JPS5923697Y2 - Assembly box for storing solid items - Google Patents

Description

[Detailed description of the invention] This invention is an assembly box for storing solid articles designed to be able to support and store solid articles in a fixed position. The present invention relates to an assembly box in which a partition forming area for supporting and accommodating items in a fixed position is formed integrally by die-cutting a single sheet member.

As is well known, packaging boxes for storing a plurality of regular-shaped solid articles as a set are already well known.

These packaging boxes have multiple boxes inside them.

These packaging boxes may be those in which a plurality of regular-shaped solid articles are simply packed together, or those in which a plurality of regular-shaped solid articles are supported and stored in fixed positions at regular intervals. be.

Conventionally, the latter packaging box has been constructed with an exterior main body and a partition member that are separate members, requiring separate work processes for each, and requiring work to combine them. However, it was extremely disadvantageous economically in terms of both manufacturability and workability.

The purpose of this invention was to solve the problems seen in the conventional assembling boxes for storing solid objects as described above. To provide an assembly box for storing solid articles that can be integrally shaped by punching.

A further object of the invention is to provide an assembly box for storing solid articles designed to generally assume a sheet-like form even after primary processing (including pasting) in a factory.

This invention is a distant relative of the above-mentioned purpose, and specifically, the exterior surface forming area and the partition forming area for supporting and storing solid articles in a fixed position are formed into a single sheet member. It has an exterior side surface forming area of a predetermined width on both left and right sides of the exterior top surface forming area through the first mountain fold line, and a second exterior side surface forming area is formed in at least one of the exterior side surface forming area. An exterior bottom forming area is formed continuously through the mountain fold line, and an intermediate folding area narrower in width than the exterior side surface forming area is provided at the outer edge of the exterior bottom forming area via a third mountain fold line, and the A partition forming area is provided at the outer edge of the middle folding area via a fourth mountain fold line, having holes equal to the width of the exterior bottom forming area and having holes for supporting the solid article in a fixed position at a predetermined interval; The outer edge of the partition forming area is equal to the difference width between the exterior side forming area and the middle folding area through a valley fold line, and the exterior side forming area is flattened toward the exterior top forming area. This is an assembly box for storing solid articles, which is provided with adhesive strips that are attached and connected to the inside surface.

Hereinafter, the assembly box for storing solid articles according to this invention will be described in detail based on specific embodiments shown in the drawings.

This idea basically consists of the first
and the second embodiment shown in FIGS. 5 to 8.

In both cases, the exterior surface forming area and the partition forming area for supporting and storing solid articles in a fixed position are formed by die-cutting a single sheet member S, S'. It is.

First, a description will be given based on the first embodiment.

According to this example, an exterior top surface forming area 1 equal to the width W of the assembly box is formed in the center of one sheet member S.

First mountain fold lines 2, 2 are provided on both left and right sides of the exterior top surface forming area 1.
Exterior side surface forming area 3, 3 equal to the depth D of the assembly box through
is a continuous force of form.

A second mountain fold line 4 is provided at each outer edge of each of the exterior side surface forming areas 3, 3.
, 4, exterior bottom surface forming regions 5, 5 having a size equal to half the width W of the assembly box (Wn2) are continuously formed.

At each outer edge of the exterior bottom surface forming regions 5, 5, a middle folding region 7 having a width equal to a dimension X narrower than the dimension of the exterior side surface forming regions 3, 3 is provided via the third mountain fold line 6, 6. , 7 are provided.

The dimension X of the middle folding areas 7, 7 is the exterior side forming area 3°3
It is preferable that the dimension D is 1.3i L, te (D/2).

The width (run 2) of the exterior bottom forming areas 5, 5 and the neat inner partition forming areas 9, 9 are continuously formed on the outer edge of each of the middle folding areas 7, 7 via the fourth mountain fold lines 8, 8. has been done.

The partition forming areas 9, 9 are provided with holes 10, 10 at predetermined intervals for supporting the solid article G in a fixed position.

The solid article support hole 10 is designed in advance in relation to the shape of the article to be supported.

A valley fold line 11° 11 is attached to each outer edge of each of the inner partition forming areas to the difference width DX between the dimensions of the exterior side forming areas 3, 3 and the dimension X of the middle folding areas 7, 7. Equal glue allowance pieces 12.
12 are continuously formed.

