodating portion 2 in which the adhesive B is accommodated and has a directional shape, and the nozzle 6 is attached to the container portion 2 for being housed. The container body 1 is coated with an adhesive B in the accommodating portion 2, and a container body 1 having a directional inclined distal end portion 64 is formed, and is characterized in that an engagement guide portion 25 is provided in the nozzle 6 The first engagement position (P) in which the accommodating portion 2 and the nozzle 6 are engaged and the accommodating portion 2 and the nozzle 6 from the first engagement position (P) in a state where the adhesive B cannot be applied The second engagement position (Q) that has a predetermined directivity and that can be engaged with the adhesive B in a state where the nozzle 6 can be applied with the adhesive B is engaged with each other, and the housing portion 2 and the nozzle 6 are engaged with each other. And can be guided from The first engagement position (P) moves toward the second engagement position (Q).

In this way, when the container main body 1 of the present embodiment is engaged with the nozzle 6 at the first engagement position (P), which is a desired position, the adhesive B of the coating material during storage and transportation can be maintained. Will not accidentally leak or coat the state. Further, since the engagement guide portion 25 can be accurately guided from the first engagement position (P) to the second engagement position (Q), it is possible to make the container body 1 easy to use. Further, in the state of being engaged at the second engagement position (Q), the adhesive B can be stably applied in a state where the application portion is engaged with the container body at a desired position. Further, since the relative movement between the accommodating portion 2 and the nozzle 6 is prohibited at the second engagement position (Q), the user can perform the coating operation ideally.

In order to achieve accurate guidance to the second engagement position (Q) with a simple operation, in the present embodiment, the engagement guide 25 rotates the nozzle 6 and the accommodation portion 2 while rotating relative to each other. The spiral traveling operation is performed to guide the second engagement position (Q).

Further, in the present embodiment, by positioning the inclined distal end portion 64 of the nozzle 6 in accordance with the direction of the accommodating portion 2, the user can easily adjust the direction of the nozzle 6, and the adhesive B can be desirably applied.

In order to reliably prevent the application of the adhesive B at the first engagement position (P) and to reliably apply the adhesive B at the second engagement position (Q), in the present embodiment, the housing portion 2 The adhesive B is accommodated by accommodating the adhesive B in a sealed tube T, and the extraction tube 63 located at the proximal end of the nozzle 6 can be inserted into the aforementioned second engagement position (Q). The inside of the tube T.

Further, as a result of the user's operation, the adhesive B can be applied in a desired amount or in a time series. In the present embodiment, the accommodating portion 2 is attached to the nozzle B by the pressing operation. The button of 6 can freely adjust the direction of the nozzle 6 and the supply amount of the adhesive B by matching the direction of the inclined front end portion 64 with the direction in which the button is exposed from the accommodating portion 2.

Further, the screw-on structure X to which the container body 1 and the cover 7 of the present embodiment are applied includes a first screwing portion X1 having a first thread groove 81 provided in the container body 1 as a screw body. And a first convex portion 71 of the cover 7 as a screw body that can be screwed into the container body 1 that can be inserted into the first thread groove, the first convex portion is for the container body 1 and The cover 7 is relatively rotated from a start position (P) which is a predetermined relative angle and is screwed at an end state (Q) which is a predetermined relative angle; and a second screw portion X2 having a second A threaded groove 81 is recessed and disposed in the second thread groove 82 and the second convex portion 72 of the container body 1. The second protrusion is provided on the cover 7 so as to be inserted only into the predetermined second thread groove 82 and It is screwed and cannot be inserted into the aforementioned first thread groove 81. Thereby, the second convex portion 72 can be inserted only into the predetermined second screw groove 82, and it is possible to effectively avoid the occurrence of screwing in the wrong direction. Thereby, it is possible to always achieve the correct screwing at a predetermined relative position.

In order to effectively avoid the erroneous insertion of the second convex portion 72 into the first thread groove 81, in the present embodiment, the length of the second convex portion 72 protruding toward the inner side of the cover 7 is set to be smaller than that of the first convex portion 71. Burst The length dimension is larger, and the width dimension of the second thread groove 82 and the size of the second protrusion 72 corresponding to the width dimension are set to be larger than the width dimension of the first thread groove 81.

Further, since the step portion 83 is provided at the insertion end where the first convex portion is inserted at the start position (P1) in the first screw groove 81, the second convex portion 72 does not interfere with the first screw groove 81. When the second screw groove 82 is reached, the cover 7 and the container body 1 can be smoothly rotated relative to each other, and the user does not feel a sense of difference when the second convex portion 72 passes through the first screw groove 81.

Further, in order to allow the simple structure to be present together with the correct screwing, in the present embodiment, the first screwing portion X1 and the second screwing portion X2 are each provided at a position facing each other. Further, by causing the first screwing portion X1 and the second screwing portion X2 to face each other, that is, different 180° angle phases, it is possible to effectively avoid the occurrence of partial intensity unevenness.

