JP6921900B2 - Information processing systems, information processing methods and programs - Google Patents

Description

Embodiments of the present invention relate to information processing systems, information processing methods and programs.

Women's garments are offered in various forms such as ready-made garments and various bespoke garments. It is required to provide garments that provide a satisfactory fit, fit and silhouette within the budget of each customer. In addition, it is desirable to provide clothes at the timing requested by the customer so that each customer can wear the clothes when needed.

However, in the past, female customers often had to compromise on at least one of garment satisfaction, price, and time to offer. Conventionally provided garments do not always match the uneven parts such as the bust, waist, and hips of an individual woman's body shape, and when worn, a beautiful silhouette (for example, a smooth constriction) is not formed. There was also. There is a need to provide clothing that makes individual women look beautiful.

Japanese Unexamined Patent Publication No. 2014-084544

An embodiment of the present invention provides an information processing system, an information processing method, and a program that enable an ordering of clothes having a high degree of satisfaction such as comfort and fit while maintaining the beauty of a design.

The information processing system as an embodiment of the present invention includes an ordering unit that selects one of the garment sizes from a plurality of garment sizes based on the body shape data of the customer and receives an order for the garment of the selected garment size. In the garment size, at least a bust size, a waist size, and a hip size are defined, and the garment size having each of the waist sizes includes the bust size of the first reference value and the second reference value. From the reference size having a hip size, the bust size smaller than the first reference value, the first size having a hip size smaller than the second reference value, the bust size larger than the first reference value, and the second reference value. Includes a second size with a large hip size.

A block diagram showing a configuration example of an information processing system. The figure which showed the example of the data stored in the storage part of an information processing apparatus. The figure which showed the example of the data stored in the storage part of a server. The figure which showed the example of the garment size for ladies based on JIS. A photograph showing an example of a 9AR size woman wearing a 7AR jacket. A photo showing an example of a 9AR size woman wearing a 9AR jacket. A photograph showing an example of a 9AR size woman wearing an 11AR jacket. A side view of an example of a 9AR size woman wearing a 7AR, 9AR, 11AR jacket. A size chart showing an example of a size system. A table showing the difference between the standard size dimension and the first size and second size dimensions for each waist dimension. The figure which showed the example of the back side of a jacket. The figure which showed the example of the front side of a jacket. The figure which showed the example of the pattern of the right half body part of a jacket when the bust dimension is adjusted greatly. The figure which showed the example of the pattern of the right half body part of a jacket when the bust dimension is adjusted small. The figure which showed the example of the skirt pattern. The figure which showed the example from the middle hip to the upper end of the waist of the skirt pattern. The figure which showed the example of the sewing method of the darts part. The figure which showed the example of the pattern of pants. A flowchart showing an example of pattern data generation processing. A flowchart showing an example of processing executed when receiving an order for clothes. A flowchart showing an example of a process executed when sewing an ordered garment. A photograph showing an example of a 9L size woman wearing a 9S jacket. A photograph showing an example of a 9L size woman wearing a 9M jacket. A photograph showing an example of a 9L size woman wearing a 9L jacket. A side view showing an example of a 9L size woman wearing a 9S, 9M, 9L jacket.

Hereinafter, embodiments of the present invention will be described with reference to the drawings. Further, in the drawings, the same components are given the same number, and the description thereof will be omitted as appropriate.

FIG. 1 is a block diagram showing a configuration example of an information processing system. The information processing system of FIG. 1 includes an information processing device 1, a server 2, an operating device 3, a display device 4, an information terminal 6, an information terminal 7, and a sewing system 8. The information processing device 1, the server 2, the information terminal 6, the information terminal 7, and the sewing system 8 can communicate with each other via the network 5. The network 5 is, for example, the Internet in which a plurality of computer networks are connected to each other. The network 5 can use wired, wireless, or a combination thereof as a communication medium. Further, an example of the communication protocol used in the network 5 is TCP / IP, but the type of the communication protocol is not particularly limited. The operation device 3 and the display device 4 are electrically connected to the information processing device 1.

The information processing device 1 is a computer including a central processing unit (CPU) and a memory. Examples of the information processing device 1 include a server, a desktop PC, and a notebook PC, but the information processing device 1 may be any kind of computer. The information processing device 1 performs, for example, a process of creating a clothing pattern, a process of accepting an order for clothing from a customer (order processing), and a process on the server side of a website (for example, a clothing sales site) that accepts an order for clothing. Run. Note that these processes do not necessarily have to be executed by the same computer. For example, at least some of these processes may be performed by different computers. Further, each of the above-mentioned processes may be executed by a different computer.

The operation device 3 is a device for inputting information to the information processing device 1. The operation device 3 is, for example, a keyboard, a mouse, a touch panel, a voice recognition device, and the like, but is not limited thereto. The display device 4 is a device for displaying an image, a video, a text, or the like output from the information processing device 1. Examples of the display device 4 include, but are not limited to, an LCD (liquid crystal display), an organic EL (organic electroluminescence) display, and a projector. The user can perform various operations on the information processing device 1 by using the operation device 3 and the display device 4. At least one of the operation device 3 and the display device 4 used by the user may be incorporated in the information processing device 1.

The server 2 is also a computer including a central processing unit (CPU) and a memory. An example of a server 2 is a computer for managing and / or controlling equipment installed in a factory. However, the server 2 may be any kind of computer, and the installation location of the server 2 is not particularly limited. The server 2 executes, for example, a molding support process and a process of controlling the sewing system 8 so that a desired garment is sewn. In the molding, the arrangement of the garment pattern on the fabric is determined. Note that these processes do not necessarily have to be executed by the same computer. For example, at least some of these processes may be performed by different computers. Further, each of the above-mentioned processes may be executed by a different computer.

Although one information processing device 1 is shown in FIG. 1, the number of information processing devices 1 may be larger than this. Similarly, a plurality of servers 2 may be installed. At least a part of the functions of the information processing device 1 and the server 2 may be realized by a virtual computer (VM: Virtual Machine) or a container. Further, the functions of the information processing device 1 and the server 2 may be realized by a plurality of computers. In FIG. 1, the information processing device 1 and the server 2 are separate computers, but this configuration is only an example. For example, at least a part of the functions of the information processing apparatus 1 and at least a part of the functions of the server 2 may be realized by the same computer.

The information terminal 6 is a laptop PC. The information terminal 7 is a smartphone. The information terminals 6 and 7 can transmit and receive data to and from other devices connected to the network 5 by wireless communication (for example, wireless LAN or mobile communication). Laptop PCs and smartphones are just examples of information terminals that can be used in information processing systems. Therefore, other types of information terminals such as desktop PCs, tablets, in-vehicle devices, and microcomputers of embedded devices may be used. The user can operate the information processing device 1 or the server 2 in a remote environment by using the information terminal as a client. In this case, the information terminal may have the functions of the operation device 3 and the display device 4 described above. Although two information terminals are shown in FIG. 1, the number of information terminals may be larger than this.

The sewing system 8 is a combination of devices used for sewing clothes, such as a cutting device and an industrial sewing machine. The sewing system 8 is installed in, for example, a factory where clothes are sewn. Each device included in the sewing system 8 may be connected to the network 5 by wire or wirelessly. The device included in the sewing system 8 may be one that operates automatically based on a command transmitted from a computer, or may be one that is manually operated by an employee.

Next, each component of the information processing apparatus 1 will be described. The information processing device 1 includes a calculation unit 10, a storage unit 14, an input unit 15, an output unit 16, and a communication unit 17.

