KR101908694B1

KR101908694B1 - Method for cut out and plan custermizing boots

Info

Publication number: KR101908694B1
Application number: KR1020170015677A
Authority: KR
Inventors: 오웅세; 오명세
Original assignee: 오웅세; 오명세
Priority date: 2017-02-03
Filing date: 2017-02-03
Publication date: 2018-12-10
Also published as: KR20180090608A

Abstract

The embodiment of the present invention is characterized in that the boot designing terminal includes a boot image basic image displaying step of displaying a boot image basic image, which is a basic image of one or more boot image fragments, A foot shape inputting process in which the boot designing terminal receives at least one foot shape dimension; The boot designing terminal performs image scaling to reduce or enlarge the size of each boot intercept basic image corresponding to the input foot shape so that one or more boot intercept scaling images having a scaled size are displayed on the boots cut UI screen A boot slice scaling image display process of displaying a boot slice image; And a bootstrap editing image displaying step of displaying one or more bootstrap editing images having the bootstrap scaling image edited by the user on the booting UI screen.

Description

Technical Field [0001] The present invention relates to a method for automatically designing and cutting boots,

The present invention relates to a method of automatically designing and cutting a customized boot, and a method of automatically designing and cutting a customized boot capable of customizing boots.

Recently, consumers tend to focus on individuality. Especially in the case of the fashion industry, it refuses to use the same product by mass production and uses an image or an accessory that can bring out a unique personality. In such a trend, there are cases where images or designs printed on their own shoes or clothes are printed or dyed. However, most consumers do not have the ability to carry out such work themselves and often fail to demonstrate their individuality.

Particularly, in the case of boots, the wearer can wear the boots only if the boots are manufactured in a shape having the highest degree of adhesion to the user's feet according to the shape of the user's feet. Therefore, custom-made boots are made in many cases.

However, in the case of custom-made boots, the foot size of the user is measured and then cut according to the foot size. Since these processes are manually performed by the shoe maker, there is a problem in that the boots are manufactured with boots having different sizes from the measured foot sizes . Therefore, there is a need for a means for manufacturing custom-made boots having a size error in comparison with the measured foot sizes.

Korean Patent Publication No. 2003-0039969

It is a technical object of the present invention to provide an automatic designing and cutting means for customized boots that can be customized for boots.

The step of inputting the foot-shaped dimensions may be performed by directly inputting foot-shaped dimensions including a user's foot length, an upper calf circumference, a lower foot circumference, a maximum foot width, and a foot path directly from a user, The shape dimensions can be input.

The boots cutting design terminal is allocated and stored with an intercept basic image display ratio which is a ratio of "boot image basic image size on the booting UI screen to actual size of the boot intercept" for each boot basic image, and the boot intercept scaling The image display process can display a boot fragment scaling image having a size calculated by " segment basic image display ratio x user's foot shape dimension " on the booting UI screen.

Wherein the bootstrapping scaling image display step displays the bootstrap scaling image having a different size according to a boot model selected by the user, can do.

The boots segment editing image displaying process may display the boots segment editing image on a scale display booth cutting UI screen having a horizontal axis scale and a vertical axis scale.

The boots segment editing image is generated by performing slope editing, size editing, and rotation editing of the boot slice scaling image.

Rotation editing of the boot intercept scaling image may include: displaying N boots intercept scaling images on the scale display boot UI window; Determining a boot fragment scaling image selected from N boot sector fragment scaling images as a selected boot fragment scaling image; And a step of rotating the selected boot slice scaling image around the fixed point by selecting a fixed point of one point on the selected boot slice scaled image and rotating the other selected (N-1) Process.

The image rotation process rotates the selected boots scaling image in the same direction and the same rotation angle about the fixed point when rotating the selected boots scaling edit image around the fixed point, .

According to the embodiment of the present invention, it is possible to easily design the tailoring of the customized boot according to the foot shape of the wearer.

1 is a configuration diagram of a customized boots automatic designing and cutting system according to an embodiment of the present invention.
2 is a block diagram of a boot designing terminal according to an embodiment of the present invention.
3 is a flowchart of an automatic designing and cutting method of a customized boot according to an embodiment of the present invention.
FIG. 4 is a diagram illustrating an example of a display of a bootstrap basic image on a booting UI screen according to an embodiment of the present invention.
FIG. 5 is a view illustrating a state in which the boots cutting UI is scaled on the screen in accordance with the embodiment of the present invention.
FIG. 6 is a diagram illustrating an example of displaying a boots segment editing image on a booting UI screen according to an embodiment of the present invention.
FIG. 7 is an exemplary illustration in which a bootstrap editing image on a booting UI screen is rotated according to an embodiment of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS The advantages and features of the present invention, and how to achieve them, will be apparent from the following detailed description of embodiments thereof taken in conjunction with the accompanying drawings. The present invention may, however, be embodied in many different forms and should not be construed as being limited to the exemplary embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete and will fully convey the concept of the invention to those skilled in the art. And the present invention is only defined by the scope of the claims. In the following description, well-known functions or constructions are not described in detail since they would obscure the invention in unnecessary detail.

