JP2022106211A - Sheet body - Google Patents

Abstract

To provide a sheet body that can be deformed in shape, and can decorate a message.SOLUTION: A sheet body 100 is composed of two sheets, and has a plurality of surfaces S1 to S15 including surfaces S4 and S10 having message columns M1 and M2. The sheet body 100 has surfaces S5 and S6 of an insertion part, and surfaces S11 and S12 of the inserted part having openings E111 and E121; and is provided with folding lines L1 to L14 and cuts C1 to C8 between the plurality of surfaces S1 to S15. The sheet body 100 is configured to be able to selectively realize a plurality of three-dimensional form modes including a first mode, a second mode, and a third mode by inserting the insertion part into the inserted part and folding the folding line. The first, second and third modes correspond to a box body 10 having a substantially rectangular parallelepiped shape, an object 20 having a hollow square cylindrical shape, and an object 30 having a hollow triangular cylindrical shape, respectively.SELECTED DRAWING: Figure 1

Description

The present invention relates to a sheet body having a plurality of surfaces, having a fold line or a notch between each of the plurality of surfaces, and being able to realize a three-dimensional shape by folding in the fold line or the like.

Conventionally, an assembly box for storing and transporting predetermined articles is known (see, for example, Patent Document 1). This prior art describes a configuration in which a message field is formed in a portion hidden inside the assembly box when the assembly box is assembled and articles are stored and sealed. As a result, it is not necessary to separately prepare a memo in which a message or a message is written, and the message can be delivered to the other party together with the goods without being seen by others.

Japanese Unexamined Patent Publication No. 11-263334

By the way, in this kind of assembly box, there is a request to display a message or the like described in a message column after being delivered to the other party and taking out the goods. That is, it is preferable to transform the shape of the article into a form suitable for decorating a message or the like after taking out the article from the assembly box. However, in the above-mentioned prior art, no consideration is given to deforming the shape and decorating the message after the articles are taken out.

An object of the present invention is to provide a sheet body that can be deformed in shape and can be decorated with a message.

In order to achieve the above object, the present invention is a sheet body having a plurality of surfaces including one side and the other side, each of which is formed by stacking two sheets in a substantially flat plate shape and each having a message column capable of expressing a message. That is, the plurality of surfaces are inserted with an insertion portion in which at least the edges of the two sheets are bonded together, and an edge portion opened so as to form a storage space for the insertion portion between the two sheets. By providing a fold line or a notch between each of the plurality of surfaces, inserting the predetermined insertion portion into the predetermined insertion portion, and folding at the predetermined fold line. It has a first front surface, a first rear surface, a first bottom surface, a first top surface, a first left surface, and a first right surface, and the one surface and the other surface are the first front surface and the first surface, respectively. The first aspect, which is a substantially cubic or substantially rectangular cuboid shape, which is the first rear surface, and the left and right openings that communicate with each other when placed horizontally are formed, and the second front surface, the second rear surface, and the second surface are formed. A second aspect of a hollow square tube having a bottom surface and a second top surface, wherein the one surface and the other surface are the second front surface and the second rear surface, respectively, and each other when placed horizontally. It has left and right openings that communicate with each other, and has a third bottom surface and two top surfaces that are oblique to the third bottom surface, and one of the one surface and the other surface is the second surface. It is characterized in that a plurality of three-dimensional shapes including a third aspect of a hollow triangular tubular shape, which is one of the top surfaces and the other is the bottom surface, can be selectively realized.

The sheet body of the present invention is provided with a plurality of surfaces including one surface and the other surface each having a message column. A plurality of three-dimensional shape modes can be selectively realized by folding in the fold line provided between each of the plurality of surfaces and inserting the insertion portion of the plurality of surfaces into the inserted portion. The feasible three-dimensional shape modes are the first aspect, the second aspect, and the third aspect. From any one of these aspects, it can be transformed into another embodiment, and the deformed shape embodiment can be made suitable for another application.

The first aspect is a substantially cubic or a substantially rectangular cuboid shape. Therefore, it can be used to send a message or the like while storing and transporting predetermined articles. In the first aspect, one surface and the other surface are the first front surface and the first rear surface, respectively. Therefore, a message or the like can be written directly on the first front surface and the first rear surface, and it is not necessary to separately prepare a memo on which the message or the like is written.

In the second aspect, the shape is a hollow square cylinder, and one surface and the other surface are the second front surface and the second rear surface, respectively. Therefore, the two surfaces, the second front surface and the second rear surface, can be used to display many messages and the like. In the third aspect, a hollow triangular cylinder is formed, one of one surface and the other surface is a top surface, and the other is a third bottom surface. Therefore, it is possible to display one message or the like on the top surface and hide the other message or the like on the bottom surface. Moreover, since it has a hollow triangular cylinder shape, it can be placed stably.

From the above, for example, by transforming from the first aspect to the second aspect or the third aspect, it is possible to transform a box with a message field capable of accommodating articles into an object for decorating a message. Therefore, after taking out the articles from the box corresponding to the first aspect, the box can be transformed into an object corresponding to the second aspect or the third aspect to decorate the message. Further, by transforming one of the second aspect and the third aspect from one to the other, the decoration of the message can be changed.

According to the present invention, the shape and mode can be modified, and a message can be displayed.