The calculation unit 10 is an electronic circuit that executes a calculation and controls the entire information processing device 1. As the arithmetic unit 10, for example, a CPU, a microprocessor, an ASIC, an FPGA, a PLD, or a combination thereof can be used. At least a part of the functions of the information processing apparatus 1 may be realized by the electronic circuit of the arithmetic unit 10. Further, at least a part of the functions of the information processing apparatus 1 may be realized by a program executed on the arithmetic unit 10. In this case, the program is stored on a non-temporary tangible computer-readable storage medium (eg, storage unit 14 described below).

The calculation unit 10 includes a pattern generation unit 11, an order receiving unit 12, and a web server unit 13 as internal components. The pattern generation unit 11 supports the creation of a clothing pattern. Further, the pattern generation unit 11 generates a pattern of clothes, a correction pattern in which some dimensions of the existing pattern are corrected, and the like. The pattern generation unit 11 is realized, for example, by executing the CAD program 37 on the CPU. The operation screen of the CAD program may be displayed on the display device 4 described above. The ordering unit 12 executes the process related to the ordering of clothes. That is, the order receiving unit 12 selects one of the garment sizes from the plurality of garment sizes based on the customer's body shape data, and orders the garments of the selected garment size. When ordering garments, for example, the type and number of garments ordered by the customer, the fabric of the garment, the design options of the garment, and various dimensions of the customer's body shape need to be specified. The order receiving unit 12 is realized, for example, by executing the order receiving program 38 on the CPU. The web server unit 13 executes processing on the server side of the website that accepts orders for clothes. The management screens of the order receiving unit 12 and the web server unit 13 may be displayed on the display device 4 described above. The details of the processes executed by the pattern generation unit 11, the order receiving unit 12, and the web server unit 13 will be described later.

The storage unit 14 is a memory and / or storage for storing various data including the program of the information processing device 1, the data necessary for executing the program, and the data generated by the program. Here, it is assumed that the program includes both the OS and the application. The memory and / and storage may be volatile memory, non-volatile memory, or a combination thereof. Examples of volatile memory include DRAM, SRAM and the like. Examples of the non-volatile memory include NAND flash memory, NOR flash memory, ReRAM, and MRAM. Further, as the storage, a hard disk, an optical disk, a magnetic tape, or an external storage device may be used.

The input unit 15 is a circuit that realizes data input to the information processing device 1. For example, the above-mentioned operating device 3 is connected to the information processing device 1 via the input unit 15. Examples of the input unit 15 include interfaces such as USB, PCI-Express, and serial port, but other interfaces may be used. The output unit 16 is a circuit that realizes data output from the information processing device 1. For example, the display device 4 described above is connected to the information processing device 1 via the output unit 16. An example of the output unit 16 is an interface such as HDMI or DisplayPort, but other types of interfaces may be used.

The communication unit 17 of the information processing device 1 is a communication circuit that transmits / receives data to / from each device connected to the network 5. The communication unit 17 is, for example, a wired LAN NIC (Network Interface Card). However, the communication unit 17 may be another type of communication circuit such as a wireless LAN.

The server 2 includes a communication unit 20, an arithmetic control unit 21, and a storage unit 22. Further, the arithmetic control unit 21 includes a molding unit 23 as an internal component. The communication unit 20 of the server 2 is a communication circuit that transmits / receives data to / from each device connected to the network 5. The communication unit 20 is, for example, a wired LAN NIC (Network Interface Card). However, the communication unit 20 may be another type of communication circuit such as a wireless LAN.

The arithmetic control unit 21 of the server 2 is an electronic circuit that executes arithmetic operations and controls the entire server 2. As the arithmetic control unit 21, for example, a CPU, a microprocessor, an ASIC, an FPGA, a PLD, or a combination thereof can be used. At least a part of the function of the server 2 may be realized by the electronic circuit of the arithmetic unit 10. Further, at least a part of the functions of the server 2 may be realized by executing a program in the arithmetic control unit 21. In this case, the program is stored on a non-temporary tangible computer-readable storage medium (eg, storage unit 22 described below). The molding unit 23 executes the molding support program 41 described later to support the molding work.

The storage unit 22 of the server 2 is a memory or / and storage for storing various data including the program of the server 2, the data necessary for executing the program, and the data generated by the program. Here, it is assumed that the program includes both the OS and the application. The memory and / and storage may be volatile memory, non-volatile memory, or a combination thereof. Examples of volatile memory include DRAM, SRAM and the like. Examples of the non-volatile memory include NAND flash memory, NOR flash memory, ReRAM, and MRAM. Further, as the storage, a hard disk, an optical disk, a magnetic tape, or an external storage device may be used.

FIG. 2 shows an example of data stored in the storage unit 14 of the information processing device 1. In the storage unit 14 of FIG. 2, customer data 30, fabric inventory data 31, body shape data 32, order data 33, option data 34, pattern data 35, correction pattern data 36, and CAD program 37 are stored. , The order receiving program 38 and the EC site program 39 are stored. On the other hand, FIG. 3 shows an example of data stored in the storage unit 22 of the server 2. The storage unit 22 of FIG. 3 stores the correction pattern data 40, the patterning support program 41, the sewing data 42, and the control program 43. Details of the various data and programs shown in FIGS. 2 and 3 will be described later.

Before explaining the details of the information processing system according to the present embodiment, the problems in the women's clothing provided on the market will be described. Women's garments are offered in various forms such as ready-made garments and various bespoke garments. We need to meet the demands of the market by providing garments that provide a satisfying fit, fit and silhouette within each customer's budget. It is also required to provide the clothes requested by customers in a relatively short period of time so that each woman can wear clothes when needed.

However, in the past, female customers often had to compromise on at least one of garment satisfaction, price, and time to offer. Conventionally provided garments do not always match the uneven parts such as the bust, waist, and hips of an individual woman's body shape, and when worn, a beautiful silhouette (for example, a smooth constriction) is not formed. There was also. There is a need to provide clothing that makes individual women look beautiful.

The size of women's clothing (clothing size) is specified by the standards set by each institution, for example, in four dimensions: height, bust, waist and hips. In the following, as an example, the garment size standard specified in Japan will be described.

For example, the Japanese Industrial Standards (JIS) A body shape divides the height of Japanese adult girls into 142 cm, 150 cm, 158 cm and 166 cm (PP, P, R and T), and further divides the bust from 74 cm to 92 cm at 3 cm intervals. Therefore, when 92 cm to 104 cm is divided at 4 cm intervals, it is defined as the body shape of a person indicated by the size of the hip, which has the highest appearance rate in each combination of height and bust. Reference values for the waist are set according to the age group of 10-year-olds from teens to 70s.

Generally, the A body shape is said to be a clothing size determined based on the standard body shape of Japanese women. In addition, Y body shape, AB body type, and B body type are defined as body types having different hip dimensions from the A body type. Each of the Y body type, the AB body type, and the B body type has the same classification as the A body type described above. However, clothes of Y-shaped, AB-shaped, and B-shaped sizes are not always provided. For example, ready-made garments may only be provided with a garment size corresponding to body A.

For example, in the case of women in their teens to 20s, the size of clothes having a height of 158 cm (R) of A body, a bust size of 83 cm, a hip size of 91 cm, and a waist size of 64 cm is 9AR (No. 9). FIG. 4 is an example of a garment size chart based on JIS. The size chart 60 of FIG. 4 shows the bust size, waist size, and hip size in cm in the garment size of 5AR to 15AR (standard body shape of Japanese women). Regardless of the country / region, in women's garments, the garment size is often specified by the combination of height, bust size, hip size and waist size in the above-mentioned "standard body shape".