FIG. 1 is a configuration diagram of an automatic designing and cutting system for customized boots according to an embodiment of the present invention, and FIG. 2 is a block diagram illustrating the configuration of a boot designing terminal according to an embodiment of the present invention.

Custermizing refers to a kind of customized service where the producers and craftsmen make products according to their needs. The present invention is characterized in that the size (width, length) of the sections required for boots cutting is automatically adjusted according to the size of the boots length, calf thickness, and the like when the boots are designed for customization of customized production of boots. Is adjusted on the boots cutting UI screen, and cut with a laser cutter to fit the thread dimensions. In addition, the number of outlets can be adjusted to the total number of outlets of the basic size.

For this purpose, the customized boots automatic design and cutting system may include a wired / wireless communication network (not shown), a foot-shaped dimension input device 100, a boots cutting design terminal 200, and a boot cutting laser 300.

A wired / wireless communication network (not shown) provides wireless communication or wired communication between the foot-shaped dimension inputting device 100, the booth cutting designing terminal 200, and the boots cutting laser 300, respectively. When the wired / wireless communication network is implemented as a wireless communication network, data is transmitted using a wireless mobile communication network including a base transceiver station (BTS), a mobile switching center (MSC), and a home location register (HLR) Communication can be performed. In addition, when a wired / wireless communication network is implemented as a wired communication network, it can be implemented as a network communication network, and data communication can be performed according to Internet protocols such as TCP / IP (Transmission Control Protocol / Internet Protocol).

The foot shape input device 100 is a module for inputting a foot shape dimension of a user wishing to wear a custom made boots. The foot shape input device 100 may be implemented as a touch pad that directly inputs a foot shape from a user or a 3D scanner that receives a foot shape by 3D scanning a foot shape of a user. Here, the foot-shaped dimension refers to a foot-shaped dimension of each user required at the time of making custom-made boots, and may include a user's calf length, upper calf circumference, lower calf circumference, maximum stroke width,

The boots cutting design terminal 200 is a device capable of performing computation such as a computer and a server and has the same configuration as that of a typical web server in terms of hardware and is used in software such as C, C ++, Java, Visual Basic, And includes program modules that are implemented in various types of languages and perform various functions. In addition, it can be implemented using a web server program that is variously provided according to operating systems such as dos, window, linux, unix, and macintosh for general server hardware. have.

The boot designing terminal 200 includes a boot designing tool 240 such as a boot designing program for designing a boot design so that the design of the boot designing terminal 200 Display booth cutting UI screen on the display window. Therefore, the size of the boot cutter is designed through the boot cut UI screen displayed on the boot cutter design terminal 200.

The boot designing terminal 200 may include a communication unit 210, an input unit 220, a display unit 230, and a boot designing tool 240, as shown in FIG.

The communication unit 210 supports communication between the foot shape input device 100 and the boots cutting laser 300. For example, data communication can be performed according to an Internet protocol such as TCP / IP (Transmission Control Protocol / Internet Protocol).

The input unit 220 receives the foot shape dimensions of the user wishing to wear the boots.

The display unit 230 displays a boots cutting UI screen used for boots cutting design. The input unit 220 and the display unit 230 may be implemented as a single type of touch screen panel. A touch screen panel is a display window provided on a front surface of a terminal to provide a touch screen screen capable of simultaneously performing input and display, and includes a graphical user interface (GUI) for communicating with a user Display.

The boot designing tool 240 is a program for performing arithmetic operation and screen control, and performs control such as a boots intercept basic image display, a boot intercept scaling image display, a boot intercept edit image display, and the like.

In detail, the boots cutting design tool 240 displays a boots intercept basic image, which is a basic image of one or more booth incisions constituting each component constituting the boots, on the booth cutting UI screen. The boots cutting design tool 240 receives one or more foot shape dimensions from the foot shape input device 100.

The boots cutting design tool 240 performs image scaling to reduce or enlarge the size of each boot intercept basic image corresponding to the input foot shape so that one or more boot intercept scaling images having a scaled size are displayed on the boot cut UI screen Lt; / RTI > The boot design tool 240 displays one or more boot interleaved edits that have been edited by the user from the boot interleaved scaling image on the boot cut UI screen. The operation of the boot design tool 240 will be described later with reference to FIGS. 3 to 7.