It is a development view of the sheet body by one Embodiment of this invention. It is a perspective view which shows the whole structure of the box body of the 1st aspect completed by assembling a sheet body. It is a perspective view which shows the appearance in the state which the box body of 1st Embodiment is assembled. It is a perspective view which shows the whole structure of the object of the 2nd aspect completed by assembling a sheet body. It is a perspective view which shows the appearance of the state which the object of 2nd aspect is assembled. It is a perspective view which shows the whole structure of the object of the 3rd aspect completed by assembling a sheet body. It is a perspective view which shows the appearance of the state which the object of 3rd mode is assembled. It is a perspective view which shows the whole structure of the object of 4th aspect completed by assembling a sheet body. It is a perspective view which shows the appearance of the state in which the object of 4th aspect is assembled. It is a perspective view which shows the whole structure of the object of the 5th aspect completed by assembling a sheet body. It is a top view which shows the appearance of the state which the object of 5th aspect is assembled.

Hereinafter, an embodiment of the present invention will be described with reference to the drawings.

<Overall outline configuration of the seat body>
The sheet body 100 according to this embodiment is shown in FIG. The sheet body 100 is formed by stacking two sheets in a symmetrical substantially flat plate shape, and the front surface shown in FIG. 1 (a) and the back surface shown in FIG. 1 (b) are defined. The edges of the sheet body 100 are bonded to each other except for the portions where the openings E111 and E121 are formed. The sheet body 100 has 15 surfaces S1 to S15. The surfaces S1 to S15 are connected in series, and fold lines L1 to L14 and cuts C1 to C8 are provided between the surfaces S1 to S15. As shown in FIG. 1A, on the surface of the sheet body 100, the surface S4 (corresponding to one surface) and the surface S10 (corresponding to the other surface) include message columns M1 and M2, respectively. Messages can be written in the message fields M1 and M2. On the other hand, as shown in FIG. 1 (b), on the back surface of the sheet body 100, none of the surfaces is provided with a message column. The vertical direction, the front-back direction, and the left-right direction correspond to the arrow directions appropriately shown in each drawing such as FIG. Hereinafter, the rear side is referred to as "back side" and the front side is referred to as "front side" as appropriate.

As shown in FIG. 1, a rectangular surface S1 is provided at the center of the upper end portion of the sheet body 100 in the left-right direction so that the long side is along the left-right direction. At the left end and the right end of the surface S1, rectangular surfaces S2 and S3 are connected to each other so that their short sides overlap each other. Folded lines L1 and L2 are provided between the surfaces S1 and the surfaces S2 and S3, respectively. At the lower end of the surface S1, rectangular surfaces S4 are continuously provided so that their long sides overlap each other. A folding line L3 is provided between the surface S1 and the surface S4.

Trapezoidal surfaces S5 and S6 are connected to the left and right ends of the surface S4, respectively. The right end side of the surface S5 overlaps with the left end short side of the surface S4 and is parallel to the left end side E5 of the surface S5. The left end side E5 is shorter than the right end side of the surface S5. The left end side of the surface S6 overlaps with the right end short side of the surface S4 and is parallel to the right end side E6 of the surface S6. The right end side E6 is shorter than the left end side of the surface S6. Folded lines L4 and L5 are provided between the surfaces S4 and the surfaces S5 and S6, respectively.

At the lower end of the surface S4, rectangular surfaces S7 are continuously provided so that their long sides overlap each other. A folding line L6 is provided between the surface S4 and the surface S7. At the left end and the right end of the surface S7, rectangular surfaces S8 and S9 are connected to each other so that their short sides overlap each other. Folded lines L7 and L8 are provided between the surfaces S7 and the surfaces S8 and S9, respectively. At the lower end of the surface S7, rectangular surfaces S10 are continuously provided so that their long sides overlap each other. A folding line L9 is provided between the surface S7 and the surface S10.

Rectangular surfaces S11 and S12 are connected to the left end and the right end of the surface S10, respectively. The right end long side of the surface S11 overlaps with the left end short side of the surface S10, and is parallel to the left end long side E11 of the surface S11 and has the same length. The left end long side of the surface S12 overlaps with the right end short side of the surface S10, and is parallel to the right end long side E12 of the surface S12 and has the same length. Folded lines L10 and L11 are provided between the surfaces S10 and the surfaces S11 and S12, respectively.

At the center of the lower end of the sheet body 100 in the left-right direction, rectangular faces S13 are continuously provided at the lower ends of the faces S10 so that their long sides overlap each other. A folding line L12 is provided between the surface S10 and the surface S13. At the left end and the right end of the surface S13, rectangular surfaces S14 and S15 are continuously provided so that their short sides overlap each other. Folded lines L13 and L14 are provided between the surfaces S13 and the surfaces S14 and S15, respectively.

A notch C1 is provided between the surface S2 and the surface S5. The notch C1 is formed along the long side of the lower end of the surface S2 and the hypotenuse of the upper end of the surface S5. A notch C2 is provided between the surface S3 and the surface S6. The notch C2 is formed along the long side of the lower end of the surface S3 and the hypotenuse of the upper end of the surface S6. A notch C3 is provided between the surface S5 and the surface S8. The notch C3 is formed along the lower end hypotenuse of the surface S5 and the upper end long side of the surface S8. A notch C4 is provided between the surface S6 and the surface S9. The notch C4 is formed along the lower end hypotenuse of the surface S6 and the upper end long side of the surface S9. A notch C5 is provided between the surface S8 and the surface S11. The notch C5 is formed along the long side of the lower end of the surface S8 and the short side of the upper end of the surface S11. A notch C6 is provided between the surface S9 and the surface S12. The notch C6 is formed along the long side of the lower end of the surface S9 and the short side of the upper end of the surface S12. A notch C7 is provided between the surface S11 and the surface S14. The notch C7 is formed along the short end side of the lower end of the surface S11 and the long side of the upper end of the surface S14. A notch C8 is provided between the surface S12 and the surface S15. The notch C8 is formed along the short side of the lower end of the surface S12 and the long side of the upper end of the surface S15.

