JP3195161U - 3D business card and 3D business card printing paper and 3D design card and 3D design card printing paper - Google Patents

Abstract

Provided is a three-dimensional business card for printing a three-dimensional business card and a three-dimensional business card that can be easily produced at low cost without using a piece of paper other than a business card paper, with a little work such as pasting and binding. To do. [MEANS FOR SOLVING PROBLEMS] Three normal-sized business cards are arranged in a short side direction, each of which has a crease, and includes a first business card unit 20, a second business card unit 21, and a third business card unit 22. Has been. There is a three-dimensional part 40A straddling the first business card part and the second business card part, and two cuts 30A and 31A are included in the short side direction. Folds 3A and 4A are provided to connect the ends of the first and second business card portions, respectively, and the folds are parallel to the long side direction. A three-dimensional business card can be composed only of cuts and folds. [Selection] Figure 2

Description

  The present invention relates to a highly appealing business card.

  Conventionally, there has been a business card that expresses a solid on a business card in order to increase appeal. For example, in Patent Document 1, both ends of a display piece are attached to a part of both sets inside a two-fold business card that can be folded. For example, Patent Document 2 shows a business card to which a sheet for a three-dimensional object is attached when it is opened on three folded business cards. In Non-Patent Document 1, a business card is shown in which a notched portion of a business card that can be folded is cut and the cut portion protrudes to represent a solid when opened. Furthermore, in Non-Patent Document 2, when a business card is opened by cutting in the middle of a set of three business cards and a part of the business card on the end side and binding a part of the cut and a part of the business card on the end side, The notch stands up and represents a solid.

JP 9-263077 A JP2011-31573

Utility model registration No. 3146276 Utility Model Registration No. 3133313

In the prior art documents, there are problems in expressing a solid on a business card.
First, an operation of attaching or binding to a piece of paper constituting the three-dimensional part has occurred in the three-dimensional part constituting the business card. This work increases the process for making business cards and increases the unit price of business cards. Patent Document 1, Patent Document 2, and Non-Patent Document 2 have such work.
Furthermore, Patent Document 1 and Patent Document 2 require not only business card paper but another piece of paper. In the present invention, when a solid is represented by a business card, it is not accompanied by a sticking work such as sticking or binding, and other than business card paper. Therefore, it is an object of the present invention to manufacture a part to be used in a three-dimensional form at a low cost by cutting the business card body.

When using a business card in a business meeting in a seated state, it is desirable in terms of appeal that the three-dimensional part is facing the front of the opponent when the business card is placed on the desk.
In patent document 1, it closes naturally, and in patent document 2, it is necessary to assemble bother.
The shape of Non-Patent Document 1 is a shape that gets in the way when placed on a desk, and is likely to close naturally. Non-patent document 2 will naturally close unless it holds the business card pieces at both ends.
It is an object of the present invention to maintain a three-dimensional shape even when placed on a desk.

Currently, there are cases where a business card is manufactured by a business card dealer, or by a user himself / herself using dedicated paper, a personal computer / printer and dedicated software. In recent years, business card production by the latter has increased. In all the prior documents, it is not possible to make a business card by simply printing out on a dedicated sheet.
An object of the present invention is to produce a business card that can be three-dimensionally expressed by a user using dedicated paper, a personal computer / printer, and dedicated software.

  The three-dimensional business card according to the present invention has three regular business cards (91 mm x 55 mm) in the short side direction (91 mm x 165 mm), and each boundary has a crease.・ It consists of a second business card part and a third business card part.

  There are two cuts in the short side direction across the first and second business card parts. A fold line connecting the ends of the first business card part and the second business card part is provided, and the fold line is parallel to the long side direction.

It prints on the surface of the first business card part, the second business card part, and the third business card part. Print to be three-dimensionalized between the two cuts.
The boundary between the first and second business card parts is a valley fold, and the boundary between the second and third business card parts is a mountain fold, and the part surrounded by the notch and fold line is pushed to the front, and each fold line is drawn. Make a valley fold and make a mountain fold at the boundary between the first and second business card parts.

  By placing the back of the first business card part on the desk top surface and forming a mountain with the second business card part and the third business card part, the three-dimensional part is held on the desk.

  Generally, A4 size paper is used as a business card paper printed by the user himself. Three sets of business cards of the present invention can be arranged on A4 size paper, and the yield is as high as about 70%, so paper can be used without waste. By cutting and folding the business card paper in advance, printing on the paper makes it possible to create a business card that can be easily three-dimensionally expressed by the user.