The boots cutting laser 300 is a module for cutting a boots fabric with a laser beam according to the shape of a boots cutting edit image produced through the booth cutting design terminal 200. Therefore, it is possible to manufacture the tailor-made boots fitting the shape of the user's foot by attaching the cut boot pieces to the boot.

FIG. 3 is a flow chart of a method for automatically designing and cutting a customized boots according to an embodiment of the present invention, FIG. 4 is an exemplary illustration of the display of a bootstrap basic image on a boots cut UI screen according to an embodiment of the present invention, FIG. 6 is a diagram illustrating an example of displaying a bootstrap editing image on a booting UI screen according to an embodiment of the present invention. FIG. And FIG. 7 is an exemplary illustration in which a boots section editing image on the booting UI screen is rotated according to an embodiment of the present invention.

First, the boots cutting design terminal 200, when the boots cutting design program, which is a boots cutting designing tool 240 capable of designing a boots cutting operation, is started, one or more boots cuttings The basic image of the boot-cut basic image of the boot-cut basic UI is displayed on the boot-cut UI screen (S310). Here, the boot section refers to each component section cut at the time of making boots, and refers to members such as a boot top box, a boots calf box, a boots jacket, a sole, and the like. Therefore, the boot image basic image is a basic image of the boot image displayed on the boot image UI screen as a preset reference size. In addition, the boots cutting UI screen is a UI (User Interface) screen in which each section of the boots is displayed. In addition to the boot image basic image display, a variety of editing execution icon arrays used when the user is edited can be displayed together.

After the boots section basic image display (S310) is performed, the booth cutting design terminal (200) has a foot shape size input process (S320) for inputting at least one foot shape dimension. In the foot shape input process, each foot shape dimension of the user can be input directly from the user or a foot shape dimension in which the user's foot shape is scanned in 3D. Here, the foot-shaped dimension refers to a foot-shaped dimension of each user required at the time of making custom-made boots, and may include a user's calf length, upper calf circumference, lower calf circumference, maximum stroke width,

After the step S320, the booth cutting design terminal 200 performs image scaling for reducing or enlarging the size of each boot slice basic image corresponding to the input foot shape, and scaling (S330) for displaying one or more boot slice scaling images having a predetermined size on the boot cutting UI screen.

For example, as shown in FIG. 5, when a foot length of a foot segment of 15 cm in size is displayed on a boots cut UI screen with a foot length of 3 cm, a foot size of a user's feet measured and inputted is 30 cm , The feet of the sole section displayed on the booting UI screen is displayed on the booting UI screen as a booting section scaled image having a scaled size enlarged from 3 cm to 6 cm.

For this purpose, the booth cutting design terminal 200 should allocate and display the intercept basic image display ratio, which is the ratio of the boot image basic image size on the booting UI screen to the real size of the boot section on a boot image basis image do. For example, when a foot of a 15 cm-sized foot is displayed on a boot screen of the UI screen with a foot length of 3 cm, the basic image display ratio of the foot-length is 3 ÷ 15 = 3/15.

The boot slice scaling image display process displays a boot slice scaling image having a size calculated by the " slice basic image display ratio x user's foot shape dimension " on the boot cutting UI screen. Therefore, when the basic image display ratio of the foot part is " 3/15 " and the foot shape of the measured foot of the user is 30 cm, the size of the boot fragment scaling image is " 3/15 x 30 cm = 6 cm " do.

Meanwhile, the boot layout design terminal 200 allocates and stores the segment basic image display ratios according to the boot image basic images, and the segment basic image display ratios may be allocated differently according to the boot models. This is because it is necessary to change the display ratio according to the boot model. For example, in the case of winter boots, since the user wears a thick sock, it is necessary to make the basic image display ratio of the maximum size of the foot shape larger than that of the summer boots.

Thus, in the boot fragment scaling image display process, the boot fragment scaling image having a different size is displayed according to the boot model selected by the user.

On the other hand, after the boot slice scaling image display process (S330) is performed, the boot layout design terminal 200 displays a boot slice editing image in which one or more boot slice editing images, which are edited by the user from the boot slice scaling image, And an edit image display process (S340).

In the boots segment editing image display process (S340), as shown in Fig. 6, a booth segment editing image is displayed on a scale display booth cutting UI screen composed of a horizontal axis scale and a vertical axis scale. It is preferable that the horizontal scale and the vertical scale are displayed as a unit of length corresponding to the size of the actual boot segment. As a result, designers who design bootcuts can verify the actual size of bootcuts by checking the tick marks displayed on the boot UI window.

