TWI727315B - Try-on assistant device, system, and method - Google Patents

Abstract

A try-on assistant device is used to simulate a selected cloth, and the selected cloth includes a measurement area. The try-on assistant device includes a model suit, an airbag group, an inflating/deflating unit, and a control unit. The model suit includes a simulation part corresponding to the measurement area. The airbag group includes a plurality of airbags that are placed in the simulation part of the model suit. The inflating/deflating unit is configured to inflate or deflate the plurality of airbags separately. The control unit controls the inflating/deflating unit to inflate or deflate some or all of the plurality of airbags according to the inflating/deflating parameter, wherein the inflating parameter corresponds to the size information of the measurement area of the selected cloth.

Description

Try-on auxiliary device, system and method

The present invention relates to an auxiliary device, in particular to an auxiliary device, system and method for trying on apparel.

In the past, when consumers needed to buy apparel, they would usually go to physical stores to select and try on them to confirm whether the size or style of the apparel suits them. However, with the progress of the times and the prevalence of online shopping, consumers can shop online through computers or mobile devices (such as mobile phones or tablets) without going out, making shopping more time-saving and convenient.

The currently known online apparel shopping platforms generally provide pictures and sizes of apparel products for consumers to view. When consumers choose their favorite apparel products, they can directly place an order on the Internet. However, simply viewing pictures without actually trying them on, after consumers receive apparel products, they often experience inconsistent sizes, poor comfort, or unsatisfactory styles, resulting in high return rates and even shopping disputes.

In view of the above, in one embodiment, a try-on auxiliary device is provided for simulating the clothing to be tried on. The clothing to be tried on includes size parts. The try-on auxiliary device includes a model suit, an airbag set, an inflation unit, and a control unit. . The model suit includes simulated parts corresponding to the size parts. The airbag group includes a plurality of airbags, and these airbags are arranged on the simulated part of the model suit. The inflation and deflation unit is used to inflate and deflate multiple airbags respectively. The control unit controls the inflation and deflation unit to inflate and deflate part or all of the airbags according to the inflation and deflation parameters, wherein the inflation and deflation parameters correspond to the size information of the size part of the garment to be tried on.

In one embodiment, a try-on assistance system is provided for simulating apparel to be tried on. The apparel to be tried on includes size parts, and the try-on assistance system includes a try-on processing device and a try-on auxiliary device. The try-on processing device includes an input unit, a processing unit, and a first communication unit. The input unit receives a selection instruction corresponding to the clothing to be tried on. The processing unit is connected to the input unit and obtains size information of the size of the clothing to be tried on according to the selection instruction. The processing unit obtains the inflation and deflation parameters according to the size information, and the first communication unit is connected to the processing unit and outputs the inflation and deflation parameters. The try-on auxiliary device includes a model suit, an airbag group, an inflation unit, a second communication unit, and a control unit. The model suit includes a simulation part corresponding to the size part, and the airbag group includes a plurality of airbags. These airbags are set in the simulation of the model suit. The inflating and deflating unit is used to inflate and deflate multiple airbags respectively, the control unit is connected to the inflating and deflating unit and the second communication unit, and the second communication unit is communicatively connected to the first communication unit and receiving inflation and deflation parameters, The control unit controls the inflation and deflation unit to inflate and deflate part or all of the multiple airbags according to the inflation and deflation parameters.

In one embodiment, a try-on assistance method is provided to simulate clothing to be tried on. The clothing to be tried on includes size parts. The try-on assistance method includes: receiving a selection instruction corresponding to the clothing to be tried on, and according to the selection instruction Obtain the size information of the size part of the clothing to be tried on, obtain and output the inflation and deflation parameters according to the size information.

In summary, the embodiment of the present invention obtains the size information of the size part of the garment to be tried on and obtains the inflation and deflation parameters according to the size information, so as to inflate and deflate the airbag corresponding to the size part on the model suit according to the inflation and deflation parameters. The model clothes can simulate the size of the clothes that they want to try on, so consumers can actually feel the size and comfort of the clothes they want to try on by wearing the model clothes during the process of buying clothes on the Internet, thereby greatly reducing the size and comfort of the clothes they want to try on. In the event of inconsistent size, poor comfort, or unsatisfactory style, the product needs to be returned, so as to improve the efficiency and convenience of online shopping and avoid shopping disputes.

As shown in FIG. 1, the try-on assistance system 1 of the embodiment of the present invention is used to simulate the clothing to be tried on (hereinafter referred to as clothing A) selected by the consumer during the process of purchasing clothing on the Internet, so that the consumer does not need to go to the entity The store can also actually feel the size and comfort of clothing A. In some embodiments, the clothing A may be clothing (such as a shirt, vest, sweater or jacket, etc.), pants (such as jeans, suit pants, shorts, etc.), or clothing accessories (such as hats, gloves, socks, or shoes). Apparel A has multiple size parts. Taking Apparel A as clothing, the multiple sizes may include neck circumference, chest circumference, shoulders, waist circumference, upper arm circumference, lower arm circumference, wrists, cuffs, and elbows.