On the other hand, there are fifth mountain fold lines 13 above and below the exterior top surface forming area 1.
13, into the exterior end face forming area 14.14 whose width is equal to the width of the exterior side face forming areas 3, 3, and into the exterior end face forming area 14.14 via the sixth mountain fold line 15.15. A flap 16.16 is provided.

At the center of the outer edge of the insertion flap 16.16, there are provided notches 17, 17 for receiving the portion indicated by reference numeral P in the figure.

Note that a notch 18.18 may be provided in the portion P that engages with the notch 17.17.

In the figure, reference numeral 19 denotes auxiliary pieces that are continuously formed on both end sides of the exterior side surface forming regions 3, 3 via mountain fold lines 20.

Furthermore, in this invention, solid article support holes 10 provided in the exterior top surface forming area 1 and in the partition forming areas 9, 9 are provided.
A window 21 large enough to allow the stored solid articles G to be viewed from the outside can also be provided at a position corresponding to the window 21 .

Further, although the embodiment shown in the figure is designed as an assembly box for storing six solid articles G, the design can be changed depending on the number of solid articles to be stored.

That is, in the first embodiment, an integral number of stages in the vertical direction and an even number of rows in the horizontal direction can be formed as desired depending on the design.

As shown in FIG. 1, the die-cut sheet member S is
It is assembled into a packaging box according to the steps shown below.

First, this assembly box is folded along the third mountain fold line 6.6, and the adhesive strips 12.12 are placed on each of the exterior side surface forming areas 3, 3 and on the exterior top surface forming area 1 side. It is attached and connected to each of the inner surfaces 3A and 3A of the flattened portion (see Fig. 2).

The assembly box of this invention is stocked on the user's side in the form shown in FIG. 2 while generally maintaining its sheet-like form.

The assembled box is folded on the user side along the first to fourth mountain fold lines 2.4.6.8 and valley fold lines 11 within an angle range of 90° in each folding direction.

During this bending operation, the solid article G is accommodated in relation to the holes 10, 10 provided in the partition forming regions 9, 9.

After the bent portions are each bent at an angle of 90°, each auxiliary piece 19 is bent along the mountain fold line 20, and the exterior end face forming area 14 and The insertion flap 16 is bent until each bent portion reaches an angle of 90°.

At this time, the notches 17.17 of the insertion flap 16 are engaged with the notches 18.18 provided in the portion P, and the insertion flap 16 is inserted into the inside of the box (see Figures 3 and 4). .

Next, a description will be given based on a second embodiment of this invention shown in FIGS. 5 to 8.

According to this example, an exterior top surface forming area 1' equal to the width W of the assembly box is formed at a position on one sheet member S' that is inclined toward the right side in FIG. 5.

First mountain fold lines 2' are provided on both left and right sides of the exterior top surface forming area 1'.
, 2' are continuously formed with exterior side surface forming areas 3', 3' equal to the depth D of the assembly box.

A second mountain fold line 4 is provided at the outer edge of the one exterior side surface forming area 3'.
An exterior bottom forming area 5' having a width W equal to the width W of the assembly box is continuously formed through the space 5'.

A third mountain fold line 6' is provided at the outer edge of the exterior bottom forming area 5'.
A middle folding area 7' having a width equal to X and narrower than the dimension of the exterior side surface forming area 3' is provided through the outer side surface forming area 3'.

The dimension X of the middle folding region 7' is preferably (D/2), which is the dimension 1]m of the exterior side surface forming region 3'.

A middle partition forming area 9 equal to the width W of the exterior top surface forming area 1' is provided at the outer edge of the middle folding area 7' via a fourth mountain fold line 8.
' are formed continuously.

This partition forming area 9' is provided with holes 10' for supporting the solid articles G in fixed positions at predetermined intervals.

A valley fold line 11' is provided at the outer edge of the inner partition forming area 9' to determine the dimensions of the exterior side forming area 3' and the middle folding area 7'.
Glue margin pieces 12' are continuously formed which are equal to the difference width D-X from the dimension X.

On the other hand, an insertion flap 23.23 is provided at the outer edge of the other exterior side surface forming area 3' via a mountain fold line 22.22.