  The present invention can realize a business card that has a simple structure and can express a three-dimensional expression with appealing power. If a personal computer and a printer are available, a user can create a business card that can be three-dimensionally expressed by the user.

  The mechanism of the present invention is not limited to business cards, and can be applied as a three-dimensional design card having a function of introducing a card larger in size than a business card such as a shop card, a greeting card, or a wedding card on a desk.

Plan view of the first embodiment of the present invention The perspective view showing the assembly state of 1st embodiment of this invention Plan view of the second embodiment of the present invention The perspective view showing the assembly state of 2nd embodiment of this invention Plan view of the third embodiment of the present invention The perspective view showing the assembly state of 3rd embodiment of this invention The top view showing the state which arranged 1st embodiment of this invention on A4 paper The top view showing the state which arranged the 4th embodiment of the present invention on A4 paper

(First embodiment 1)
As shown in FIG. 1, the three-dimensional business card 10 </ b> A of the present invention includes three parts, a first business card part 20, a second business card part 21, and a third business card part 22. The size of each business card part is a size (91 mm × 55 mm) normally used as a business card. The first business card part 20 and the second business card part 21 are connected in the long side direction of the business card with the boundary fold 1A as a boundary. Further, the second business card part 21 and the third business card part 22 are connected in the long side direction of the business card with the boundary crease 2 as a boundary.
The three-dimensional part 40 </ b> A exists at a position straddling the first business card part 20 and the second business card part 21. On the periphery of the three-dimensional part 40A, there are a fold 3A and a fold 4A in the long side direction of the business card, and a cut 30A and a cut 31A in the short side direction of the business card. That is, the peripheral edge of the three-dimensional portion 40A is formed by a fold in the long side direction of the business card and is formed by cutting out the short side direction of the business card. The cut 30A and the cut 31A are equally divided by a boundary fold 1A (represented by a distance a in FIG. 1). The fold line 3A, the fold line 4A, and the boundary fold line 1A are parallel to each other.

(First embodiment 2)
FIG. 2 shows the three-dimensional state of the three-dimensional business card 10A. The boundary crease 1A excluding the inside of the three-dimensional part 40A is valley-folded and the boundary crease 2 is a mountain fold, and the second business card part 21 and the third business card part 22 form a mountain shape. In order to pull out the three-dimensional part 40A forward, the crease 3A and the crease 4A are valley folds, and the boundary fold 1A in the three-dimensional part 40A is a mountain fold. With this folding method, the third business card portion 22 becomes a back support, and the three-dimensional business card 10A is held in a state where a three-dimensional portion 40A is formed. The appeal of the 40A is enhanced by drawing a design that fits the solid.

(Second embodiment 1)
FIG. 3 shows a second embodiment (three-dimensional business card 10B) of the three-dimensional business card according to the present invention, which is different from the first embodiment (three-dimensional business card 10A). In the three-dimensional business card 10A, the first business card unit 20 and the second business card unit 21 have the same area constituting the three-dimensional part. However, in the three-dimensional business card 10B, the area constituting the three-dimensional part is the first business card part 20 and the second business card part 21. The case where it differs with the part 21 is represented.
As shown in FIG. 3, the three-dimensional business card 10 </ b> B of the present invention is composed of three parts, a first business card part 20, a second business card part 21, and a third business card part 22. The size of each business card part is a size (91 mm × 55 mm) normally used as a business card. The first business card part 20 and the second business card part 21 are continuous in the long side direction of the business card with the boundary fold 1B as a boundary. Further, the second business card part 21 and the third business card part 22 are connected in the long side direction of the business card with the boundary crease 2 as a boundary.
Further, as shown in FIG. 3, the three-dimensional part 40 </ b> B exists at a position straddling the first business card part 20 and the second business card part 21. The periphery of the three-dimensional part 40B has a fold 3B and a fold 4B in the long side direction of the business card, and has a cut 30B and a cut 31B in the short side direction of the business card. The peripheral edge of the three-dimensional part 40B is formed by a fold in the long side direction of the business card and is formed by cutting out the short side direction of the business card. Furthermore, there is a crease 5B parallel to the crease 4B in the three-dimensional part 40B, and the distance from the boundary crease 1B to the crease 3B is equal to the distance from the crease 4B to the crease 5B (represented by a distance b in FIG. 3). Further, the crease 3B, the crease 4B, the crease 5B, and the boundary crease 1B are parallel to each other.