As shown in FIGS. 1 to 3, in this embodiment, the try-on assist system 1 includes a try-on assist device 10 and a try-on processing device 20. The try-on processing device 20 includes an input unit 21, a processing unit 22, and a first communication unit 23. The try-on auxiliary device 10 includes a model suit 11, a plurality of airbag groups 13, an inflation and deflation unit 14, a control unit 15, and a second Communication unit 16. The try-on auxiliary device 10 and the try-on processing device 20 can communicate with each other through the first communication unit 23 and the second communication unit 16 to transmit signals or data to each other. In some embodiments, the first communication unit 23 and the second communication unit 16 may be wireless communication modules, such as a WiFi module, an 802.11 module, a Bluetooth module, or a ZigBee module, etc., to wirelessly send and receive signals or data. Or, in another embodiment, the first communication unit 23 and the second communication unit 16 may also be a wired communication module, such as a human-machine transmission interface (HID Interface) or a USB interface (Universal Serial Bus), etc., through The line sends and receives signals or data.

As shown in FIG. 2, the model clothes 11 of the try-on auxiliary device 10 are clothes, trousers or clothing accessories corresponding to the clothes A, which are used to simulate the size of the clothes A. The model clothing 11 of this embodiment is an example of clothing, wherein the model clothing 11 has at least one simulation part 12 corresponding to the size part of the clothing A. In this embodiment, the model suit 11 includes a plurality of simulation parts 12 corresponding to the neck circumference, upper arm, chest circumference, waist circumference, and cuffs of the clothing A, but this is not limited. The number of simulation parts 12 of the model suit 11 Or the location can be adjusted according to actual needs. In some embodiments, the material of the model suit 11 may be elastic cloth or stretchable cloth, such as nylon, polyester, rayon or spandex.

Please refer to FIG. 2 and FIG. 4, each simulation part 12 of the try-on auxiliary device 10 is provided with an airbag group 13, and each airbag group 13 includes a plurality of airbags 131, and a plurality of airbags 131 of each airbag group 13 are provided In the corresponding simulation part 12. In some embodiments, as shown in FIGS. 4 to 6, it is a cross-sectional view (ie, a 4-4 cross-sectional view) of the simulated part 12 of the model suit 11 in FIG. 2 corresponding to the waist circumference of the apparel A. Here, the airbag set 13 includes four There are two airbags 131, and the cross section of each airbag 131 is elongated, but it can also have other shapes. The model suit 11 has an outer layer of cloth 111 and an inner layer of cloth 112. Four airbags 131 are fixed between the outer layer of cloth 111 and the inner layer of cloth 112, such as by sewing, adhesion or hot pressing, etc., and the four airbags 131 are kept at a distance from each other. Without touching each other. However, the above embodiments are only examples. The number of airbags 131 in each airbag group 13 can be adjusted according to actual needs, and the airbags 131 of the airbag group 13 can be arranged according to actual application conditions. The arrangement can be straight, curved, or circular. Shape or spiral, etc.

As shown in Figures 1 and 2, the inflating and deflating unit 14 of the try-on auxiliary device 10 is connected to the control unit 15, and the control unit 15 can control the inflating and deflating unit 14 to perform separate operations on part or all of the airbags 131 of each airbag group 13 Inflate and deflate. For example, the inflating and discharging unit 14 may be an air pump and connected to the airbags 131 of each airbag group 13 through a plurality of air pipes 141 (as shown in FIG. 2, the air pipes 141 are shown by dashed lines here). The control unit 15 can be a controller, and the control unit 15 can control the inflating and discharging amount or the inflating and discharging time of the inflating and discharging unit 14 to adjust the degree of inflation of the airbags 131 of each airbag group 13. In some embodiments, the inflation and deflation unit 14 and the control unit 15 may be fixed on the outside or inside of the model suit 11.

As shown in FIGS. 1 and 3, in some embodiments, the try-on processing device 20 may be a notebook computer, a desktop computer, or other mobile communication devices. For example, the mobile communication device may be a smart phone, a tablet computer, or a personal computer. Personal digital assistant, the try-on processing device 20 of this embodiment is an example of a notebook computer, but this is not limited. Consumers can connect to the Internet through the try-on processing device 20 to select favorite apparel A from the online shopping platform.

As shown in FIGS. 1 and 3, the input unit 21 of the try-on processing device 20 may be a user interface for consumers to input commands. Taking the try-on processing device 20 as a notebook computer as an example, the input unit 21 can be a graphical user interface (Graphical User Interface), and consumers can select clothing A on the online shopping platform through the input unit 21 (as shown in Figure 3). Here, the consumer selects a piece of apparel A), for example, through a mouse click, keyboard input, or touch operation to perform a selection action, so that the input unit 21 receives a selection instruction C corresponding to the apparel A.