The long sides of the surfaces S1, S4, S7, S10, and S13 have the same length. The surfaces S4 and S10 have the same shape as each other. The surfaces S7 and S13 have the same shape as each other. Each short side of the surfaces S7 and S13 is shorter than each short side of the surfaces S4 and S10, respectively. The short side of the surface S1 is shorter than the short side of each of the surfaces S7 and S13. The long sides of the surfaces S2 and S3, the heights of the surfaces S5 and S6 in the left-right direction, the long sides of the surfaces S8 and S9, the short sides of the surfaces S11 and S12, and the long sides of the surfaces S14 and S15 are the same. It has a length and is shorter than the long sides of the surfaces S1, S4, S7, S10, and S13. The left end long side E11 of the surface S11 is longer than the left end side E5 of the surface S5. The right end long side E12 of the surface S12 is longer than the right end side E6 of the surface S6.

The sheet body 100 is bonded at a predetermined edge portion. The bonding portions are the upper end long side of the surface S1, the upper and lower end long sides / left end short sides of the surface S2, the upper and lower end sides of the surface S3, the right end short sides, and the upper and lower end sides of the surface S5. Upper and lower ends of surface S6, right end E6, upper and lower ends of surface S8, long sides and left end short sides, upper and lower ends of surface S9, long sides and right end short sides, upper and lower ends of surface S11, and surface S12. The upper and lower end short sides, the lower end long side of the surface S13, the upper and lower end long sides and the left end short sides of the surface S14, and the upper and lower end short sides of the surface S15.

On the other hand, the left end long side E11 of the surface S11 and the right end long side E12 of the surface S12 are not bonded. Therefore, openings E111 and E121 are formed along the left end long side E11 and the right end long side E12, respectively. In the surfaces S11 and S12 (corresponding to the insertion portion), a space for accommodating the surfaces S5 and S6 (corresponding to the insertion portion) is formed between the two sheets through the openings E111 and E121, respectively. Here, the left end side E5 of the surface S5 and the right end side E6 of the surface S6 are the edges of the surfaces S5 and S6, and the openings E111 and E121 are formed when the surfaces S5 and S6 are inserted into the surfaces S11 and S12, respectively. Facing. As for the dimensions of the openings E111 and E121, the lengths of the openings E111 and E121 are the same as the lengths of the left end long side E11 and the right end long side E12, respectively, when the sheet body 100 is placed flat. The lengths of the left end long side E11 and the right end long side E12 are longer than the left end side E5 and the right end side E6, respectively. Therefore, the lengths of the openings E111 and E121 are longer than the left end side E5 and the right end side E6, respectively.

The sheet body 100 configured as described above is formed by inserting the surface S5 through the opening E111 into the surface S11, inserting the surface S6 through the opening E121 into the surface S12, and folding in the fold lines L1 to L14. It is possible to selectively realize a plurality of three-dimensional shape modes. The plurality of three-dimensional shape embodiments are the first to fifth embodiments. The assembly of each aspect can be performed by hand without using tools such as scissors and glue.

<Assembly method of the first aspect>
Next, an example of an assembly method for making the shape aspect of the sheet body 100 having the above configuration the first aspect will be described with reference to FIGS. 1, 2, and 3. By assembly, the sheet body 100 finally becomes the box body 10 of the first aspect shown in FIG. As shown in FIG. 2, the box body 10 has a substantially rectangular cuboid shape, and has a first front surface 11, a first rear surface 12, a first bottom surface 13, a first top surface 14, a first left surface 15, and a first surface. It has 1 right side surface 16.

Assembling of the first aspect is started from a state in which the surface of the sheet body 100 is laid flat so as to face the front side as shown in FIG. 1 (a). First, the fold lines L7 and L8 are valley-folded to raise the surfaces S8 and S9, and the surfaces S8 and S9 are erected at substantially right angles to the surfaces S7. Next, by folding the fold line L9 in a valley, the surface S10 is raised and erected at a substantially right angle to the surface S7. Next, the fold lines L10 and L11 are folded in valleys to raise the surfaces S11 and S12, which are erected at substantially right angles to the surface S10. As a result, the surfaces S11 and S12 overlap with the surfaces S8 and S9, respectively, and are arranged so as to form a substantially right angle to the surface S7.

Next, the fold lines L13 and L14 are valley-folded to raise the surfaces S14 and S15, which are overlapped with the surfaces S13, respectively. Next, by folding the fold line L12 in a valley, the overlapped surfaces S14 and S15 also raise the surface S13 integrally, and the surface S10 is erected substantially at right angles to the surface S10. As a result, the insertion site X in which the surfaces S13, S14, and S15 are integrated is formed (see FIG. 3). The insertion portion X has an insertion tip formed by a portion of the lower end side of the surfaces S13, S14, S15 in FIG. 1 in a state where the surfaces S13, S14, and S15 are folded.