However, the body shape of individual women is generally slightly different from the "standard body shape" described above. For example, individual women differ not only in height but also in unevenness of body shape (eg, bust and hip size). For this reason, when women wore ready-made garments, they had to compromise at least one of comfort, fit, and silhouette beauty. In addition, the "standard body shape" is relatively defined and may have different sizes depending on the country / region. Today, women from all over the world can be customers, and it is desirable to prepare clothing sizes that are not tied to the "standard body shape" of a particular country / region.

The following shows an example in which a 9AR size woman is made to wear a 7AR, 9AR and 11AR jacket. As shown in FIG. 4, the dimensions of the bust, waist, and hips increase in the order of 7AR, 9AR, and 11AR.

FIG. 5 is a frontal photograph showing an example of a 9AR size woman wearing a 7AR jacket. Further, Photo 50 of FIG. 8 shows an example in which the same woman wore a 7AR jacket from the side. As in the woman in FIG. 5 and Photo 50, a smaller garment size may be chosen for the body shape so that the body lines, including the bust line, are clearly visible. First, refer to FIG. 5 in which a woman is photographed from the front. Looking at FIG. 5, it can be seen that the bust size and shoulder width of the jacket are tight, and the width of the V zone is too wide. Also, the waist size of the jacket is tight, the jacket is wrinkled, and the button position is too high. Both the sleeve length and the length are too short, so the shirt I wear as an inner is greatly exposed to the outside.

Next, refer to Photo 50, which is a side view of the same woman. Looking at Photo 50, it can be seen that the shoulder width of the jacket is tight and the sleeve attachment line is located inside the shoulder edge. Also, because the waist size of the jacket is too small, the front body becomes taller when the button is fastened, and the length looks short. The waist and back silhouettes have a constriction, but the constriction is sharply curved. Even with reference to Photo 50, it can be seen that both the sleeve length and the length are too short.

FIG. 6 is a frontal photograph showing an example of a 9AR size woman wearing a 9AR jacket. Photo 51 of FIG. 8 shows from the side an example in which the same woman wore a 9AR jacket. First, refer to FIG. 6 in which a woman is photographed from the front. Looking at FIG. 6, since the bust size and shoulder width of the jacket match the female body shape, a V zone having an appropriate angle is formed. In addition, the bust area of the jacket fits women. A smooth constriction is formed on the waist. Both sleeve length and length are suitable for women. It should be noted that it is possible to confirm whether or not the length of the length is appropriate from the relative positional relationship between the size of the part of the shirt worn as the inner that is exposed to the outside and the pocket of the pants.

Next, refer to Photo 51, which is a side view of the same woman. Looking at Photo 51, it can be seen that the shoulder width and bust size of the jacket are suitable for women. In addition, when the silhouette when worn is confirmed, it can be seen that smooth constrictions are formed on the waist and back side. Also, referring to Photo 51, it can be seen that both the sleeve length and the length are appropriate lengths. It can be seen that the 9AR jacket is suitable for the woman in Photo 51 of FIGS. 6 and 8.

FIG. 7 is a frontal photograph showing an example of a 9AR size woman wearing an 11AR jacket. Photo 52 of FIG. 8 shows from the side an example in which the same woman wore a jacket of 11AR. As in the case of the woman in FIG. 7 and Photo 52, a large size garment may be selected for the body shape in order to allow the bust line to have a space and not to make the body line strong. First, refer to FIG. 7 in which a woman is photographed from the front. Looking at FIG. 7, the width of the V zone is too narrow because the shoulder width and the bust size of the jacket are too large. Also, the jacket's bust area is too large to see the silhouette of the body. The waist circumference of the jacket is also too large, so there is no constriction in the waist. Furthermore, it can be seen that both the sleeve length and the length are too long. In FIG. 7, since the inner shirt, the pockets of the pants, and the hips are all covered with the jacket, it can be determined that the length is too long.

Next, refer to Photo 52, which is a side view of the same woman. Looking at Photo 52, it can be seen that the silhouette of the body cannot be seen because the shoulder width and bust size of the jacket are too large. In addition, no constriction is formed on the waist and back side, and the silhouette is close to a straight line. Also, referring to Photo 52, it can be seen that both the sleeve length and the length are too long.

With reference to FIGS. 5 to 8, when the size of the garment is changed, the dimensions of each part of the garment become uniform and become larger or smaller. When garments are provided by such a sizing system, it is difficult to provide garments tailored to the body shape and taste of individual women, as it is not possible to increase or decrease only specific dimensions of the garment. Become. This problem becomes particularly remarkable in ready-made garments in which a size system based on the so-called "standard body shape" as described above is adopted.

Therefore, women can consider purchasing bespoke garments (eg, bespoke suits, bespoke dresses) in order to obtain satisfaction such as comfort, fit, and beauty of silhouette.

Custom-made garments are classified into multiple types such as full order, easy order, and pattern order, depending on the method of garment design. Here, the difference between full order, easy order, and pattern order will be explained.

In the full order, the body shape of each customer is measured and a pattern is created for each customer. In full order, there is a high degree of freedom in clothing dimensions and design. Therefore, it is possible to obtain highly satisfying clothing that suits the body shape of each woman. However, in the full order, the man-hours for designing clothes increase. Therefore, it becomes difficult to reduce the time required to provide clothes to the customer and the cost of clothes.

In the easy order, the pattern closest to the customer's body shape is selected from a plurality of patterns prepared in advance for each part. Then, the pattern selected for each part is combined and the customer's clothes are sewn. With Easy Order, it is possible to fine-tune the dimensions of clothing. For example, in addition to the sleeve length, vertical and horizontal dimensional adjustments such as shoulder width adjustment can be performed. However, since the focus is on matching the customer's body shape, the beauty of the original design of the garment may be impaired.

In the pattern order, by fine-tuning the pattern of ready-made clothes, we provide clothes that match the customer's body shape as much as possible. In the pattern order, it is not necessary to create a pattern for each customer, so that the man-hours for designing clothes can be reduced. Further, in the pattern order, it is possible to provide clothes that match the body shape of the customer while maintaining the beauty of the original design of the clothes. However, the dimensional adjustment that can be realized by a general pattern order is limited to those in the vertical direction such as length and sleeve length, and the allowable range of adjustment is also narrow.

In the present embodiment, a method of providing clothes that realizes the provision of clothes with high satisfaction such as comfort and fit while maintaining the beauty of the design will be described.

In order to solve the above-mentioned problems, the information processing system according to the present embodiment can provide clothes based on a size system (size chart) suitable for various body shapes of women. In the following description, when the term "clothes size" is simply used, it means the size of clothes specified in the size chart of the information processing system according to the present embodiment.

The size chart 61 of FIG. 9 is an example of a size chart used in the information processing system according to the present embodiment. The size chart 61 of FIG. 9 shows the bust size, waist size, and hip size in cm for a plurality of garment sizes (5S to 15L). Further, in FIG. 9, the garment size (5M, 7M, 9M, 11M, ..., 15M) having an M at the end is a reference size specified by the waist dimension. Each standard size corresponds to 5AR to 15AR in JIS. Multiple garment sizes with the same number at the beginning have equal waist dimensions. For example, the waist size of the garment size (5S, 5M, 5L) with "5" at the beginning is 58cm, and the waist size of the garment size (7S, 7M, 7L) with "7" at the beginning is 58cm. All dimensions are 61 cm.