As shown in FIGS. 1 and 3, the processing unit 22 of the try-on processing device 20 can be a central processing unit (CPU), a microcontroller (Micro Control Unit, MCU) or a microprocessor with logic computing capabilities. (Micro Processing Unit, MPU). The processing unit 22 is connected to the input unit 21 and the first communication unit 23. The processing unit 22 can obtain various sizes of clothing A (such as neck circumference, chest circumference, shoulders, waist circumference, arm circumference, upper arm, lower arm, The size information of the wrist, elbow, etc.), and the processing unit 22 further obtains at least one inflation and deflation parameter P according to the size information of each size of the apparel A, and transmits the inflation and deflation parameters through the first communication unit 23 P is output to the try-on assist device 10. In other words, the inflation and deflation parameter P corresponds to the size information of each size part of the garment A, and the control unit 15 of the try-on auxiliary device 10 can control the inflation and deflation unit 14 to control the airbags of each airbag group 13 according to the inflation and deflation parameters P. 131 respectively inflate and deflate, so that the model suit 11 can simulate the size of each size part of the apparel A. This further example is described in detail as follows.

For example, as shown in FIGS. 1 to 3, the consumer can wear a model suit 11 in advance (the model suit 11 in this example is a long-sleeved suit) during the process of selecting the suit A from the online shopping platform through the try-on processing device 20. Tops), when the consumer selects the clothing A he likes, he can perform a selection action through the input unit 21 (showing that clothing A is selected as shown in FIG. 3) to generate a selection instruction C corresponding to the clothing A. Next, as shown in FIG. 7, the processing unit 22 may execute steps S01 to S03. First, step S01 can be performed: receiving a selection instruction C corresponding to the apparel A. Please refer to FIG. 1. The processing unit 22 is connected to the input unit 21 to receive the selection instruction C received by the input unit 21.

As shown in FIG. 7, after step S01, step S02 can be executed: according to the selection command C, the size information of each size part of the garment A is obtained. For example, if the size of the clothing A selected by the consumer is M, the corresponding size information may include chest width of 102cm, shoulder width of 45cm, waist circumference of 63cm, collar circumference of 38cm, sleeve length of 60cm, and sleeve width of 16cm, etc. . Assuming that the size of the clothing A selected by the consumer is L, the corresponding size information may include chest width of 104cm, shoulder width of 47cm, waist circumference of 65cm, collar circumference of 40cm, sleeve length of 62cm, and sleeve width of 18cm. In some embodiments, the processing unit 22 can learn the clothing A selected by the consumer according to the selection command C, so as to obtain the size information of each size part of the clothing A from the database of the merchant through the Internet, or try on the processing device 20 may also have a built-in clothing database (not shown in the figure), and the processing unit 22 can directly obtain the size information of each size part of clothing A from the clothing database.

As shown in Fig. 7, after step S02, step S03 can be executed: obtain and output the inflation and deflation parameters P according to the size information, where the inflation and deflation parameters P correspond to the airbag group 13 on each simulation part 12 of the model suit 11. The degree of inflation. For example, the try-on processing device 20 may have a built-in database, and the database may store the inflation and deflation parameters P corresponding to different size information. Please refer to Figure 1 and the following table 1. Take the waist circumference as an example. Assuming that each airbag 131 of the airbag group 13 of the model suit 11 is fully inflated, the corresponding inflation degree is 100%. The inflation and deflation parameter P of the airbag group 13 corresponding to a waist circumference of 65cm can be 50%. The inflation and deflation parameter P of the airbag group 13 corresponding to 63 cm can be 60% of the inflation degree, the inflation parameter P of the airbag group 13 corresponding to the waist circumference of 61 cm can be 70%, and so on. Or, assuming that the inflation time required for each airbag 131 of the airbag group 13 of the model suit 11 to be fully inflated is 10 seconds, the inflation and deflation parameter P of the airbag group 13 corresponding to the waist circumference of 65cm can be the inflation time of 5 seconds, and the waist circumference is about 63cm. The inflation and deflation parameter P of the corresponding airbag group 13 can be 6 seconds, the inflation and deflation parameter P of the airbag group 13 corresponding to a waist circumference of 61 cm can be 7 seconds, and so on. That is to say, the smaller the size information of each size part of the apparel A, the larger the inflation and deflation parameter P, so as to drive the airbags 131 of the simulation part 12 corresponding to each size part of the model suit 11 to be more inflated. The processing unit 22 can output a plurality of inflation and deflation parameters P corresponding to the size information of each size part of the apparel A, and output to the try-on auxiliary device 10 via the first communication unit 23. Table I size Waist circumference Degree of inflation Inflation time L 65cm 50% 5 seconds M 63cm 60% 6 seconds S 61cm 70% 7 seconds

In some embodiments, a computer program product may be installed in the try-on processing device 20, and the processing unit 22 may load the computer program product to execute the above steps S01 to S03. For example, the computer program product may be stored in Computer-readable storage media (such as USB or memory card) applications or computer program products can also be applications downloaded from Internet platforms (such as the App Store of Apple Inc.).