Next, the fold lines L4 and L5 are folded in valleys to raise the surfaces S5 and S6, and the surfaces S5 and S6 are erected at substantially right angles to the surfaces S4, respectively. As a result, the surfaces S5 and S6 are arranged adjacent to the surfaces S11 and S12, respectively.

Next, the fold lines L1 and L2 are valley-folded to raise the surfaces S2 and S3, and the surfaces S2 and S3 are overlapped with each other. Next, by folding the fold line L3 in a valley, the overlapped surfaces S2 and S3 also integrally raise the surface S1 and are erected at a substantially right angle to the surface S4. As a result, the inserted portion Y in which the surfaces S1, S2, and S3 are integrated is formed (see FIG. 3). The insertion site Y has an opening at the upper end side of the surfaces S1, S2, and S3 in FIG. 1 in a state where the surfaces S1, S2, and S3 are folded. When the insertion site X (or the insertion site Z described later) is inserted from this opening, the surfaces S1, S2, and S3 can hold the insertion site X (or the insertion site Z described later) so as to surround the insertion site X (or the insertion site Z described later). There is.

Next, by folding the fold line L6 in a valley, the surface S4 is raised until the surface S4 is substantially perpendicular to the surface S7 in a state where the surfaces S1, S5, and S6 are erected with respect to the surface S4. At this time, as shown in FIG. 3, the surface S5 is inserted into the storage space through the opening E111 of the surface S11 with the left end side E5 as the tip. At the same time, the surface S6 is inserted into the storage space through the opening E121 of the surface S12 with the right end side E6 as the tip. When the insertion of the surfaces S5 and S6 proceeds to some extent, the inserted portion Y formed by the surfaces S1, S2, and S3 comes into contact with the insertion portion X formed by the surfaces S13, S14, and S15. Then, at the same time that the surface S4 is arranged substantially at right angles to the surface S7, the insertion of the surfaces S5 and S6 into the surfaces S11 and S12 and the insertion of the insertion site X into the insertion site Y are completed. By the above procedure, the box body 10 having a substantially rectangular cuboid shape is completed.

The first front surface 11, the first rear surface 12, the first bottom surface 13, the first top surface 14, the first left surface 15, and the first right surface 16 of the box body 10 shown in FIG. 2 are surface S4, surface S10, and surface S7, respectively. Corresponds to surfaces S1 and S13, surfaces S12, and surfaces S11. The surfaces S4 and S10 are provided with message columns M1 and M2. Therefore, the message fields M1 and M2 are located inside the first front surface 11 and the first rear surface 12, respectively.

<Assembly method of the second aspect>
Next, an example of an assembly method for setting the shape aspect of the sheet body 100 having the above configuration as the second aspect will be described with reference to FIGS. 1, 4, and 5. By assembling, the sheet body 100 finally becomes the object 20 of the second aspect shown in FIG. As shown in FIG. 4, the object 20 has a hollow square cylinder shape, forms a left opening 20a and a right opening 20b that communicate with each other when placed horizontally, and has a second front surface 21 and a second rear surface. It has 22, a second bottom surface 23, and a second top surface 24.

Assembling of the second aspect is started from a state in which the back surface of the sheet body 100 is laid flat so as to face the front side as shown in FIG. 1 (b). First, by folding the folding lines L1, L2, L4, L5, L7, L8, L10, L11, L13, and L14, respectively, the surfaces S2 and S3 are raised and overlapped with the surface S1, and the surfaces S5 and S6 are raised. It is overlapped with S4, the surfaces S8 and S9 are overlapped with the raised surface S7, the surfaces S11 and S12 are overlapped with the raised surface S10, and the surfaces S14 and S15 are overlapped with the raised surface S13.

Next, by folding the fold line L12 in a valley, the overlapped surfaces S14 and S15 also raise the surface S13 integrally, and the surface S10 is erected substantially at right angles to the surface S10. As a result, the insertion site X in which the surfaces S13, S14, and S15 are integrated is formed (see FIG. 5). Next, by folding the fold line L3 in a valley, the overlapped surfaces S2 and S3 also integrally raise the surface S1 and are erected at a substantially right angle to the surface S4. As a result, the inserted portion Y in which the surfaces S1, S2, and S3 are integrated is formed (see FIG. 5).

Next, by folding the fold line L9 in a valley, the surface S10 is raised in a state where the surface S13 (insertion portion X) stands upright with respect to the surface S10 and the surfaces S11 and S12 are overlapped with the surface S10. , Stand at a substantially right angle to the surface S7. Next, by folding the fold line L6 in a valley, the surface S1 is erected with respect to the surface S4, and the surfaces S5 and S6 are overlapped with the surface S4. Raise it until it is approximately perpendicular to the surface S7. At this time, as shown in FIG. 5, the inserted portion Y formed by the surfaces S1, S2, and S3 faces the insertion portion X formed by the surfaces S13, S14, and S15. Then, the surface S4 is arranged substantially at a right angle to the surface S7, and at the same time, the insertion of the insertion site X into the insertion site Y is completed. By the above procedure, the hollow square cylinder-shaped object 20 is completed.

The second front surface 21, the second rear surface 22, the second bottom surface 23, and the second top surface 24 of the object 20 shown in FIG. 4 correspond to the surfaces S4, the surface S10, the surface S7, the surfaces S1 and S13, respectively. The surfaces S4 and S10 are provided with message columns M1 and M2. Therefore, the message fields M1 and M2 are located outside the second front surface 21 and the second rear surface 22, respectively.