The garment size shall include at least the bust size, waist size and hip size. The garment size may include different dimensions. Further, as long as it refers to the size of the uneven portion of the female body shape, a name other than bust / waist / hip may be used in the size system of the garment size. In addition, the size system of clothes size is not limited to the one specified by JIS in Japan. Even if the size system of clothing size is based on other standards such as People's Republic of China National Standard (GB), Taiwan National Standard (CNS), Korean Industrial Standard (KS), ASTM, EN (European Norm), etc. good.

The garment size of each waist dimension (in this example, the garment size with the same number at the beginning) includes a reference size having a bust dimension of the first reference value and a hip dimension of the second reference value, and a first reference value. A first size with a bust dimension smaller than the reference value and a hip dimension smaller than the second reference value, and a second size having a bust dimension larger than the first reference value and a hip dimension larger than the second reference value are included. .. Here, the first size corresponds to a garment size (5S, 7S, 9S, 11S, ..., 15S) having an S at the end in the size chart 61 of FIG. On the other hand, the second size corresponds to the garment size (5L, 7L, 9L, 11L, ..., 15L) having an L at the end in the size chart 61 of FIG.

The clothing size symbol in which the number and the uppercase letters of the alphabet are combined in FIG. 9 is adopted to clarify the correspondence with the size name used in JIS. Therefore, a garment size symbol defined in a different format may be used, and the garment size designation and format are not particularly limited. Here, a size system in which one first size and one second size exist for each reference size is described as an example. However, for each reference size, a size system in which a plurality of first sizes exist may be used. Further, a size system in which a plurality of second sizes exist for each reference size may be used.

FIG. 10 is a table showing the difference between the standard size dimension and the first size and second size dimensions for each waist dimension. With reference to FIGS. 9 and 10, in the garment size having each waist dimension (here, the garment size with the same number at the beginning), the difference between the bust dimension of the reference size and the bust dimension of the first size is , The difference between the bust size of the second size and the bust size of the standard size is equal. However, this relationship does not necessarily have to be established for the bust size of clothes having the same waist size. Further, in the size chart 61 of FIG. 9, in the garment size having each waist size, the difference between the bust size of the reference size and the bust size of the first size and the bust size of the second size and the bust size of the reference size are shown. All of the differences have a constant value (3 cm). However, this difference may be a value other than 3 cm, and may not always be a constant value.

With reference to FIGS. 9 and 10, in the garment size having each waist dimension (here, the garment size with the same number at the beginning), the difference between the hip size of the reference size and the hip size of the first size is , The difference between the hip size of the second size and the hip size of the standard size is equal. However, this relationship does not necessarily have to be established for the bust size of clothes having the same waist size. Further, in the size chart 61 of FIG. 9, in the garment size having each waist dimension, the difference between the hip dimension of the reference size and the hip dimension of the first size and the hip dimension of the second size and the hip dimension of the reference size are shown. All of the differences have a constant value (3 cm). However, this difference may be a value other than 3 cm, and may not always be a constant value.

In the following, a method of designing a garment based on the size system shown in FIG. 9 by modifying a garment of a standard size will be described. Examples of the standard size include so-called "standard body type" clothing sizes such as JIS 9AR (No. 9). However, the standard size of clothes is not particularly limited.

First, an example of a method of designing clothes in the case of a jacket will be described.

FIG. 11 shows the back side of the jacket. FIG. 11 shows the shoulder width, waist width, and hem circumference width of the jacket. At the time of design, adjust the bust size and hip size without changing the shoulder width, waist width, and hem circumference width as much as possible with respect to the standard size (first rule). That is, in the garment size, the shoulder width, the waist width, and the hem circumference width may be set to be substantially equal in the first size, the reference size, and the second size having the same waist size.

FIG. 12 shows an example of the front side of the jacket. As shown in FIG. 12, a case where the bust size is adjusted to be 3 cm larger than the reference size will be described as an example. When a ready-made garment having a bust size 3 cm larger is required, there is a problem that the entire garment is large, not limited to the bust size. Further, when a garment having a bust size of 3 cm smaller than that of a ready-made garment is required, there is a problem that the entire garment becomes smaller, not limited to the bust size. Therefore, in order to minimize the influence on other parts, adjustments are made centering on the front body and front side of the clothing pattern (second rule). As a result, as shown in FIG. 12, when the bust size is increased by 30.2 mm, the effect on the sleeve circumference can be limited to an increase of 10.5 mm. Further, when the bust size is reduced by 29.2 mm, the influence on the sleeve circumference can be limited to 11.2 mm.

FIG. 13 shows an example of a pattern of the right half of the jacket when the bust size is greatly adjusted. In FIG. 13, patterns 70 and 71 are shown. The pattern 70 corresponds to the right front side portion of the jacket. The pattern 71 corresponds to the right front body portion of the jacket. The shape of the pattern in the case of the reference size is shown by a solid line. As described above, when it is desired to make the bust size larger than the reference size, the patterns 70 and 71 are changed to the shapes shown by the broken lines.

By changing the shape of the pattern, the length of the portion corresponding to the bust dimension of the patterns 70 and 71 is increased. The line segment b0 indicates the length of the portion corresponding to the bust dimension of the pattern 70. Further, the line segment b1 indicates the length of the portion corresponding to the bust dimension of the pattern 71. Specifically, the line segment b0 is expanded by 6.6 mm on the negative side of the x-axis and 3.9 mm on the positive side of the x-axis as compared with the reference size. Further, the line segment b1 is extended by 4.6 mm in the negative direction of the x-axis as compared with the reference size. Therefore, in the range of FIG. 13, the length of the portion corresponding to the bust dimension is 6.6 mm + 3.9 mm + 4.6 mm = 15.1 mm larger than the reference size. By changing the pattern shape in the same manner as in FIG. 13 for the left half of the jacket, the bust size can be increased by 30.2 mm in total. The effect on the sleeve circumference is limited to an increase of 6.6 mm + 3.9 mm = 10.5 mm due to the adjustment of the pattern 70.

If the bust dimension is increased without correcting the reference size in the vertical direction (for example, the y-axis direction in FIG. 13), the button position may become too high or the length may become too short. There is. Therefore, when adjusting the bust dimension to be larger than the reference size, in addition to the above-mentioned change, the pattern is adjusted in the vertical direction (third rule). For example, in FIG. 13, the length (size in the y-axis direction) of the right front body (pattern 71) is increased by 7.0 mm. Similarly, the length of the pattern in full bloom on the left front is increased by 7.0 mm. This makes it possible to make partial dimensional adjustments without compromising the appearance of the jacket. Further, as shown in FIG. 13, the position of the pocket may be adjusted as needed.

FIG. 14 shows an example of a pattern of the right half of the jacket when the bust size is adjusted to be small. In FIG. 14, patterns 70 and 71 are shown. The pattern 70 corresponds to the right front side portion of the jacket. The pattern 71 corresponds to the right front body portion of the jacket. The shape of the pattern in the case of the reference size is shown by a solid line. If you want to make the bust size smaller than the standard size, change the patterns 70 and 71 to the shape shown by the broken line.

By changing the shape of the pattern, the length of the portion corresponding to the bust dimension of the patterns 70 and 71 becomes smaller. The line segment b0 indicates the length of the portion corresponding to the bust dimension of the pattern 70. Further, the line segment b1 indicates the length of the portion corresponding to the bust dimension of the pattern 71. Specifically, the line segment b0 is reduced by 6.0 mm on the negative side of the x-axis and 5.2 mm on the positive side of the x-axis as compared with the reference size. Further, the line segment b1 is reduced by 3.4 mm in the negative direction of the x-axis as compared with the reference size. Therefore, in the range of FIG. 14, the length of the portion corresponding to the bust dimension is 6.0 mm + 5.2 mm + 3.4 mm = 14.6 mm smaller than the reference size. By changing the pattern shape in the same manner as in FIG. 14 for the left half of the jacket, the bust size can be reduced by 29.2 mm in total. The effect on the sleeve circumference is limited to a decrease of 6.0 mm + 5.2 mm = 11.2 mm due to the adjustment of the pattern 70. When adjusting the bust size to a small size, it is not always necessary to adjust the length (size in the y-axis direction).