In particular, in the present embodiment, the positioning portion 70 for positioning the container body 1 and the lid 7 at the end position (Q1) is provided at a position different from the first screw portion X1 and the second screw portion X2. Even if the urging force in the direction in which the screwing travels is further applied from the end position (Q1), it is possible to effectively avoid the occurrence of unnecessary force applied to the first screwing portion X1 and the second screwing portion X2.

Although the embodiment of the present invention has been described so far, the specific configuration of each part is not limited to the above embodiment.

<Modification>

Hereinafter, each modification of this embodiment will be described in detail. The constituent elements corresponding to the above-described embodiments are denoted by the same reference numerals, and the detailed description thereof will be omitted.

41 is a view showing the first screwing portion X1 and the second screwing portion X2 in the same angular phase as the above-described embodiment, but the size of the inner surface of the cover 7 where the first convex portion 71 protrudes is set to be the second convex portion. The portion 72 of the same size is α. With such a configuration, the same actions and effects as those of the above embodiment can be obtained. In other words, the first screwing portion X1 and the second screwing portion X2 of the present embodiment are such that the height of the first convex portion 71 and the second convex portion 72 protrudes and the first thread groove 81 and the second thread groove 82. The depth dimensions are different.

42 and 43 show a state in which a plurality of, that is, two, and three first screwing portions X1 are provided. In this case, even if the first screw groove 81 other than the first screw groove 81 corresponding to the first convex portion 71 is reached, the second convex portion 72 cannot enter the first screw groove 81 as in the above-described embodiment. In the same manner as in the above embodiment, the second projection 72 can be inserted into the correct starting position (P1) of the second screw groove 82 to start the screwing. In other words, in the screw mounting structure X of the present embodiment, the number, arrangement, and the like of the first screwing portions X1 can be variously changed.

<Third embodiment>

Hereinafter, a third embodiment of the present invention will be described with reference to Figs. 44 to 51. In the same embodiment, the same components as those of the above-described embodiments are denoted by the same reference numerals, and their detailed description is omitted.

Similarly to the above-described embodiment, the container main body 10 of the present embodiment faces the direction of the distal end surface 68 of the nozzle 6 and the direction of the button main body 31a exposed from the accommodating portion 2 in a planar viewing angle at the second engagement position (Q). In the same direction, the engagement guide portion 25a is applied to the second engagement position from the first engagement position (P) to the direction in which the nozzle 6 and the housing portion 2 are joined ( Q) The aspect of guidance.

Hereinafter, the configuration of the container body 10 will be mainly described with a configuration different from that of the above embodiment. In the same embodiment, the inner cover 4, the nozzle 6, the tube T, and the cover 7 are substantially the same as those of the above-described embodiment, and thus detailed description thereof will be omitted.

The accommodating portion 2 has a substantially semi-divided structure having the button hole 21, the button attaching portion 22, and the inner lid attaching portion 23 similar to those of the above-described embodiment, but the outer lid attaching portion 24a is inserted in the same manner as the inner lid attaching portion 23 In the accommodating portion 2, a locking portion that can lock the half-divided portions to each other is provided on the distal end side of the accommodating portion 2.

The push button 3 is a member in which the pair of button bodies 31a are operatively coupled to the base end portion 33, and has an operation portion 34a that can directly operate the button body 31a and a tube body T1 that can be equally pressed on the back side of the operation portion 34a. The pressing surface 32a of the abdomen T4, the structure of the pressing plate 32 of the above embodiment is omitted.

In the middle cover 5, the cover fixing portion 52 and the nozzle attachment portion 53 have the same configuration as that of the above-described embodiment, but the configuration of the opening portion 54 is omitted. Further, it has an insertion portion 51a for attachment to the outer cover attaching portion 24a. This insertion portion 51a has a total of protruding from the cover fixing portion 52 toward the base end side. The four pressing engagement claws 55a have an extending portion 58a extending toward the proximal end side and an engaging end 59a that engages with the engaging guiding portion 25a at the distal end of the extending portion 58a. In the present embodiment, in order to easily achieve the correct positioning of the accommodating portion 2 and the nozzle 6 at the second engagement position (Q), the following aspect is applied, that is, the engagement guiding portion 25a is engaged from the first engagement. The position (P) is along the direction in which the nozzle 6 and the accommodating portion 2 are joined toward the second engagement position (Q).

The engaging guide portion 25a has, in particular, as shown in Figs. 44 and 47, a first engaging hole 27a for inserting the engaging end 59a and indirectly positioning the nozzle 6 at the first engaging position (P). a pressing guide groove 28a continuous from the groove in the linear direction from the first engaging hole 27a; and guided by the pressing guide groove 28a, the engaging end 59a is non-movably positioned to allow the nozzle 6 to be moved The second engagement hole 29a is fixed to the second engagement position (Q).