As shown in FIGS. 1 to 3, during the first try-on, the try-on auxiliary device 10 can receive the inflation and deflation parameters P output by the first communication unit 23 through the second communication unit 16. Then, the control unit 15 controls the inflation and deflation unit 14 corresponding to the multiple inflation and deflation parameters P to inflate each airbag 131 of the airbag group 13 of each simulation part 12 on the model suit 11 to inflate each airbag 131 to the corresponding The degree of inflation is to simulate the size of apparel A. For example, please refer to Figure 4 and Table 1 above. Take the simulated part 12 corresponding to the waist size of apparel A as an example. When the size of apparel A selected by the consumer is L, the control unit 15 can control The inflation and deflation unit 14 inflates the airbags 131 of the airbag group 13 of the simulation part 12 (for example, the inflation time is 5 seconds), so that the inflation degree of each airbag 131 is gradually expanded from 0% (as shown in FIG. 4) to 50 % (As shown in Figure 5) to adjust the tightness of the simulated part 12 to correspond to the tightness of the waist size part of clothing A of size L. If the size of the clothing A selected by the consumer is M, the control unit 15 controls the inflation and deflation unit 14 to inflate the airbags 131 of the airbag group 13 of the simulation part 12 (for example, the inflation time is 6 seconds), so that each airbag The degree of inflation of 131 is gradually expanded from 0% (as shown in Figure 4) to 60% (as shown in Figure 6) to increase the tightness of the simulated part 12 and correspond to the tightness of the waist size of clothing A of size M . The airbag set 13 on the simulated part 12 corresponding to the other size parts of the clothing A (such as neck circumference, upper arm, chest circumference) of the model suit 11 is also inflated and deflated according to the above method, which will not be repeated here. In some embodiments, the control unit 15 can also control the inflating and discharging unit 14 to inflate a part of the airbags 131 of the airbag group 13 of the simulation part 12, which is not limited.

In addition, the control unit 15 of the try-on auxiliary device 10 can simultaneously record the inflation result information of the inflation and deflation unit 14 (for example, the inflation degree or the inflation time of the airbag set 13). The processing unit 22 of the try-on processing device 20 can obtain another size information of the size part of the garment A according to another selection command C', and the processing unit 22 can obtain the control unit 15 through the first communication unit 23 and the second communication unit 16 According to the inflation result information and another size information, a new inflation and deflation parameter P'is retrieved, and sent to the second communication unit 16 via the first communication unit 23, so that the control unit 15 is based on the new inflation The deflation parameter P′ controls the inflation and deflation unit 14 to inflate or deflate each air bag 131 again.

For example, please refer to Figures 1 to 6 and Table 1 above. When a consumer tries on for the first time, for example, the size of the clothing A selected by the consumer is M, the control unit 15 controls the charging and discharging unit 14 to pair Each airbag 131 of the airbag group 13 of each simulation part 12 is inflated (for example, the inflation time is 6 seconds), so that the inflation degree of each airbag 131 is gradually expanded from 0% (as shown in Figure 4) to 60% (as shown in Figure 5). At this time, the control unit 15 can record the inflation result information (for example, the inflation time is 6 seconds or the inflation degree is 60%). When a consumer wants to change to clothing A with size L, the processing unit 22 obtains the inflation result information recorded by the control unit 15 through the first communication unit 23 and the second communication unit 16, and the processing unit 22 compares the inflation result information with The inflation information of size L (Table 1 shows that the inflation time is 5 seconds or the inflation degree is 50%) is calculated to generate a new inflation and deflation parameter P'(that is, the inflation degree is reduced by 10% or the deflation time is 1 second), and It is transmitted to the second communication unit 16 via the first communication unit 23, and the control unit 15 can control the inflating and deflating unit 14 to deflate each airbag 131 of the airbag group 13 of each simulation part 12 according to the new inflation and deflation parameter P' (For example, deflate for 1 second) to reduce the degree of inflation of each airbag 131 from 60% to 50% to correspond to the tightness of clothing A of size L. In the same way, when the consumer wants to change to clothing A of size S, the processing unit 22 calculates the inflation result information and the inflation information of size S (Table 1 shows that the inflation time is 7 seconds or the inflation level is 70%). In order to generate a new inflation and deflation parameter P'(that is, increase the inflation degree by 10% or the inflation time by 1 second), and transmit it to the second communication unit 16 through the first communication unit 23, and the control unit 15 can then inflate and deflate according to the new inflation and deflation parameters. The parameter P'controls the inflation and deflation unit 14 to inflate each airbag 131 of the airbag group 13 of each simulation part 12 again (for example, inflate for 1 second) to increase the inflation degree of each airbag 131 from 60% to 70% to correspond to the size S The tightness of clothing A. After the try-on is over, the control unit 15 can control the inflation and deflation unit 14 to deflate each airbag group 13 to an inflation degree of 0% for the next try-on.