By performing the above-mentioned design, it is possible to provide garments having different dimensions (for example, bust dimensions) of a part of the body without significantly changing the dimensions of the entire garment. The amount of dimensional adjustment described above is a value measured for a pattern arranged on a plane (that is, a plan view of the pattern). On the plan view, even if the adjustment amount of the length of the part corresponding to the bust dimension is not exactly ± 30.0 mm, the adjustment amount is approximately ± 30.0 mm after the fabric is sewn three-dimensionally. It is possible to design. The same can be said for the adjustment amount around the sleeve, not limited to the bust size.

Next, an example of a method of designing clothes in the case of a skirt will be described.

FIG. 15 shows an example of a skirt pattern. FIG. 15 shows a pattern 74 and a pattern 75. The pattern 74 corresponds to a part of the back body of the skirt. On the other hand, the pattern 75 corresponds to the front body portion of the skirt. The line segments H of patterns 74 and 75 indicate the highest positions of the hips. In the skirt design, the hip size is changed without changing the waist size from the standard size. For this purpose, the lateral adjustment of the pattern and the change of the folding width in the darts are performed together.

In the lateral adjustment of the pattern, the width in the x-axis direction of FIG. 15 is adjusted up to the portion corresponding to the waist, hip, and hem. The amount of adjustment of the width in the x-axis direction is set to a constant value at the position of the line segment H from the hem, and decreases from the line segment H toward the waist (positive direction on the y-axis). Further, when changing the folding width in the darts, the folding width in the darts is changed so that the garment to be sewn has a waist size equivalent to the standard size regardless of the adjustment in the lateral direction of the pattern.

FIG. 16 shows an enlarged view of the upper end of the waist from the middle hip of the skirt in FIG. The solid line M in FIG. 15 shows the pattern edge portion at the reference size. On the other hand, the broken line S indicates the pattern edge portion in the first size. Further, the broken line L indicates the pattern edge portion in the second size. With reference to the edges of patterns 74 and 75 in FIG. 15, it can be seen that the dashed lines S and L and the solid line M are used, as in FIG. In the first size of FIG. 15, the width of the pattern in the x-axis direction is changed to be shorter than that of the reference size. Further, in the second size of FIG. 15, the width of the pattern in the x-axis direction is changed to be longer than that of the reference size.

FIG. 17 shows an enlarged view of the darts portion in FIG. In the darts portion, for example, the fabric is folded so that the line segment D and one of the line segments S, M, and L overlap, and the folded portion of the fabric is sewn to narrow the width of the portion corresponding to the waist. be able to. In the reference size, darts are formed so that the line segment D and the line segment M overlap. On the other hand, in the first size, darts are formed so that the line segment D and the line segment S overlap. Further, in the second size, darts are formed so that the line segment D and the line segment L overlap. Therefore, in the first size, the narrowing width of the waist dimension by darts is smaller than the reference size. Further, in the second size, the narrowing width of the waist dimension by darts is larger than the reference size.

See FIG. 15 again. Two darts, darts 63 and 64, are provided in the pattern 74 of the back body portion. Two darts are also provided on the other pattern of the back body portion, which is not shown in FIG. Therefore, there are a total of four darts on the back body. Further, the pattern 75 of the front body portion is provided with two darts, darts 65 and 66.

Here, an example of designing a second size skirt having a larger hip size than the standard size will be described. First, the edge of the pattern 74 on the front body and the edge of the pattern on the back body are adjusted so that the width on the line segment H increases by a total of 3 cm. As described above, the amount of adjustment of the width in the x direction decreases from the line segment H toward the waist (the positive direction of the y-axis in FIG. 15), so that the amount of adjustment of +3 cm on the line segment H is It corresponds to the adjustment amount of +2.4 cm in the x-axis direction in the hip portion. Therefore, if the waist size is narrowed down by 2.4 cm compared to the standard size by using a plurality of darts, the waist size of the standard size can be maintained. For example, increase the narrowing width by 0.6 cm from the standard size for each of the darts 65 and 66 on the front body. In addition, increase the narrowing width by 0.3 cm from the standard size for each of the four darts on the back body. This makes it possible to narrow down the waist size by 2.4 cm.

When designing a first size skirt whose hip size is smaller than the standard size, adjustment may be performed in the opposite direction to the above. As described above, the folding width of the darts of the garment having the same waist size may be increased in the order of the first size garment, the standard size garment, and the second size garment. The skirt design method described with reference to FIGS. 15 to 17 is only an example. Generally, the design method of the skirt differs depending on the design. Therefore, the number of darts, the narrowing width of the waist dimension in each dart, and the adjustment amount of the width in the lateral direction (x-axis direction in FIG. 15) may be different from the above.

Next, an example of a method of designing clothes in the case of pants will be described.

FIG. 18 shows an example of a pants pattern. FIG. 18 shows a pattern 76, a pattern 77, a yoke belt 78, and a yoke belt 79. The pattern 76 corresponds to the back part of the pants. Pattern 77 corresponds to the front part of the pants. The yoke belt 78 corresponds to the rear body portion of the yoke belt. The yoke belt 79 corresponds to the front body portion of the yoke belt. Each of the patterns 76 and 77 shows how to measure the crossover width, the knee width, and the hem width. Only the crossover width is different between the front view pattern and the back body pattern. In the pants design, the hip size is adjusted without changing the waist size, knee width, and cuff width from the standard size.

If you want to change the hip size, adjust the crossover width. For example, when designing a second size in which the hip size is larger than the standard size, the crossover width is made wider than the standard size. By increasing the narrowing width of each dart, it is possible to increase the crossover width while maintaining the waist size of the standard size. Since the shape and dimensions of the edge of the pattern in the positive direction (waist side) of the y-axis also change with the change of the crossover width, the shape and dimensions of the yoke belt are also adjusted. When designing the first size whose hip size is smaller than the standard size, the crossover width may be narrower than the standard size.

Hereinafter, an example of processing executed by the information processing system according to the present embodiment will be described. The pattern data generation process, the process executed when the ordered garment is ordered, and the process executed when the ordered garment is sewn will be described in this order.

FIG. 19 is a flowchart showing an example of pattern data generation processing. Here, the process will be described with reference to the flowchart of FIG. Before accepting a garment order from a customer and sewing the garment, it is necessary to prepare garment pattern data.

First, patterns of first size, reference size and second size garments having any of the waist dimensions are created (step S101). For example, in step S101, a reference size pattern for a specific waist dimension is first created. Then, the reference size pattern can be modified as described with reference to FIGS. 12 to 18 to create a first size pattern and a second size pattern. However, the reference size, the first size, the second size may be created in a different order and may be different from this. An example of a reference size for a particular waist size is a so-called "standard body" garment size such as JIS 9AR (No. 9). However, other garment sizes may be used as a reference size for a particular waist dimension. For example, garment sizes based on at least one of JIS, GB, CNS, KS, ASTM, EN may be used.

The pattern maker can create a pattern of clothes by referring to a design image created by a fashion designer and using a CAD program 37 executed by a pattern generation unit 11 (calculation unit 10). This work corresponds to the pattern making process. The pattern created in the pattern making process is called a master pattern.