(Second embodiment 2)
FIG. 4 shows the three-dimensional state of the three-dimensional business card 10B. The boundary fold 1B is valley-folded, and the three-dimensional portion 40B is drawn forward to form a solid, so that the fold 3B and the fold 4B are valley-folded, and the fold 5B in the three-dimensional portion 40B is a mountain fold. With this folding method, the third business card portion 22 becomes a support for the rear, and the three-dimensional business card 10B is held in a state in which a three-dimensional portion 40B is formed.

(Third embodiment 1)
FIG. 5 shows a third embodiment of a three-dimensional business card (three-dimensional business card 10C) according to the present invention. The three-dimensional shape is different from the first and second embodiments, and the three-dimensional portion forms an L shape instead of a rectangle. .
As shown in FIG. 5, the three-dimensional business card 10 </ b> C of the present invention includes three parts, a first business card part 20, a second business card part 21, and a third business card part 22. The size of each business card part is a size (91 mm × 55 mm) normally used as a business card. The first business card unit 20 and the second business card unit 21 are connected in the long side direction of the business card with the boundary fold 1C as a boundary. Further, the second business card part 21 and the third business card part 22 are connected in the long side direction of the business card with the boundary crease 2 as a boundary.
As shown in FIG. 5, the three-dimensional part 40 </ b> C exists at a position across the first business card part 20 and the second business card part 21. It has folds 3C, folds 4C, folds 5C, and folds 6C in the long side direction of the business card around the three-dimensional part 40C, and has cuts 30C, cuts 31C, and cuts 32C in the short side of the business card around the three-dimensional part 40C. Yes. The peripheral edge of the three-dimensional part 40C is characterized in that the long side direction of the business card is formed by folds and the short side direction of the business card is formed by cutting. Furthermore, there is a crease 5C parallel to the crease 4C inside the three-dimensional part 40C, and the distance between the boundary crease 1C and the crease 3C is equal to the distance from the crease 4C to the crease 5C (represented by a distance c in FIG. 5). Further, the crease 6C is provided between the crease 5C and the boundary crease 1C, and the cut 32C is provided between the cut 30C and the cut 31C. Further, the crease 3C, the crease 4C, the crease 5C, the crease 6C, and the boundary crease 1C are parallel to each other.

(Third embodiment 2)
FIG. 6 shows the three-dimensional state of the three-dimensional business card 10C. The second fold card portion 21 and the third card portion 22 form a mountain shape with the boundary fold line 1 </ b> C being a valley fold and the boundary fold line 2 being a mountain fold. In order to pull out the three-dimensional part 40C forward, the fold 3C and the fold 4C are valley folds, and the fold 5C in the three-dimensional part 40C is a mountain fold. The crease 6C inside the three-dimensional part 40C is mountain-folded, and the crease 5C which becomes the periphery of the three-dimensional part 40C is folded. By this folding, the three-dimensional part 40C forms an L-shaped solid, the third business card part 22 serves as a back support, and the three-dimensional business card 10C is held in a state where the three-dimensional part 40C is formed.

FIG. 7 shows a three-dimensional business card printing paper 50 for arbitrarily printing the three-dimensional business card 10A according to the first embodiment of the present invention on a personal computer. The three-dimensional business card printing paper 50 is Japanese Industrial Standard A row 4 row 4 standard size paper (commonly called A4 paper). Three three-dimensional business cards 10A could be arranged on the same paper. The yield of the business card portion with respect to the entire surface of the paper is about 70%.
The perimeter of each three-dimensional business card 10A has a perforation 60 so that it can be easily cut after printing.
An arbitrary design was drawn on a personal computer and printed on a three-dimensional business card printing paper 50 with a printer. After printing, the three-dimensional business card 10A was cut off according to the perforation 60, and assembled in the manner of [0017] using notches and folds provided on the paper. It was easy to assemble with just your fingertips.

  In FIG. 1 to FIG. 6, the various cuts are in a relationship perpendicular to the folds, but a three-dimensional shape can be formed even if the cuts are obliquely formed with respect to the folds.