In addition, in another embodiment of the present invention, the control unit 15 may operate normally without recording the inflation result information. After the user completes the selection action, the control unit 15 can first control the inflation and deflation unit 14 to adjust the inflation degree of each airbag group 13 to a preset inflation value (for example, each airbag group 13 can be deflated to an inflation degree of 0% Or both are adjusted to 10%), the processing unit 22 can obtain the inflation and deflation parameter P only according to the size information corresponding to the selected command C and the preset inflation value, and the control unit 15 then controls the inflation and deflation unit 14 according to the inflation and deflation parameter P. Each airbag 131 of each airbag group 13 is inflated and deflated.

In this way, consumers can actually feel the size and comfort of clothing A by wearing the model clothing 11 during the process of purchasing clothing on the Internet, thereby greatly reducing the size and comfort of the consumers after purchase. If you are satisfied and need to return the goods, you can improve the efficiency and convenience of online shopping and avoid shopping disputes.

、材質參數M=

及版型參數V=

。該些n×n的矩陣可以預先建立，亦可根據使用者需求即時計算產生。根據使用者所選擇的尺碼、材質及版型，處理單元22對應取出或計算出尺寸資訊S、材質參數M及版型參數V，然後處理單元22根據該些參數計算出充放氣參數P，控制單元15再根據充放氣參數P控制充放氣單元14對各氣囊組13分別進行充放氣。However, clothing A of the same size, if the material (such as cotton, yarn, linen, rayon, polyester or elastic fiber, etc.) or version (wide version, narrow version, long version or short version) is different, the actual The tightness or comfort of the try-on will also vary. Therefore, in another embodiment of the present invention, the processing unit 22 of the try-on processing device 20 may further obtain the inflation and deflation parameters according to the material parameter, the version parameter, or the two parameters of the apparel A, in conjunction with the size information of the apparel A P, so that the degree of inflation of each airbag 131 of the airbag group 13 of the subsequent model suit 11 can be further applied to clothing A of different materials or versions, so as to further improve the simulation degree of the model suit 11. In some embodiments, the size information, material parameters, and layout parameters can be converted into a matrix of n×n according to the arrangement of the airbags 131, where n corresponds to the number of airbags 131, which can be expressed as size information S=

, Material parameter M=

And version parameter V=

. These n×n matrices can be created in advance, or calculated in real time according to user needs. According to the size, material, and version selected by the user, the processing unit 22 correspondingly retrieves or calculates the size information S, the material parameter M, and the version parameter V, and then the processing unit 22 calculates the inflation and deflation parameters P according to these parameters. The control unit 15 then controls the inflation and deflation unit 14 according to the inflation and deflation parameters P to inflate and deflate each airbag group 13 respectively.

M S_M =

S Ss=

表3 材質 材質參數 棉 M_cot =

麻 M_si =

彈性纖維 M_op =

表4 版型 版型參數 一般版 V_nml =

窄版 V_nar =

寬版 V_wid =

Taking Figure 4, Figure 5 and Figure 6 as an example, the airbag group 13 has 4 airbags 131, so n is 4, and the airbags 131 are arranged in a ring shape. The size information S, the material parameter M, and the version parameter V can be separately It is converted into a 4×4 matrix, as shown in Table 2, Table 3, and Table 4 below. In order to simplify the description, the following embodiments take a diagonal matrix as an example, and the present invention is not limited thereto. Table 2 size Size information L S _L =

M S _M =

S Ss=

table 3 Material Material parameters cotton M _cot =

hemp M _si =

Elastic fiber M _op =

Table 4 Edition type Version parameters General edition V _nml =

Narrow version V _nar =

Wide version V _wid =

；控制單元15再根據充放氣參數P控制充放氣單元14對氣囊組13進行充氣，亦即分別將四個氣囊131充氣到67.9%、65.8%、68.6%及66.5%的充氣程度。Please refer to Figure 1 to Figure 6 and Table 2 to Table 4. When the size of the clothing A selected by the user is S, the material is cotton, and the version is the normal version, the processing unit 22 depends on the size, material and version selected by the user Type and other information corresponding to the size information S _s , the material parameter M _cot and the version parameter V _nml ; then, the processing unit 22 calculates the charging and discharging parameters P=S _s *M _cot *V _nml =

The control unit 15 then controls the inflation and deflation unit 14 to inflate the airbag group 13 according to the inflation and deflation parameters P, that is, the four airbags 131 are inflated to 67.9%, 65.8%, 68.6%, and 66.5% respectively.