<Assembly method of the third aspect>
Next, an example of an assembly method for making the shape aspect of the sheet body 100 having the above configuration a third aspect will be described with reference to FIGS. 1, 6, and 7. By assembling, the sheet body 100 finally becomes the object 30 of the third aspect shown in FIG. As shown in FIG. 6, the object 30 has a hollow triangular tubular shape, forms a left opening 30a and a right opening 30b that communicate with each other when placed horizontally, and has a third bottom surface 31 and a first heaven. It has a surface 32 and a second top surface 33. The first top surface 32 and the second top surface 33 are oblique to the third bottom surface 31, respectively.

Assembling of the third aspect is started from a state in which the back surface of the sheet body 100 is laid flat so as to face the front side as shown in FIG. 1 (b). First, by folding the folding lines L1, L2, L4, L5, L7, L8, L10, L11, L13, and L14, respectively, the surfaces S2 and S3 are raised and overlapped with the surface S1, and the surfaces S5 and S6 are raised. It is overlapped with S4, the surfaces S8 and S9 are overlapped with the raised surface S7, the surfaces S11 and S12 are overlapped with the raised surface S10, and the surfaces S14 and S15 are overlapped with the raised surface S13.

Next, by folding the fold line L12 in a valley, the overlapped surfaces S14 and S15 also raise the surface S13 integrally, and further overlap the surfaces S11 and S12 overlapped with the surface S10. As a result, the insertion site Z in which the surfaces S10, S11, S12, S13, S14, and S15 are integrated is formed (see FIG. 7). The insertion site Z forms the insertion tip at the portion of the folding line L12 shown in FIG. 1 in a state where the surfaces S10, S11, S12, S13, S14, and S15 are each folded. Next, by folding the fold line L3 in a valley, the overlapped surfaces S2 and S3 also raise the surface S1 integrally, and are erected so as to form an acute angle with respect to the surface S4. As a result, the inserted portion Y in which the surfaces S1, S2, and S3 are integrated is formed (see FIG. 7).

Next, by folding the fold line L9 in a valley, the surface S10 (insertion portion Z) is made an acute angle with respect to the surface S7 in a state where the surfaces S11, S12, S13, S14, and S15 are overlapped with the surface S10. I will wake you up. At the same time, by folding the fold line L6 in a valley, the surface S1 (inserted portion Y) stands upright with respect to the surface S4, and the surfaces S5 and S6 are overlapped with the surface S4. Is raised so as to form an acute angle with respect to the surface S7. At this time, as shown in FIG. 7, the inserted portion Y formed by the surfaces S1, S2, and S3 heads toward the insertion portion Z formed by the surfaces S10, S11, S12, S13, S14, and S15. Then, the insertion of the insertion site Z into the insertion site Y is completed. By the above procedure, the object 30 having a hollow triangular cylinder shape is completed.

The third bottom surface 31, the first top surface 32, and the second top surface 33 of the object 30 shown in FIG. 6 correspond to the surface S1, the surface S10, the surface S4, and the surface S7, respectively. The surfaces S4 and S10 are provided with message columns M1 and M2. Therefore, the message columns M1 and M2 are located outside the first top surface 32 and the third bottom surface 31, respectively.

<Assembly method of the fourth aspect>
Next, an example of an assembly method for making the shape aspect of the sheet body 100 having the above configuration a fourth aspect will be described with reference to FIGS. 1, 8, and 9. By assembling, the sheet body 100 finally becomes the object 40 of the fourth aspect shown in FIG. As shown in FIG. 8, the object 40 has a bottomed square cylinder shape and forms an upward opening 40a when placed vertically, and also has a fourth front surface 41, a fourth rear surface 42, and a fourth. It has a bottom surface 43, a fourth left surface 44, and a fourth right surface 45.

Assembling of the fourth aspect is started from a state in which the back surface of the sheet body 100 is laid flat so as to face the front side as shown in FIG. 1 (b). First, by folding the folding lines L4, L7, and L10 in valleys, the surface S5 is raised and overlapped with the surface S4, the surface S8 is raised and overlapped with the surface S7, and the surface S11 is raised and overlapped with the surface S10. Next, by folding the fold line L8 in a valley, the surface S9 is raised and erected at a substantially right angle to the surface S7. Next, by folding the fold line L9 in a valley, the surface S10 is raised in a state where the surfaces S11 are overlapped with each other, and the surface S10 is erected at a substantially right angle to the surface S7. Next, by folding the fold line L11 in a valley, the surface S12 is raised and erected at a substantially right angle to the surface S10. As a result, the surface S12 is arranged so as to be substantially at right angles to the surface S7 so as to overlap the surface S9.

Next, the fold lines L13 and L14 are valley-folded to raise the surfaces S14 and S15, which are overlapped with the surfaces S13, respectively. Next, by folding the fold line L12 in a valley, the overlapped surfaces S14 and S15 also raise the surface S13 integrally, and the surface S10 is erected substantially at right angles to the surface S10. As a result, the insertion site X in which the surfaces S13, S14, and S15 are integrated is formed (see FIG. 9).