The insertion flap 23.23 is connected to the third mountain fold line 6'.
It is designed to be inserted into a cut 24.24 provided along the .

As in the first embodiment, a window 21' large enough to allow the stored solid articles G to be viewed from the outside may be provided in the exterior top surface forming area 1'.

In addition, although the embodiment shown in the figure is designed as an assembly box for storing six solid articles G, the design can be changed depending on the number of solid articles to be stored. An integer array in the horizontal direction can be formed arbitrarily depending on the design.

The sheet member S', which has been cut and formed as shown in FIG. 5, is assembled into a packaging box according to the procedure shown below.

First, this assembled box is folded along the third mountain fold line 6', and the glue allowance piece 12' is folded into the left exterior side surface forming area 3'.
It is attached and connected to the inner surface 3'A of the portion that is tapered toward the exterior top surface forming area 1' (see FIG. 6).

In the embodiment shown in FIG. 6, the assembly box is generally stocked in a sheet-like form at the user's side.

The assembly box has first to fourth mountain fold lines 2', 4', 6', 8' and valley fold lines 11 on the user side.
It is folded along ′.

During this bending operation, the solid article G is stored in relation to L10' provided in the partition forming area 9'.

Next, the exterior side surface forming area 3' and the insertion flap 23 are folded along the right first mountain fold line 2' and the mountain fold line 22, respectively, and the insertion flap 23 is folded along the third mountain fold line 6'. (See FIGS. 7 and 8).

This devised assembly box for storing solid articles has the above-mentioned configuration.
Since the exterior surface forming area and the partition forming area for supporting and storing solid articles in a fixed position can be formed by die-cutting a single sheet member, it is suitable for mass production and In addition to being easy to assemble, it is extremely advantageous in terms of cost.

Furthermore, since the stock form of the assembly box can be generally sheet-like (see Figures 2 and 6), the area occupied when stocking can be reduced, and in that respect, It can be said that it is extremely practical and effective.

[Brief explanation of drawings]

The drawings show a specific embodiment of the assembly box for storing solid articles according to the invention, and FIG. 1 is a plan view of a die-cut sheet member S in the first embodiment, and FIG. The figure is a plan view after the pasting process, FIG. 3 is a plan view of the assembled box as seen from the bottom side, FIG. 4 is an enlarged sectional view taken along the line IV-IV in FIG. The figures to FIG. 8 show the second embodiment, and each figure shows the first embodiment.
FIG. 5 is a plan view and an enlarged sectional view corresponding to FIGS. 4 to 4. FIG. s, s'... Sheet-like member, 1, 1'...
... Exterior top surface forming area, 2, 2'... First mountain fold line, 3, 3'... Exterior side surface forming area, 4, 4'.
...Second mountain fold line, 5, 5'...Exterior bottom forming area, 6,6'...Third mountain fold line, 7,7
'...Medium fold line, 8, 8'...Fourth mountain fold line, 9,9'...Medium partition forming area, 10.
10'... Solid article support hole, 11°11'...
... Valley fold line, 12.12' ... Glue allowance piece, 1
4...Exterior end face formation area, 16.23...
・Insert flap, W... Assembly box width, D...
...Assembly box depth, G...Stored solid items.

Claims (1)

[Scope of utility model registration request] Each exterior surface forming area and the partition forming area for supporting and storing solid articles in a fixed position are formed by die-cutting a single sheet member, and the left and right sides of the exterior top surface forming area are formed by die-cutting a single sheet member. has an exterior side surface forming area of a predetermined width through a first mountain fold line, and an exterior bottom surface forming area is continuously formed in at least one of the exterior side surface forming areas via a second mountain fold line, and A middle folding region narrower than the exterior side surface forming region is provided at the outer edge of the bottom surface forming region via a third mountain fold line, and a middle folding region narrower in width than the exterior side surface forming region is provided at the outer edge of the center folding region via a fourth mountain fold line. A partition forming area having holes for supporting a solid article in a fixed position at predetermined intervals and having a width equal to the width of the partition forming area is provided, and the outer side surface forming area is connected to the outer edge of the partition forming area via a valley fold line. and the middle folding area, and is characterized in that a glue margin piece is provided that is attached and connected to the inner side surface of the exterior side surface forming area that is tapered toward the exterior top surface forming area. Assembly box for storing solid items.