In some embodiments, the same simulation part 12 of the model suit 11 may be provided with more than two airbag groups 13. As shown in FIG. 9, in this embodiment, the model suit 11 is provided with two airbag groups 13, 13' corresponding to the simulation part 12 of the cuff part of the apparel A, and the airbag groups 13 and 13' are respectively arranged at the simulation part 12 In different positions, the airbag group 13' is closer to the edge of the cuff relative to the airbag group 13. The control unit 15 may further selectively control the inflation and deflation unit 14 to inflate and deflate the airbag group 13 or another airbag group 13' according to the inflation and deflation parameters P. For example, assuming that the sleeve length of clothing A of size L is greater than the sleeve length of clothing A of size M, when the consumer selects clothing A of size L, the control unit 15 controls the inflation and deflation unit 14 to perform the airbag set 13' Inflate and deflate. When the consumer chooses clothing A of size M, the control unit 15 controls the inflation and deflation unit 14 to inflate and deflate the airbag set 13, so that the consumer can further feel the difference in sleeve length, and the improvement will be further improved. The simulation level of model server 11.

In some embodiments, the inner surface 132 of at least one of the airbags 131 of each airbag group 13 on the model suit 11 may be provided with a pressure sensor 17. As shown in Figures 4 to 6, in this embodiment, the inner surface 132 of each airbag 131 of each airbag group 13 is provided with a pressure sensor 17 for sensing the gap between the consumer’s skin and each airbag 131 The pressure of the conflict produces a pressure sensing value. In one embodiment, the control unit 15 of the try-on assist device 10 controls the inflating and deflating unit 14 to stop inflating and deflating the airbag 131 when the pressure sensing value is greater than a threshold, so as to prevent the consumer from being exposed to the airbag 131. Excessive squeezing and discomfort. Alternatively, in another embodiment, the second communication unit 16 of the try-on auxiliary device 10 can be connected to each pressure sensor 17 to output the pressure sensing value to the first communication unit 23 of the try-on processing device 20, When the pressure sensing value is greater than the threshold value, the processing unit 22 outputs a stop signal S to the second communication unit 16 via the first communication unit 23, and the control unit 15 of the try-on auxiliary device 10 controls the charging and discharging unit 14 according to the stop signal S Stop inflating and deflating the airbag 131, thereby reducing the data calculation amount of the control unit 15.

In some embodiments, as shown in FIG. 8, after step S03, the processing unit 22 of the try-on processing device 20 may further execute steps S04 and S05. The step S04 is: receiving the pressure sensing value and controlling the display unit 24 to display pressure information according to the pressure sensing value. Please refer to FIG. 3, the try-on processing device 20 may include a display unit 24 connected to the processing unit 22, where the display unit 24 is a display screen, and the processing unit 22 can control the display unit 24 to display pressure information according to the pressure sensing value . For example, the display unit 24 can display the pressure sensing value of each simulated part 12 through text, so that the consumer can further know whether the size is suitable from the pressure sensing value displayed on the display unit 24.

In an embodiment, the processing unit 22 may also control the display unit 24 to display the aforementioned pressure information in the form of colors, patterns or graphics. As shown in FIG. 10, in this embodiment, the pressure information displayed by the processing unit 22 controlled by the display unit 24 includes the virtual portrait V and the pressure distribution information D1 to D5 on the virtual portrait V. In some embodiments, the virtual portrait V includes a front portrait V1, a side portrait V2, or/and a back portrait V3 of the consumer. The display unit 24 of this embodiment simultaneously displays the front portrait V1, the side portrait V2, and the back portrait V3 of the consumer. The pressure distribution information D1 to D5 are expressed in the form of dots, and the pressure distribution information D1, D2, D3, D4, and D5 are respectively Corresponding to consumers' neck circumference, arm circumference, chest circumference, waist circumference and wrist circumference, the density of the outlets represents the size of the pressure (for example, the sparser outlets represent the lower the pressure, and the denser the outlets represent the greater the pressure), In this picture, it is shown that the pressure on the neck circumference and arm circumference of the consumer is greater than the pressure on the chest circumference, waist circumference and wrist circumference. In this way, the embodiment of the present invention presents pressure information in a visual manner, so that consumers can quickly determine the suitability of clothing. In other embodiments, the pressure distribution information D1 to D5 can also indicate the magnitude of the pressure received through different colors, which is not limited in this embodiment. In addition, the processing unit 22 may further recommend the consumer's appropriate clothing size A based on the pressure sensing values sensed by the pressure sensors 17.