In step S101, it is not always necessary to newly create a reference size pattern. For example, if there is a pattern of ready-made clothes that has already been designed, the pattern can be used as a reference size pattern, and first size and second size patterns can be created. The pattern (master pattern) data created in step S101 is stored in the storage unit 14 as a part of the pattern data 35.

Next, a garment pattern of a garment size (first size, reference size, second size) having other waist dimensions is created (step S102). In step S102, a work called grading is performed, and a pattern related to other garment sizes is created based on the master pattern. Also in step S102, the CAD program 37 executed by the pattern generation unit 11 (calculation unit 10) is used. The grading using the CAD program 37 may be performed by a person in charge different from the patterner in step S101, or may be performed by the same person in charge. In addition, patterns of other sizes may be automatically generated from the master pattern by using a calculation formula or a script. When performing automatic grading by the CAD program 37, the person in charge may make manual adjustments while checking the generated pattern.

For example, when the garment size of the master pattern created in step S101 is 9S, 9M, 9L in FIG. 9, in step S102, patterns related to the garment sizes of 5S to 7L and 11S to 15L are created. For example, by grading the pattern of the first size (9S), a pattern related to each garment size of 5S, 7S, 11S, 13S, and 15S is generated. Further, by grading the pattern of the reference size (9M), patterns related to each garment size of 5M, 7M, 11M, 13M, and 15M are generated. Further, by grading the pattern of the second size (9L), a pattern related to each garment size of 5L, 7L, 11L, 13L, and 15L is generated.

Then, the pattern related to each created garment size is saved (step S103). In step S103, the pattern data created in steps S101 and S102 is stored in the storage unit 14 as pattern data 35.

Up to this point, the pattern data generation process has been described. Before starting the ordering of clothes, work other than the creation of pattern data may be performed. For example, you can decide the type of fabric used for clothes, the presence or absence of lining, the type of lining, the presence or absence of pockets, the shape of pockets, the type of buttons, the presence or absence of stitches, and other options. The contents of the options that can be selected by the customer are stored in the storage unit 14 as option data 34. In addition, different patterns may be created for each optional design of the garment.

FIG. 20 is a flowchart showing an example of processing executed when receiving an order for clothes. Here, the process will be described with reference to the flowchart of FIG.

First, a customer who wants to order clothes is identified (step S201). The process executed in step S201 depends on whether the customer is a new customer or an existing customer. For example, in the case of a new customer, information such as the customer's name, address, and telephone number is input to the information processing device 1 via the order receiving unit 12. The customer information is stored in the storage unit 14 as customer data 30. In the case of an existing customer, customer information necessary for order processing is extracted from the customer data 30 of the storage unit 14.

Next, the fabric of the garment ordered by the customer, the type of garment, the number of points, and the options are input (step S202). The ordering unit 12 may refer to the dough inventory data 31 and confirm whether or not the dough is in stock desired by the customer. When the customer's desired dough is in stock, the order receiving unit 12 can update the dough inventory data 31 and reserve a certain amount of the dough. The reserved fabric will be reserved for the customer until sewing begins, unless the reservation is canceled. Examples of garment types include jackets, skirts, pants, dresses and the like. However, the type of clothing may be specified in more detail. For example, 1-button jacket, 2-button jacket, collarless jacket, tight skirt, mermaid skirt, tuck skirt, tapered pants, straight pants, nine-quarter length pants, sleeveless dress, and five-quarter sleeve dress are each brand name or It may be specified by an identifier. The customer's order contents are stored in the storage unit 14 as order data 33.

Then, the customer's body shape is measured and the body shape data is input (step S203). The method of measuring the customer's body shape is not particularly limited. For example, an employee may use a tape measure to measure the body shape of a customer who comes to a store. In addition, the customer may try on a sample of clothes in the store, and obtain a clothes size suitable for the customer's body shape from the comfort, fit, silhouette, and the like of the sample. In addition, a customer may take an image of himself / herself with an information terminal such as a smartphone, input the image into a measuring application installed in the information terminal, and obtain body shape data. The customer's body shape data is input to the information processing device 1 via the order receiving unit 12. The customer's body shape data is stored in the storage unit 14 as body shape data 32.

Various formats can be used as the body shape data 32. For example, the customer's body shape may be specified by numerical values such as height, shoulder width, arm length, bust size, waist size, hip size, and inseam length. These items are just an example of the numbers that are measured. Therefore, not all of the above items need to be measured. In addition, other items may be measured. Further, for example, the body shape of the customer may be specified by the size of clothes as shown in FIG. 9 described above.

The processes of steps S201 to S203 are executed, for example, when the customer orders clothes. However, these processes may be executed at any timing. For example, a customer accesses a website provided by a web server unit 13 using an information terminal capable of communicating with network 5, and a name, address, telephone number, clothing type, clothing score, clothing option, and body shape. Data and the like can be input to the information processing device 1. In addition, an employee who serves customers at the store accesses the website provided by the web server unit 13 using the information terminal installed in the store, and the name, address, telephone number, type of clothes, score of clothes, etc. Clothing options, body shape data, and the like may be input to the information processing device 1.

Next, for the corresponding type of clothing, the clothing size is selected based on the body shape data (step S204). The process of step S204 may be executed by the information processing system. In addition, a person such as an employee may select the garment size. For example, the ordering unit 12 selects the garment size closest to the customer's height, bust size, waist size, and hip size. When selecting the garment size, it may be a condition that each dimension of the garment is equal to or larger than the corresponding dimension of each part of the customer's body included in the body shape data 32. The vertical dimensions of the garment size selected (in the y-axis directions of FIGS. 13-15 and 18) do not have to exactly match the customer's body shape. This is because it is relatively easy to adjust the dimensions in the vertical direction. Examples of vertical dimensions include length, sleeve length, skirt length, inseam length and the like. The method of selecting the garment size from the body shape data is not particularly limited. If the garment size suitable for the customer has already been specified by trying on the sample, the process of step S204 may be skipped.

Then, the information processing system identifies a pattern corresponding to the type of clothes and the size of clothes (step S205). For example, the order receiving unit 12 searches the pattern data 35 of the storage unit 14 and specifies a pattern in each part of the target clothing.

Next, the information processing system corrects the specified pattern based on the customer's body shape data and generates the correction pattern data (step S206). For example, the pattern generation unit 11 generates correction pattern data 36 in which at least one of the length, sleeve length, skirt length, and inseam length of the selected garment size is changed. In step S206, other dimensions of the pattern may be changed. In addition, the shape of an optional part such as a pocket may be changed. The dimensional correction amount may be calculated based on both the customer's body shape data 32 and the pattern data 35. Further, when the correction amount of the vertical dimension is measured by fitting the garment sample, the pattern may be corrected based on the measured correction amount. The correction pattern data 36 is stored in the storage unit 14.

Here, the process executed when the customer's clothes are sewn after receiving an order is described. However, if the garment of the type and garment size ordered by the customer is already in stock, it is not necessary to correct the pattern of the garment and sew the garment. For example, if the store has an inventory of clothes of the type and size desired by the customer, the clothes may be delivered to the customer at the store. In addition, if any facility such as a store, warehouse, or factory has garments of the type and garment size ordered by the customer, the vertical dimensions of the garments are based on the customer's body shape data before delivery to the customer. You may only fix it. The garment ordered by the customer may be delivered to the destination specified by the customer. Further, the information processing system according to the present embodiment may be used to accept orders for ready-made clothes as well as custom-made clothes.