As shown in FIG. 8, the three-dimensional design card 11 of the present invention is composed of three parts: a first design card part 20D, a second design card part 21D, and a third design card part 22D. The size of each design card portion was 165 mm × 91 mm. The first design card unit 20D and the second design card unit 21D are connected in the long side direction of the design card with the boundary fold 1D as a boundary. Further, the second design card portion 21D and the third design card portion 22D are connected in the long side direction of the design card with the boundary fold 2D as a boundary.
As shown in FIG. 8, the three-dimensional part 40D exists at a position straddling the first design card part 20D and the second design card part 21D. The periphery of the three-dimensional part 40D has a fold 3D and a fold 4D in the long side direction of the design card, and has a cut 30D and a cut 31D in the short side direction of the design card. The peripheral edge of the three-dimensional part 40D is configured by a fold in the long side direction of the design card, and is formed by cutting in the short side direction of the design card. Further, the solid portion 40D has a fold 5D parallel to the fold 4D. Further, the distance between the boundary fold 1D and the fold 3D and the distance between the fold 5D and the fold 4D are equal (represented by a distance d in FIG. 8). The fold line 3D, the fold line 4D, the fold line 5D, and the boundary fold line 1D are parallel to each other.
As shown in FIG. 8, the in-store advertising 3D design card 51 is printed on the 3D design card printing paper 51, which is a standard size paper (commonly known as A4 paper) in the 4th and 4th rows of the Japanese Industrial Standard, rather than being used as a business card. did. The three-dimensional design card 51 was cut off according to the perforations 60, and the three-dimensional design card 51 could be easily assembled using the cuts and folds provided on the paper. The three-dimensional design card 51 placed on the desk made the designed three-dimensional part 40D stand out and used as a greeting card for a store.
The three-dimensional design card paper is not limited to A4 size, and the size of the three-dimensional design card is not limited to 165 mm × 91 mm.

  The present invention has the convenience of realizing a three-dimensional business card that can stand on its own by simply making a crease and a notch on a sheet of paper. Three sets of frequently used A4 paper can be configured, and the yield is as high as 70% or more. The user can easily design and create a three-dimensional business card by making the business card design with software dedicated to the three-dimensional business card according to the three-dimensional business card printing paper 50.

1A boundary crease 1B boundary crease 1C boundary crease 1D boundary crease 2 boundary crease 2D boundary crease 3A crease 3B crease 3C crease 3D crease 4A crease 4B crease 4C crease 4D crease 5B crease 5C crease 10C crease 10C crease C Business card 11 Three-dimensional design card 20 First business card part 20D First design card part 21 Second business card part 21D Second design card part 22 Third business card part 22D Third design card part 30A Notch 30B Notch 30C Notch 30D Notch 31A Notch 31B Notch 31C Notch 31D Notch 32C Notch 40A Three-dimensional part 40B Three-dimensional part 40C Three-dimensional part 40D Three-dimensional part 50 Three-dimensional business card printing paper 51 Three-dimensional design card printing paper 60 Perforation

Claims (4)

  The long side direction of each business card part of the first business card part, the second business card part and the third business card part is connected, and has a boundary crease at all or part of the boundary of each business card part A solid part exists at a position straddling the first business card part and the second business card part, the business card long side direction of the solid part periphery is constituted by a fold, and the business card short side direction of the solid part periphery is constituted by a notch. The solid part has a fold parallel to the fold, and the length from the fold on the first business card part side of the solid part periphery to the boundary crease at the boundary between the first business card part and the second business card part, and the A solid business card characterized in that the length from the fold on the side of the second business card portion on the periphery of the solid portion to the fold in the solid portion is equal, and each fold and each boundary fold are parallel.   A three-dimensional business card printing paper capable of printing the three-dimensional business card according to claim 1, wherein the three-dimensional business card is provided with perforations so that each three-dimensional business card can be easily separated after printing on the three-dimensional business card. A three-dimensional business card printing paper having a fold, a boundary fold, and a cut at a position according to claim 1 so as to be able to do so.   The long side direction of each design card part of the 1st design card part, the 2nd design card part, and the 3rd design card part is connected, and the boundary crease is formed in the whole or a part of the boundary of each design card part. A three-dimensional part is present at a position straddling the first design card part and the second design card part, and the design card long side direction of the three-dimensional part periphery is configured by a fold, and the three-dimensional part peripheral design card The short side direction is constituted by a notch, and there is a fold parallel to the fold in the three-dimensional part, and the first design card part and the second design card from the fold on the first design card part side of the three-dimensional part periphery. The length from the fold on the second design card part side of the three-dimensional part edge to the fold in the three-dimensional part is equal, Solid design card, characterized in that the eyes are the boundary folds are parallel.   A three-dimensional design card printing paper capable of printing the three-dimensional design card according to claim 3, wherein a perforation is provided so that each three-dimensional design card can be easily separated after printing on the three-dimensional design card printing paper, and A three-dimensional design card printing paper having a fold, a boundary fold, and a cut at a position according to claim 3 so that the three-dimensional design card can be three-dimensionally assembled.

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