Here, referring to FIG. 48 to FIG. 51, it is explained that by guiding the nozzle 6 from the first engagement position (P) toward the second engagement position (Q), the direction of the nozzle 6 is ideally positioned at the time of use. A series of actions of the state of the container body 10 can be used.

First, in Fig. 48, the state in which the middle cover 5 to which the nozzle 6 is fixed is introduced toward the accommodating portion 2 is shown. Specifically, the engagement end 59a of the pressing engagement claw 55a is engaged with the first engagement hole 27a as the first engagement position (P). At the first engagement position (P), since the proximal end of the nozzle 6, that is, the through end 67 of the extraction tube 63 is separated from the extraction surface T3 of the tube T, the adhesive B cannot be injected into the nozzle 6. status.

Here, when the engaging end 59a is brought along from the state shown in FIG. When the pressing guide groove 28a is engaged and engaged, the through end 67 penetrates the extraction surface T3 without being rotated, and is inserted into the inside of the tube T. Further, in the present embodiment, when the middle cover 5 is actuated to the operation terminal, as shown in Figs. 49 and 51, the engagement end 59a is inserted into the second engagement hole 29a. In this state, the engagement end 59a is deeply inserted into the second engagement hole 29a, and the engagement cannot be released unless it is an external force that is much larger than the normal operation force. Further, in the state of the same figure, the nozzle 6 is such that the positioning rib 66 is fitted to the positioning groove 57, and the rotation operation is prohibited, and the flange 65 abuts against the nozzle abutting portion 43 so that the movement of the nozzle 6 is prohibited. Thus, the nozzle 6 is in a state in which the accommodating portion 2 is indirectly fixed at the second engagement position (Q).

Further, at the second engagement position (Q), the distal end surface 68 of the nozzle 6 is in the same direction as the direction in which the button body 31a of the push button 3 attached to the accommodating portion 2 is exposed. Thereby, the user can apply the adhesive B in a state where the direction of the distal end surface 68 is easily sensed from the direction in which the button body 31a is pressed.

In this manner, even if the second engagement position (Q) is created by the pressing operation, the nozzle 6 can be ideally positioned to the second engagement position (Q), and the ideal use of the container body 10 can be ensured in the same manner as in the above embodiment. .

The embodiment of the present invention has been described above, but the specific configuration of each part is not limited to the above-described embodiment, and various modifications can be made without departing from the scope of the technical idea of the present invention.

For example, in the above embodiment, the aspect in which the cover is attached by screwing in and out is disclosed, but it is of course possible to insert the cover in the axial direction. Moreover, the specific aspect of the nozzle, the tube, or the push button is not limited to the upper In the embodiment, those having various forms including the existing structure can be applied.

In addition, the specific structure of each part is not limited to the above-described embodiment, and various modifications can be made without departing from the scope of the technical idea of the present invention.

[Industry use possibility]

The present invention can be utilized as a container having a lid that covers a container in which an adhesive is placed.

1‧‧‧ container body

2‧‧‧ Housing Department

3‧‧‧Press button

5‧‧‧中盖

6‧‧‧ nozzle

7‧‧‧ cover

8‧‧‧Threading Department

20‧‧‧Cover fixation

21‧‧‧ button hole

31‧‧‧ button body

33‧‧‧ base end

34‧‧‧Operation Department

50‧‧‧ Liquid Drop Prevention Department

55‧‧‧Rotating claws

61‧‧‧Nozzle body

64‧‧‧ tilted front end

68‧‧‧ front face

69‧‧‧Cone

70‧‧‧ Positioning Department

73‧‧‧Slide ribs

74‧‧‧Insert ribs

74a‧‧‧Slanted end

75‧‧‧Slanted facade

81‧‧‧First thread groove

83‧‧ ‧ step department

Claims (7)

A container comprising: a container body having a nozzle coated with an adhesive; and a cover mounted on the container body, wherein the cover is provided with: a front end of the nozzle along the nozzle a protruding portion that is inserted in the longitudinal direction; and a slanted rising surface that is provided at an erected portion where the protruding portion stands up in a longitudinal direction of the nozzle. The container according to claim 1, wherein the front end of the nozzle is formed to face the longitudinal direction and face the oblique direction. The container of claim 2, wherein the inclined upright surface and the front end of the nozzle are adjacent to each other. The container of claim 1, wherein the container body is attached by screwing. The container according to claim 1, wherein the front end of the protruding portion is formed to face the longitudinal direction of the nozzle and face the oblique direction. The container of claim 1, wherein the front end of the nozzle is formed into a thin wall. The container of claim 6, wherein the thickness of the front end of the nozzle is set to be 0.3 mm or less.