In the explanation of the flowchart of FIG. 20, the timing at which the settlement is performed is not particularly described. The timing of payment is not particularly limited. For example, the settlement may be made at the same time as the delivery of the ordered clothes. Further, the settlement may be made at the timing when the clothes are ordered (for example, after step S203).

FIG. 21 is a flowchart showing an example of a process executed at the time of sewing the ordered garment. Here, the process will be described with reference to the flowchart of FIG.

First, the order receiving unit 12 of the information processing device 1 transmits the correction pattern data related to the clothes ordered by the customer to the server 2 via the communication unit 17 (step S301). Then, the server 2 receives the correction pattern data via the communication unit 20 (step S302). At this time, the arithmetic control unit 21 of the server 2 may store the received correction pattern data as the correction pattern data 40 in the storage unit 22.

Next, the patterning unit 23 of the server 2 executes the patterning support program 41, performs patterning using the correction pattern data, and generates sewing data 42 (step S303). Molding refers to the work of determining the arrangement of patterns on the fabric. For example, when using a fabric with a pattern, the pattern arrangement on the fabric may be determined in consideration of the consistency of the direction of the pattern after sewing. Molding may be performed automatically by the molding support program 41 or manually by a technician. Further, the technician may check the position of each pattern arranged by the molding support program 41 on the fabric and correct the pattern arrangement if necessary. The molding support program 41 may store the sewing data 42 in the storage unit 22.

Then, the arithmetic control unit 21 of the server 2 controls the sewing system 8 by executing the control program 43. As a result, sewing of clothes is started based on the sewing data 42 (step S304). For example, the arithmetic control unit 21 transmits a control signal instructing the sewing system 8 to start sewing clothes via the communication unit 20. The sewing system 8 that has received the control signal via the network 5 starts sewing the garment. The arithmetic control unit 21 may receive information on the progress of the garment sewing work from the sewing system 8 via the communication unit 20. When the sewing of the garment by the sewing system 8 is completed, the arithmetic control unit 21 of the server 2 notifies that the garment is completed (step S305). The notification may be transmitted to the order receiving unit 12 of the information processing device 1 via the communication unit 20 of the server 2. However, the address and format of the notification are not particularly limited. Further, an employee using the sewing system 8 may operate the server 2 to notify when the clothes are completed.

In FIG. 21, correction pattern data transmission processing and reception processing are executed. However, it is not always necessary to execute the correction pattern data transmission process and the reception process. For example, when the correction pattern data is stored in a referenceable location on the computer on which the patterning support program 41 is executed, the correction pattern data transfer process becomes unnecessary.

In the following, an example in which a 9L size woman wears clothes related to the 9S, 9M and 9L garment sizes shown in FIG. 9 is shown.

FIG. 22 shows a front view of an example in which a 9L size woman wears a 9S jacket. Photo 53 of FIG. 25 shows from the side an example in which the same woman wore a 9S jacket. First, refer to FIG. 22 in which a woman is photographed from the front. Looking at FIG. 22, it can be seen that the jacket around the bust is tight and the width of the V zone is too wide. Also, the V zone line is distorted. Also, when the button on the jacket is fastened, it can be seen that wrinkles are radially generated on each method of the front body centering on the button.

Then, the photograph 53 in which the same woman was photographed from the side is referred to. Looking at Photo 53, wrinkles appear in the area between the bust and the armpits and near the waist. Also, when checking the silhouette when wearing the jacket, the constriction on the back side is a sharp curve, and the position of the constriction on the back side is too low. Next, a case where the same woman wears 9M size clothes having a bust size larger than 9S size will be described.

FIG. 23 shows an example in which a 9L size woman wears a 9M jacket. Photo 54 of FIG. 25 shows from the side an example of the same woman wearing a 9M jacket. First, refer to FIG. 23, which is a photograph of a woman from the front. Looking at FIG. 23, the circumference of the bust is still a little tight, and the width of the V line is a little too wide. Moreover, the distortion of the V zone line is not eliminated. Further, as in FIG. 22, when the button of the jacket is fastened, it can be seen that wrinkles are radially generated in each direction of the front body centering on the button.

Then, refer to the photograph 54 in which the same woman is photographed from the side. Looking at Photo 54, as in Photo 53, wrinkles appear in the area between the bust and the side and near the waist. Further, when the silhouette when the jacket was worn was confirmed, the portion of the waist near the bust and the curve on the back side were smoother than those in Photo 53. In addition, the position of the constriction on the back side is higher than that in Photo 53. As described above, although the shape of the silhouette is improved as compared with the case of wearing the 9S size garment, it can be seen that the tightness of the front body and the armpits is not eliminated with the 9M size garment. Next, a case where the same woman wears 9L size clothes having a bust size larger than 9M size will be described.

FIG. 24 shows an example in which a 9L size woman wears a 9L jacket. Photo 55 of FIG. 25 shows from the side an example in which the same woman wore a 9L jacket. First, refer to FIG. 24, in which a woman is photographed from the front. Looking at FIG. 24, it can be seen that the bust dimensions of the jacket are suitable for women, so that V-zones of appropriate and width are formed. In addition, the V zone line draws a gentle curve close to a straight line. Also, unlike when wearing the 9S and 9M jackets, when the buttons are fastened, radial wrinkles do not appear on the front body. In particular, in FIG. 24, the tightness around the bust is improved as compared with FIGS. 22 and 23.

Next, refer to Photo 55, which is a side view of the same woman. Looking at Photo 55, since the bust size of the jacket is suitable for women, wrinkles are reduced in the area between the bust and the side and near the waist. Also, when checking the silhouette when wearing the jacket, the position of the waist near the bust and the position of the constriction on the back side are appropriate, and it is a smooth and natural curve. It can be seen that the 9L jacket is suitable for the women in the photographs of FIGS. 22 to 25.

In the photographs of FIGS. 22 to 25, the same woman wears jackets of three garment sizes of 9S, 9M, and 9L. These three garment sizes correspond to the first size, the reference size and the second size in the same waist size, respectively. By using the above-mentioned design method, it is possible to provide jackets of three sizes having the same shoulder width, waist size, and hem circumference but different bust dimensions.

Comparing clothing sizes (for example, 9S, 9M, 9L described above) that have the same number but different alphabets, most of the dimensions (set nude dimensions of each part) are common, and some dimensions are common. Only (eg, bust and hip dimensions) are different. However, looking at the photographs of FIGS. 22 to 25 described above, the comfort of the entire garment is comfortable even when the garment dimensions do not fit only in a part of the body part (the bust dimension in the above description). It can be seen that the fit and silhouette have been affected. For example, the silhouette is affected on the back side away from the bust. Also, looking at wrinkles, it affects a wide range of areas such as the front body and sides. In order to provide each woman with clothes that are highly satisfying when worn, it is important to be able to prepare clothes that match the dimensions of individual parts of the body.

As described above, by using the information processing system according to the present embodiment, it is possible to provide clothes that match the uneven portions such as the bust, waist, and hips in the body shape of each woman. Each woman will be able to obtain clothing that is highly satisfying in terms of design beauty, comfort and fit. For example, it is possible to provide a garment in which a beautiful silhouette (for example, a smooth curved constriction) is formed when worn to make an individual woman look beautiful. In addition, since it is not necessary to significantly increase the number of clothes sizes, it is possible to reduce the cost of providing clothes and the period required to provide clothes. Further, it can be said that the information processing system according to the present embodiment has an advantage that it can provide clothes of a clothes size that is not bound by the "standard body shape" of a specific country / region.