As shown in FIG. 8 again, after step S04, step S05 can be performed: according to the selection instruction C, the display unit 24 is controlled to display the try-on image T. As shown in FIG. 11, in this embodiment, the processing unit 22 controls the display unit 24 to display the try-on image T including a virtual portrait V and a virtual costume F located on the virtual portrait V, and the virtual costume F corresponds to the costume A. In some embodiments, the virtual portrait V includes a front portrait V1, a side portrait V2 or/and a back portrait V3 corresponding to the appearance of the consumer; the virtual clothing F includes a front image F1, a silhouette image F2, or/and a back image F3 of the clothing A . For example, please refer to Figure 3 and Figure 11. Here, the clothing A selected by the consumer is a long-sleeved top, and the virtual clothing F is a long-sleeved top corresponding to the clothing A. Through Augmented Reality (AR) The front image F1, the side image F2, and the back image F3 are superimposed on the front portrait V1, the side portrait V2, and the back portrait V3, respectively, so that consumers can further watch the appearance of the clothing A actually tried on from the display unit 24 , To determine whether the style of clothing A is appropriate. In some embodiments, the above-mentioned try-on image T and pressure information may be displayed on the display unit 24 at the same time (for example, displayed on a split screen), so as to provide consumers as a reference at the same time.

It should be noted that although the steps described above are described in order, this order is not a limitation of the present invention. Those familiar with the relevant art should understand that the order of execution of some steps can be performed simultaneously or reversed under reasonable circumstances. For example, step S04 and step S05 can be performed simultaneously or step S04 can be performed after step S05.

In some embodiments, the processing unit 22 can generate the virtual portrait V of the try-on image T in a variety of ways and control the display unit 24 to display it. As shown in FIG. 3, in this embodiment, the try-on processing device 20 includes an image capturing unit 25, where the image capturing unit 25 is a video lens of a notebook computer, but can also be other cameras (such as webcams). ). The image capturing unit 25 is used for shooting consumers to obtain user images. The processing unit 22 is connected to the image capturing unit 25 and generates a virtual portrait V corresponding to the consumer based on the user image. Alternatively, in another embodiment, the processing unit 22 can also generate a virtual portrait V corresponding to the consumer based on the user's personal information (such as the height, weight or photo of the consumer) and control the display unit 24 to display it.

Although the technical content of the present invention has been disclosed in the preferred embodiments as above, it is not intended to limit the present invention. Anyone who is familiar with this technique and makes some changes and modifications without departing from the spirit of the present invention should be covered by the present invention. Therefore, the scope of protection of the present invention shall be subject to the scope of the attached patent application.

1: Try-on assistance system A: Clothing 10: Try on auxiliary devices 11: Model clothes 111: Outer fabric 112: inner cloth 12: Simulated parts 13, 13': airbag group 131: Airbag 132: inner surface 14: Charging and discharging unit 141: Gas pipeline 15: control unit 16: The second communication unit 17: Pressure sensor 20: Try on the processing device 21: Input unit 22: processing unit 23: The first communication unit 24: display unit 25: Image capture unit P, P': inflation and deflation parameters C, C': select command S: Stop signal T: Try on images V: virtual portrait V1: Frontal portrait V2: profile portrait V3: Back portrait D1～D5: Pressure distribution information F: Virtual clothing F1: Front image F2: Silhouette F3: Back image S01～S05: Step

[Figure 1] is a system block diagram of an embodiment of the try-on assist system of the present invention. [Figure 2] is a plan view of an embodiment of the try-on assisting device of the present invention. [Figure 3] is a schematic diagram of the use of an embodiment of the try-on assist system of the present invention. [Figure 4] is a cross-sectional view of an embodiment of the try-on assisting device of the present invention. [Figure 5] is a schematic diagram of inflation of an embodiment of the try-on assisting device of the present invention. [Figure 6] is a schematic diagram of inflation of another embodiment of the try-on assist device of the present invention. [Fig. 7] It is a flowchart of the steps of an embodiment of the try-on assisting method of the present invention. [Figure 8] is a flowchart of another embodiment of the try-on assisting method of the present invention. [Figure 9] is a plan view of another embodiment of the try-on assisting device of the present invention. [Figure 10] is a schematic diagram showing an embodiment of the try-on processing device of the present invention. [Fig. 11] is a schematic diagram showing another embodiment of the try-on processing device of the present invention.

1: Try-on assistance system

10: Try on auxiliary devices

11: Model clothes

13: Airbag group

14: Charging and discharging unit

15: control unit

16: The second communication unit

20: Try on the processing device

21: Input unit

22: processing unit

23: The first communication unit

P, P': inflation and deflation parameters

C, C': select command

S: Stop signal

Claims (17)