Next, by folding the fold line L5 in a valley, the surface S6 is raised and erected at a substantially right angle to the surface S4. As a result, the surface S6 is arranged so as to be adjacent to the surface S12. Next, the fold lines L1 and L2 are valley-folded to raise the surfaces S2 and S3, and the surfaces S2 and S3 are overlapped with each other. Next, by folding the fold line L3 in a valley, the overlapped surfaces S2 and S3 also integrally raise the surface S1 and are erected at a substantially right angle to the surface S4. As a result, the inserted portion Y in which the surfaces S1, S2, and S3 are integrated is formed (see FIG. 9).

Next, by folding the fold line L6 in a valley, the surface S1 (inserted portion Y) and S6 are erected with respect to the surface S4, respectively, and the surface S4 is overlapped with the surface S4. Raise it until it is approximately perpendicular to the surface S7. At this time, as shown in FIG. 9, the surface S6 is inserted into the storage space through the opening E121 of the surface S12 with the left end side E6 as the tip. When the insertion of the surface S6 proceeds to some extent, the inserted portion Y formed by the surfaces S1, S2, and S3 comes into contact with the insertion portion X formed by the surfaces S13, S14, and S15. Then, at the same time that the surface S4 is arranged substantially at right angles to the surface S7, the insertion of the surface S6 into the surface S12 and the insertion of the insertion site X into the insertion site Y are completed. By the above procedure, the object 40 having a bottomed square cylinder shape is completed.

The fourth front surface 41, the fourth rear surface 42, the fourth bottom surface 43, the fourth left surface 44, and the fourth right surface 45 of the object 40 shown in FIG. 8 are surface S4, surface S10, surface S11, surface S1 and S13, and surface S7, respectively. Corresponds to. The surfaces S4 and S10 are provided with message columns M1 and M2. Therefore, the message fields M1 and M2 are located outside the fourth front surface 41 and the fourth rear surface 42, respectively.

<Assembly method of the fifth aspect>
Next, an example of an assembly method for making the shape aspect of the sheet body 100 having the above configuration a fifth aspect will be described with reference to FIGS. 1, 10, and 11. By assembling, the sheet body 100 finally becomes the object 50 of the fifth aspect shown in FIG. As shown in FIG. 10A, the object 50 has a substantially flat shape in which the upper surface 51 is defined when the object 50 is placed flat. As shown in FIG. 10B, a plurality of surfaces other than the upper surface 51 are folded while being overlapped below the upper surface 51.

Assembling of the fifth aspect is started from a state in which the back surface of the sheet body 100 is laid flat so as to face the front side as shown in FIG. 1 (b). First, by folding the folding lines L1, L2, L4, L5, L7, L8, L10, L11, L13, and L14, respectively, the surfaces S2 and S3 are raised and overlapped with the surface S1, and the surfaces S5 and S6 are raised. It is overlapped with S4, the surfaces S8 and S9 are overlapped with the raised surface S7, the surfaces S11 and S12 are overlapped with the raised surface S10, and the surfaces S14 and S15 are overlapped with the raised surface S13.

Next, by folding the fold line L12 in a valley, the overlapped surfaces S14 and S15 also raise the surface S13 integrally, and further overlap the surfaces S11 and S12 overlapped with the surface S10. As a result, the insertion site Z in which the surfaces S10, S11, S12, S13, S14, and S15 are integrated is formed (see FIG. 11). Next, by folding the fold line L3 in a valley, the overlapped surfaces S2 and S3 also raise the surface S1 integrally, and are erected so as to form an acute angle with respect to the surface S4. As a result, the inserted portion Y in which the surfaces S1, S2, and S3 are integrated is formed (see FIG. 11).

In the assembly of the fifth aspect, the number of fold lines is increased by one as compared with the assembly of the other aspects. Following the formation of the insertion site Z, at the stage where the insertion site Y is formed, as shown in FIG. 11A, the surfaces S11, S12, S13 (the surfaces S14 and S15 are on the surface S13). The fold line L15 is defined at substantially the center in the vertical direction of the area where the overlapped areas) are overlapped. The fold line L15 is parallel to the fold lines L9 and L12. The area is partitioned by the folding line L15 so that the upper side is the surface S101 and the lower side is the surface S102. The surface S102 corresponds to the insertion site Z. Next, as shown in FIG. 11B, the surface S102 is raised by folding the folding line L15 in a mountain fold, and the surface S102 is overlapped with the surface S101 on the surface of the sheet body 100. Next, as shown in FIG. 11 (c), by folding the fold line L9 in a valley fold, the surface S102 is overlapped with the surface S10 on the front surface and the surface S101 is overlapped with the surface S7 on the back surface. It is further superimposed on the surfaces S8 and S9. As a result, the insertion tip (folding line L12) of the insertion portion Z of the surface S102 projects to the lower end of the sheet body 100. Next, as shown in FIG. 11 (d), by folding the folding line L6 in a valley, the surface S7 is at an acute angle with respect to the surface S4 in a state where the surfaces S8, S9, S101, and S102 are overlapped with the surface S7. I will wake you up. At this time, the insertion site Z of the surface S102 is in contact with the insertion site Y formed by the surfaces S1, S2, and S3. Then, the insertion of the insertion site Z into the insertion site Y is completed. By the above procedure, the object 50 having a substantially flat shape is completed.