Although some embodiments of the present invention have been described, these embodiments are presented as examples and are not intended to limit the scope of the invention, these embodiments are various other embodiments. It is possible to make various omissions, replacements, and changes without departing from the gist of the invention. These embodiments and modifications thereof are included in the scope and gist of the invention, as well as in the scope of the invention described in the claims and the equivalent scope thereof.

1 Information processing device 2 Server 3 Operation device 4 Display device 5 Network 6, 7 Information terminal 8 Sewing system 10 Calculation unit 11 Pattern generation unit 12 Ordering unit 13 Web server unit 14, 22 Storage unit 15 Input unit 16 Output unit 17, 20 Communication unit 21 Arithmetic control unit 23 Type insertion unit 30 Customer data 31 Fabric inventory data 32 Body type data 33 Order data 34 Option data 35 Pattern data 36 Correction pattern data 37 CAD program 38 Order program 39 EC site program 40 Correction pattern data 41 Type insertion Support program 42 Sewing data 43 Control program 50, 51, 52, 53, 54, 55 Photo 60, 61 Size chart 62 Table 63, 64, 65, 66 Darts 70, 71, 74, 75, 76, 77 Pattern 78, 79 York belt

Claims (10)

It is provided with an ordering unit that selects one of the clothes sizes from a plurality of clothes sizes based on the customer's body shape data and receives an order for the clothes of the selected clothes size.
The garment size defines at least a bust size, a waist size, and a hip size.
The garment size having each of the waist dimensions includes a reference size having a bust dimension of a first reference value and a hip dimension of a second reference value, a bust dimension smaller than the first reference value, and a second reference value. Only a first size with a small hip dimension and a second size with a bust dimension greater than the first reference value and a hip dimension greater than the second reference value are included.
The reference size corresponds to the reference pattern data showing a pattern for cutting the fabric for producing a garment having the bust dimension of the first reference value, the waist dimension and the hip dimension of the second reference value.
The first size is the first pattern data showing a pattern for cutting a fabric for producing a garment having a bust size smaller than the first reference value, a waist size, and a hip size smaller than the second reference value. It is compatible with
The second size is the second pattern data showing a pattern for cutting a fabric for producing a garment having a bust size larger than the first reference value, a waist size and a hip size larger than the second reference value. With correspondence ,
The standard size of each garment size is a size defined within the same body type classification in the Japanese Industrial Standards.
The difference between the bust size of the reference size and the bust size of the first size is approximately 3 cm, and the difference between the bust size of the second size and the bust size of the reference size is approximately 3 cm.
The difference between the hip dimension of the reference size and the hip dimension of the first size is approximately 3 cm, and the difference between the hip dimension of the second size and the hip dimension of the reference size is approximately 3 cm.
The bust size of the second size of each garment size is larger than the bust size of the first size of the garment size next to each garment size.
An information processing system in which the hip dimension of the second size of each garment size is larger than the hip dimension of the first size of the garment size next to each garment size. In the first size, the reference size, and the second size, the shoulder width, waist width, and hem circumference width are set to be substantially equal.
The information processing system according to claim 1. The folding width of the darts of the garment is increased in the order of the garment of the first size, the garment of the reference size, and the garment of the second size.
The information processing system according to any one of claims 1 and 2. Of the reference pattern data, the first pattern data, and the second pattern data, the pattern data of the garment size selected for the customer is corrected based on the body shape data, and the correction pattern data is generated. Equipped with a pattern generator,
The information processing system according to any one of claims 1 to 3. The pattern generation unit is based on the reference pattern data, the first pattern data, and the second pattern data, and is a reference corresponding to the reference size, the first size, and the second size in the garment size having other waist dimensions, respectively. The information processing system according to claim 4, which generates pattern data, first pattern data, and second pattern data. The correction includes changing at least one of the length, sleeve length, skirt length, and inseam length.
The information processing system according to claim 4 or 5. The correction pattern data is used to determine the cutting pattern of the fabric, and a patterning portion for generating sewing data is provided.
The information processing system according to claim 6. An arithmetic control unit for transmitting a control signal instructing the start of sewing of the garment based on the sewing data is provided.
The information processing system according to claim 7. A step of selecting one of the garment sizes from a plurality of garment sizes based on the customer's body shape data, and
It is an information processing method for causing a computer to execute a step of ordering clothes of the selected clothes size.
The garment size defines at least a bust size, a waist size, and a hip size.
The garment size having each of the waist dimensions includes a reference size having a bust dimension of a first reference value and a hip dimension of a second reference value, a bust dimension smaller than the first reference value, and a second reference value. Only a first size with a small hip dimension and a second size with a bust dimension greater than the first reference value and a hip dimension greater than the second reference value are included.
The reference size corresponds to the reference pattern data showing a pattern for cutting the fabric for producing a garment having the bust dimension of the first reference value, the waist dimension and the hip dimension of the second reference value.
The first size is the first pattern data showing a pattern for cutting a fabric for producing a garment having a bust size smaller than the first reference value, a waist size, and a hip size smaller than the second reference value. It is compatible with
The second size is the second pattern data showing a pattern for cutting a fabric for producing a garment having a bust size larger than the first reference value, a waist size and a hip size larger than the second reference value. With correspondence,
The standard size of each garment size is a size defined within the same body type classification in the Japanese Industrial Standards.
The difference between the bust size of the reference size and the bust size of the first size is approximately 3 cm, and the difference between the bust size of the second size and the bust size of the reference size is approximately 3 cm.
The difference between the hip dimension of the reference size and the hip dimension of the first size is approximately 3 cm, and the difference between the hip dimension of the second size and the hip dimension of the reference size is approximately 3 cm.
The bust size of the second size of each garment size is larger than the bust size of the first size of the garment size next to each garment size.
An information processing method in which the hip dimension of the second size of each garment size is larger than the hip dimension of the first size of the garment size next to each garment size. A step of selecting one of the garment sizes from a plurality of garment sizes based on the customer's body shape data, and
A program that causes a computer to execute a step of ordering clothes of the selected clothes size.
The garment size defines at least a bust size, a waist size, and a hip size.
The garment size having each of the waist dimensions includes a reference size having a bust dimension of a first reference value and a hip dimension of a second reference value, a bust dimension smaller than the first reference value, and a second reference value. Only a first size with a small hip dimension and a second size with a bust dimension greater than the first reference value and a hip dimension greater than the second reference value are included.
The reference size corresponds to the reference pattern data showing a pattern for cutting the fabric for producing a garment having the bust dimension of the first reference value, the waist dimension and the hip dimension of the second reference value.
The first size is the first pattern data showing a pattern for cutting a fabric for producing a garment having a bust size smaller than the first reference value, a waist size, and a hip size smaller than the second reference value. It is compatible with
The second size is the second pattern data showing a pattern for cutting a fabric for producing a garment having a bust size larger than the first reference value, a waist size and a hip size larger than the second reference value. With correspondence,
Ori
The standard size of each garment size is a size defined within the same body type classification in the Japanese Industrial Standards.
The difference between the bust size of the reference size and the bust size of the first size is approximately 3 cm, and the difference between the bust size of the second size and the bust size of the reference size is approximately 3 cm.
The difference between the hip dimension of the reference size and the hip dimension of the first size is approximately 3 cm, and the difference between the hip dimension of the second size and the hip dimension of the reference size is approximately 3 cm.
The bust size of the second size of each garment size is larger than the bust size of the first size of the garment size next to each garment size.
The second size hip dimension of each said garment size is a program larger than the first size hip dimension of the garment size next to each said garment size.

Images