A try-on auxiliary device for simulating a garment to be tried on, the garment to be tried on includes a size part, and the try-on auxiliary device includes: a model suit including a simulated part corresponding to the size part; and an airbag set , Including a plurality of airbags, the airbags are arranged in the simulation part of the model suit; an inflation and deflation unit for respectively inflating and deflating the airbags; and a control unit for controlling the airbags according to an inflation and deflation parameter The inflation and deflation unit inflates and deflates part or all of the airbags, wherein the inflation and deflation parameters correspond to the size information of the size part of the garment to be tried on, so that the simulated part of the model suit simulates the desired size. Try on that size part of the dress. The try-on assisting device according to claim 1, wherein the inflation and deflation parameters correspond to an inflation result information. The try-on auxiliary device according to claim 1, wherein the inflation and deflation parameters correspond to a material parameter, a layout parameter, or a combination thereof. The try-on assisting device according to claim 1, further comprising another airbag group, the other airbag group and the airbag group are respectively arranged at different positions of the simulation part, and the control unit is selected according to the inflation and deflation parameters The inflating and deflating unit is controlled sexually to inflate and deflate the airbag group or the other airbag group. The try-on assisting device according to claim 1, further comprising a pressure sensor disposed on one of the inner surfaces of at least one of the airbags, and the pressure sensor outputs a pressure sensing value. The try-on auxiliary device according to claim 5, wherein the control unit controls the inflating and deflating unit to stop inflating and deflating the airbags when the pressure sensing value is greater than a threshold value. A try-on assist system is used to simulate a garment to be tried on. The garment to be tried on includes a size part. The try-on assist system includes: a try-on processing device, including an input unit, a processing unit, and a first A communication unit, the input unit receives a selection instruction corresponding to the garment to be tried on, the processing unit is connected to the input unit and obtains a size information of the size part of the garment to be tried on according to the selection instruction, the processing unit according to The size information obtains an inflation and deflation parameter, the first communication unit is connected to the processing unit and outputs the inflation and deflation parameter; and a try-on auxiliary device, including a model suit, an airbag set, an inflation and deflation unit, A control unit and a second communication unit, the model suit includes a simulation part corresponding to the size part, the airbag set includes a plurality of airbags, the airbags are arranged on the simulation part of the model suit, the inflation and deflation unit Used to inflate and deflate the airbags respectively, the control unit is connected to the inflation and deflation unit and the second communication unit, and the second communication unit is communicatively connected to the first communication unit and receives the inflation and deflation parameters; The control unit controls the inflating and deflating unit to inflate and deflate part or all of the airbags according to the inflation and deflation parameters; wherein the try-on auxiliary device further includes a pressure sensor, the pressure sensor being arranged on the On an inner surface of at least one of the airbags, the pressure sensor outputs a pressure sensing value, the try-on processing device further includes a display unit connected to the processing unit, the processing unit according to the pressure The sensing value controls the display unit to display pressure information, the pressure information including a virtual portrait and a pressure distribution information on the virtual portrait. The try-on assistance system according to claim 7, wherein the processing unit obtains an inflation result information of the airbag group through the first communication unit and the second communication unit, and the processing unit is based on the inflation result information and the size information Obtain the inflation and deflation parameters. The try-on assistance system according to claim 7, wherein the processing unit further controls the display unit to display a try-on image, the try-on image includes the virtual portrait and a virtual costume on the virtual portrait, and the virtual costume corresponds to For the clothing to be tried on, the try-on image further includes a front image, a back image, and a silhouette image of the virtual clothing. The try-on assistance system according to claim 7, wherein the processing unit further obtains the inflation and deflation parameters according to a material parameter, a layout parameter, or a combination thereof. The try-on assist system according to claim 7, further comprising another airbag group, the other airbag group and the airbag group are respectively arranged at different positions of the simulation part, and the control unit is controlled according to the inflation and deflation parameters The inflating and deflating unit inflates and deflates the airbag group or the other airbag group. The try-on assistance system according to claim 7, wherein the second communication unit is connected to the pressure sensor and outputs the pressure sensing value to the first communication unit, and the processing unit is greater than one When the threshold is set, a stop signal is output to the second communication unit through the first communication unit, and the control unit controls the inflating and deflating unit to stop inflating and deflating the airbags according to the stop signal. A try-on auxiliary method is used to simulate a garment to be tried on, the garment to be tried on includes a size part, and the auxiliary method for try-on includes: receiving a selection instruction corresponding to one of the garments to be tried on; and obtaining the garment according to the selection instruction The size information of one of the parts of the size you want to try on; Obtaining and outputting an inflation and deflation parameter based on the size information; and receiving a pressure sensing value and controlling a display unit to display pressure information based on the pressure sensing value. The pressure information includes a virtual portrait and a location on the virtual portrait. A pressure distribution information. The try-on auxiliary method according to claim 13, further comprising: obtaining and outputting the inflation and deflation parameters according to an inflation result information. The try-on assistance method according to claim 13, further comprising: obtaining and outputting the inflation and deflation parameters according to a material parameter, a layout parameter, or a combination thereof. The try-on assistance method according to claim 13, further comprising: controlling the display unit to display a try-on image according to the selection instruction, the try-on image including the virtual portrait and a virtual garment on the virtual portrait, the virtual The costume corresponds to the costume to be tried on, and the try-on image further includes a front image, a back image, and a silhouette image of the virtual costume. The try-on assist method according to claim 13, further comprising: when the pressure sensing value is greater than a threshold, the control unit controls the inflating and deflating unit to stop inflating and deflating the airbags according to a stop signal.

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