The boot intercept edit image can also be created by slant editing, size editing, and rotation editing of the boot intercept scaling image. For example, in the case of slope editing, the slope of the boot slice scaled image can be generated as a boot slice edit image by inclining the slope by 5 degrees to the rightward direction. Also, for size editing, you can drag the size of the boots intercept scaling image to increase or decrease and edit it. In addition, for rotation editing, you can rotate and edit the boots intercept scaling image.

Particularly, in the case of rotating a boots intercept scaled image, when the designer rotates one of the boot intercept scaling images as shown in FIG. 7, another boots intercept scaled image displayed together on the boots cut UI screen . This requires boot segments as a group circle to make one boot. When one of the boot segment scaling images is rotated as the scaling image of these boot segments is displayed on the screen, the other boot segment scaling image is also rotated so that the readability It is to raise.

To accomplish this, rotation editing of the boot fragment scaling image includes the steps of displaying N boots fragment scaling images on the UI screen of the scale display boot, and selecting a boot fragment scaling image selected from the N boot fragment scaling images as a selected boot fragment scaling image (N-1) number of boot slice scaling images, and rotating the selected boot slice scaling image around a fixed point by selecting a fixed point of a certain point on the selected boot slice scaling image, And an image rotation process.

This image rotation process rotates the selected boot slice scaling image around the fixed point and rotates the other (N-1) pieces of boot slice scaling image in the same direction and the same rotation angle around the fixed point . This is to prevent confusion on the screen and increase the readability of the designer by rotating the same direction and the same rotation angle. However, if necessary, only the selected boot slice scaling image may be rotated by the designer's choice, and the remaining boot slice scaled image may not be rotated.

On the other hand, the boots segment editing image is displayed (S340), and the boots are cut according to the final finished boot segment editing image. That is, the boots cutting laser unit has a step of cutting the boot fabric with the laser beam according to the shape of the boots cutting image (S350).

The embodiments of the present invention described above are selected and presented in order to facilitate the understanding of those skilled in the art from a variety of possible examples. The technical idea of the present invention is not necessarily limited to or limited to these embodiments Various changes, modifications, and other equivalent embodiments are possible without departing from the spirit of the present invention.

S310: Booth intercept basic image display
S320: Enter foot shape dimensions
S330: Boot Sections Scaling Image Display
S340: Booth Intercept Editing Image Display
S350: Boots Foundation

Claims

A boots-cutting basic image displaying process for displaying a boot-cut basic image, which is a basic image of one or more boot pieces, each constituent element constituting the boot, on a boot-cut UI screen;
A foot shape inputting process in which the boot designing terminal receives at least one foot shape dimension;
The boot designing terminal performs image scaling to reduce or enlarge the size of each boot intercept basic image corresponding to the input foot shape so that one or more boot intercept scaling images having a scaled size are displayed on the boots cut UI screen A boot slice scaling image display process of displaying a boot slice image;
Wherein the boot designing terminal displays one or more boot intercept edited images edited from the boot intercept scaling image on the booting UI screen; And
And a boots cutting laser unit connected to the boot designing terminal through a wired / wireless communication network to cut the boot fabric with a laser beam in a shape of the boot cutting edit image,
The step of inputting the foot-
Characterized in that the foot shape dimensions including the user's calf length, the upper calf circumference, the lower calf circumference, the maximum foot width, and the foot length are directly inputted from the user, or the foot shape dimensions obtained by 3D scanning the user's foot shape are inputted and,
Wherein the boot layout design terminal assigns a segment basic image display ratio for each boot basic segment image, wherein the segment basic image display ratio is assigned differently for each boot model, The image display ratio is larger than the summer boots,
The boot slice scaling image display process displays a boot slice scaled image having a different size according to a boot model selected by the user,
Wherein the boot intercept edit image is generated by performing slope edit, size edit, and rotational edit of the boot intercept scaled image,
The rotation editing of the boot fragment scaling image may include:
Scale display Boots Foundation The process of displaying N boots fragment scaling images on the UI screen;
Determining a boot fragment scaling image selected from N boot sector fragment scaling images as a selected boot fragment scaling image; And
Wherein when a fixed point of a certain point is selected on the selected boot slice scaled image and the selected boot slice scaled image is rotated around the fixed point, the remaining (N-1) And rotating the same in the same direction and at the same rotation angle.

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The method according to claim 1,
The boot layout design terminal is allocated and stored with a basic basic image display ratio which is a ratio of the boot image basic image size on the booting UI screen to the real size of the boot section on a boot basic image basis,
The boot slice scaling image displaying process is a process of automatically designing and cutting a customized boots that displays a boot slice scaling image having a size calculated by " slice basic image display ratio x user foot shape dimension & Way.

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The method according to claim 1,
Automatic designing and cutting method of customized boots for displaying the boots segment editing image on a UI display screen of a scale display booth with a horizontal axis scale and a vertical axis scale.

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