The upper surface 51 of the object 50 shown in FIG. 10A corresponds to the surface S4. As shown in FIG. 11, a plurality of surfaces are folded and stored below the upper surface 51 of the object 50 shown in FIG. 10B, and only the surfaces S1 and S7 are exposed to the outside. The surfaces S4 and S10 are provided with message columns M1 and M2. Therefore, the message field M1 is located outside the upper surface 51 as shown in FIG. 10A. The message field M2 on the surface S10 is not exposed to the outside.

<Effect of embodiment>
As described above, the sheet body 100 of the present embodiment is provided with a plurality of surfaces S1 to S15 including surfaces S4 and S10 having message columns M1 and M2, respectively. Folding in the folding lines L1 to L14 provided between the plurality of surfaces S1 to S15, and the surfaces S11 (opening E111) and S12 (opening E111) of the surfaces S5 (left end side E5) and S6 (right end side E6) of the plurality of surfaces. By inserting into the opening E121), a plurality of three-dimensional shape modes can be selectively realized. The feasible three-dimensional shape modes are the first aspect, the second aspect, the third aspect, the fourth aspect, and the fifth aspect. From any one of these aspects, it can be transformed into another embodiment, and the deformed shape embodiment can be made suitable for another application.

The first aspect is a box body 10 having a substantially rectangular cuboid shape. Therefore, it can be used to send a message or the like while storing and transporting predetermined articles. In the first aspect, the surfaces S4 and S10 including the message fields M1 and M2 are the first front surface 11 and the first rear surface 12, respectively. Therefore, a message or the like can be directly written on the first front surface 11 and the first rear surface 12, and it is not necessary to separately prepare a memo on which the message or the like is written.

The second aspect is an object 20 having a hollow square tube shape. The surfaces S4 and S10 including the message fields M1 and M2 are the second front surface 21 and the second rear surface 22, respectively. Therefore, the two surfaces, the second front surface 21 and the second rear surface 22, can be used to display many messages and the like. The third aspect is an object 30 having a hollow triangular tubular shape. The surface S4 including the message field M1 is the first top surface 32, and the surface S10 including the message field M2 is the third bottom surface 31. Therefore, it is possible to display one message or the like on the top surface and hide the other message or the like on the bottom surface. Moreover, since it has a hollow triangular cylinder shape, it can be placed stably.

Further, in the present embodiment, in particular, the fourth aspect can be selectively realized as the three-dimensional shape aspect. The fourth aspect is an object 40 having a bottomed square tube shape. The surfaces S4 and S10 including the message fields M1 and M2 are the fourth front surface 41 and the fourth rear surface 42, respectively. Therefore, the message can be displayed in the same manner as in the second aspect. In addition, articles can be stored inside the object 40 through the opening 40a above the vertical placement. For example, the object 40 can be used as a pen stand or the like for storing a writing tool. From the above, it is possible to add a function of accommodating articles to the object 40 that decorates the message.

Further, in the present embodiment, in particular, the fifth aspect can be selectively realized as the three-dimensional shape aspect. The fifth aspect is an object 50 having a substantially flat shape. The surface S4 including the message field M1 becomes the upper surface 51, and the other plurality of surfaces including the surface S10 including the message field M2 are folded and stored below the upper surface 51. Therefore, the object 50 can maintain a compact state while displaying a message or the like. Therefore, the object 50 can be easily carried.

From the above, for example, a box body 10 with a message column capable of accommodating articles by transforming from the first aspect to any one of the second aspect, the third aspect, the fourth aspect, and the fifth aspect. Can be transformed into any one of the objects 20, 30, 40, and 50 for decorating the message. Therefore, after taking out the articles from the box body 10 corresponding to the first aspect, the box body 10 can be transformed into an object corresponding to any of the second to fifth aspects to decorate the message. Further, the decoration of the message can be changed by transforming from any one of the second to fifth aspects to the other aspect. As described above, according to the sheet body 100 of the present embodiment, the shape and the like can be deformed, and the message can be displayed.

Further, in the present embodiment, in particular, the first to fourth aspects are realized by folding the folding lines L1 to L14 of the sheet body 100, and only the fifth aspect is realized by further adding the folding line L15. In the assembly of the fifth aspect, the folding line L15 can increase the number of times of folding as compared with the assembly of the other aspects. Therefore, the maintenance of a compact state, which is a feature of the fifth aspect, can be easily achieved.

Further, in the present embodiment, in particular, in each of the hollow square cylinder shape of the second aspect, the hollow triangular cylinder shape of the third aspect, the bottomed square cylinder shape of the fourth aspect, and the substantially flat shape of the fifth aspect, the message column M1 Alternatively, M2 is exposed to the outside. Therefore, the message or the like displayed on each object can be made conspicuous.

Further, in the present embodiment, in particular, in the substantially rectangular cuboid shape of the first aspect, the message columns M1 and M2 are located inside. That is, when the box body 10 is assembled, the messages and the like displayed in the message fields M1 and M2 are shielded by each surface constituting the box body 10. Therefore, the articles can be stored in the box body 10 and the message can be delivered to the other party together with the articles without being seen by others.

Further, in the present embodiment, in particular, at the time of assembly, the left end side E5 of the surface S5 and the right end side E6 of the surface S6 are inserted into the opening E111 of the surface S11 and the opening E121 of the surface S12, respectively. As for the dimensions of the openings E111 and E121, the lengths of the openings E111 and E121 are longer than the left end side E5 and the right end side E6, respectively, when the sheet body 100 is placed flat. Therefore, the above insertion can be easily performed and the assembly can be performed quickly.

<Modification example>
The present invention is not limited to the above embodiment, and various modifications can be made without departing from the spirit and technical idea. Hereinafter, such a modification will be described.

In the above embodiment, the first aspect has a substantially rectangular cuboid shape, but instead, the first aspect may be configured to have a substantially cubic shape. In this case, a plurality of surfaces of the sheet body 100 corresponding to each surface of the box body 10 are configured to be square.

In the above description, when there is a description such as "same", "equal", "different", etc. in the external dimensions and sizes, the description is not a strict meaning. That is, those "same", "equal", and "different" mean that "substantially the same", "substantially equal", and "substantially different" are allowed due to design and manufacturing tolerances and errors. ..

In addition to the above-mentioned above, the methods according to the above-described embodiment and each modification may be appropriately combined and used.

In addition, although not illustrated one by one, the present invention is carried out with various modifications within a range not deviating from the gist thereof.

10 Box 11 1st front surface 12 1st rear surface 13 1st rear surface 14 1st top surface 15 1st left surface 16 1st right surface 20 Object 20a Left opening 20b Right opening 21 2nd front surface 22 2nd rear surface 23 2nd bottom surface 24 2nd top surface 30 object 30a left opening 30b right opening 31 3rd bottom surface 32 1st top surface 33 2nd top surface 40 object 40a opening 41 4th front surface 42 4th rear surface 43 4th bottom surface 44 4th left surface 45 4th right side 50 Object 51 Top surface 100 Sheet body C1 to C8 Notch E5 Left end side E6 Right end side E111 Opening E121 Opening L1 to L14 Folding line L15 Folding line M1 Message field M2 Message field S1 to S15 Multiple sides S4 side S5 side S10 surface S11 surface S12 surface

Claims (7)

It is a sheet body having a plurality of surfaces including one side and the other side, each of which is formed by stacking two sheets in a substantially flat plate shape and each having a message column capable of expressing a message.
The plurality of surfaces are
It has an insertion portion in which at least the edges of the two sheets are bonded together, and an inserted portion in which the edges are opened so as to form a storage space for the insertion portion between the two sheets.
A fold line or a notch is provided between each of the plurality of surfaces.
By inserting the predetermined insertion portion into the predetermined insertion portion and folding at a predetermined fold line,
It has a first front surface, a first rear surface, a first bottom surface, a first top surface, a first left surface, and a first right surface, and the one surface and the other surface are the first front surface and the first surface, respectively. 1 The first aspect of the rear surface, which has a substantially cubic or a substantially rectangular cuboid shape, and
It forms left and right openings that communicate with each other when placed horizontally, and has a second front surface, a second rear surface, a second bottom surface, and a second top surface, and has the one surface and the other surface. A second aspect of a hollow square cylinder shape, wherein is a second front surface and a second rear surface, respectively.
It has left and right openings that communicate with each other when placed horizontally, and has a third bottom surface and two top surfaces that intersect each other diagonally with respect to the third bottom surface. A third aspect of a hollow triangular cylinder shape, in which one of the directions is one of the two top surfaces and the other is the bottom surface.
A sheet body characterized in that it is configured so that a plurality of three-dimensional shapes including the above can be selectively realized. In the sheet body according to claim 1,
The plurality of three-dimensional shape embodiments are further described.
When placed vertically, it forms an upward opening and has a fourth front surface, a fourth rear surface, a fourth bottom surface, a fourth left surface, and a fourth right surface. Includes a fourth aspect of a bottomed square tube shape in which the directions are the fourth front surface and the fourth rear surface, respectively.
The first aspect, the second aspect, the third aspect, and the fourth aspect are selectively selected by inserting the predetermined insertion portion into the predetermined insertion portion and folding at the predetermined folding line. A seat body characterized by being constructed in a feasible manner. In the sheet body according to claim 2,
The plurality of three-dimensional shape embodiments are further described.
While the one surface or the other surface becomes an upper surface exposed on the upper side when placed flat, the surface other than the one surface or the other surface among the plurality of surfaces is folded while being overlapped below the upper surface. Including the fifth aspect of a substantially flat shape, including
The first aspect, the second aspect, the third aspect, the fourth aspect, and the fifth aspect by inserting the predetermined insertion portion into the predetermined insertion portion and folding at the predetermined folding line. A sheet body characterized in that the embodiment is selectively and feasibly configured. In the sheet body according to claim 3,
The number of fold lines in the fold to realize the fifth aspect is
The sheet body is characterized in that the number of folding lines is larger than the number of folding lines in the folding for realizing any one of the first aspect, the second aspect, the third aspect, and the fourth aspect. In the sheet body according to claim 3 or claim 4,
When any one of the second aspect, the third aspect, the fourth aspect, and the fifth aspect is realized, the message field provided on the one side or the other side is formed by the realized aspect. A sheet body characterized by being exposed to the outside in shape. In the sheet body according to any one of claims 1 to 5.
When the first aspect is realized, the sheet body is characterized in that the message field provided on the one side and the other side is located inside in the substantially cubic shape or the substantially rectangular cuboid shape formed by the first aspect. In the sheet body according to any one of claims 1 to 6.
The opening length of the inserted portion is
A sheet body that is an edge portion of the insertion portion and is longer than the length of the edge portion facing the opening of the insertion portion when the insertion portion is inserted into the insertion portion.

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