Remote 3D clothing intelligent customization system based on virtual reality

Abstract

The invention discloses a remote 3D clothing intelligent customization system based on virtual reality, which comprises a customization primary selection module, a try-on experience simulation analysis module and a try-on experience simulation module, and is characterized in that the customization primary selection module is used for primarily selecting and screening customized clothing styles and categories according to the body type of a customer and customer selection; the try-on experience simulation analysis module is used for analyzing the stress condition of the body parts of the customer after try-on, and the try-on experience simulation module is used for simulating the garment wearing experience feelings under different body postures after real try-on according to the analysis result of the try-on experience simulation analysis module. The customization primary selection module is electrically connected with the try-on experience simulation analysis module, the try-on experience simulation analysis module is electrically connected with the try-on experience simulation module, and the system has the characteristics of real try-on experience and personalized optimization design.

Description

Technical Field

[0001] This invention relates to the field of virtual reality technology, specifically to a remote 3D clothing intelligent customization system based on virtual reality. Background Technology

[0002] With the rapid development of technology and the increasing personalization of consumer demands, traditional clothing customization methods can no longer meet the needs of modern society. Traditional clothing customization usually requires customers to come to the store in person to try on clothes and take measurements, and then have a professional tailor customize the garment according to the customer's body shape and preferences. This method is not only inefficient but also costly and difficult to adapt to the fast-paced modern life.

[0003] In recent years, with the continuous development of computer graphics, virtual reality (VR) technology, and artificial intelligence (AI), remote 3D clothing customization technology has gradually emerged. Existing remote 3D clothing customization systems typically utilize 3D scanning technology to acquire the customer's body shape data, and then use software to match the 3D model of the clothing with the customer's body shape data to generate a clothing model that fits the customer's body shape. However, existing remote 3D clothing customization systems often lack a realistic try-on experience. Although the system can generate a clothing model that fits the customer's body shape, the customer cannot intuitively feel the overall feeling of wearing the clothing, especially when the customer is making large-scale body movements while wearing the clothing; the customer cannot know whether the customized clothing will restrict or affect their movements. Therefore, it is necessary to design a virtual reality-based remote 3D clothing intelligent customization system that provides a realistic try-on experience and allows for personalized optimization. Summary of the Invention

[0004] The purpose of this invention is to provide a remote 3D intelligent clothing customization system based on virtual reality to solve the problems mentioned in the background art.

[0005] To address the aforementioned technical problems, this invention provides the following technical solution: a remote 3D intelligent clothing customization system based on virtual reality, comprising a customization preliminary selection module, a fitting experience simulation analysis module, and a fitting experience simulation module. The customization preliminary selection module is used to initially select and customize clothing styles and categories based on the customer's body type and the customer's chosen style. The fitting experience simulation analysis module is used to analyze the stress on the customer's body parts after fitting the clothing. The fitting experience simulation module is used to simulate the wearing experience of the clothing under different body postures after a real fitting, based on the analysis results of the fitting experience simulation analysis module. The customization preliminary selection module is electrically connected to the fitting experience simulation analysis module, and the fitting experience simulation analysis module is electrically connected to the fitting experience simulation module.

[0006] According to the above technical solution, the customized initial selection module includes a 3D scanning module, an information input module, a clothing style database, and a clothing fabric database. The 3D scanning module is used to perform 3D scanning of the customer's body shape and input the customer's body shape data. The information input module is used for the customer to input relevant body shape data and relevant requirements for customized clothing, and to calibrate and filter the clothing selection range. The clothing style database is used to collect and record all clothing styles within the scope of accepted customized transactions for the customer to choose from. The clothing fabric database is used to collect and record all clothing fabrics within the scope of accepted customized transactions for the customer to choose from.

[0007] According to the above technical solution, the try-on experience simulation analysis module includes a wearable device interconnection module, a sensation interval division module, and an interval force analysis module. The wearable device interconnection module is used to interconnect virtual reality devices that can simulate a real try-on experience. The sensation interval division module is used to divide several sets of force sensing intervals on the generated customer body model. The interval force analysis module is used to determine the overall feeling of wearing clothing based on the selected clothing and the customer's body posture after the customer tries on clothing through virtual reality technology.

[0008] According to the above technical solution, the interval force analysis module further includes a posture determination submodule, a sensor tag position marking submodule, a fitting line connection submodule, and a data calculation submodule. The posture determination submodule is used to determine a fixed posture of the customer that is expected to be analyzed before the force analysis. The sensor tag position marking submodule is used to generate a customer body shape model state change model based on the sensor tags in the virtual reality device and determine it as the current posture model. The fitting line connection submodule is used to connect the spatial contour fitting line of the model according to the current posture model and each sensory interval. The data calculation submodule is used to add the fitting clothing data model and analyze and calculate the force situation of each sensory interval under the current determined posture.

[0009] According to the above technical solution, the fitting experience simulation module includes an interval force monitoring unit and an interval force execution unit. The interval force monitoring unit is used to monitor the force data of each interval in the virtual reality wearable device during the customer's simulated fitting experience. The interval force execution unit is used to control the virtual reality wearable device to release pressure to simulate the overall feeling of wearing clothing based on the analysis results of the fitting experience simulation analysis module.

[0010] According to the above technical solution, the operation method of the customized initial selection module includes the following steps:

[0011] Step S1: Start the 3D scanning module to perform a 3D scan of the customer's body shape and input the customer's 3D scan model into the system;

[0012] Step S2: The customer inputs their body shape data and requirements for customized clothing into the system through the information input module. The system further optimizes and calibrates the size proportions of the customer's 3D scan model based on the customer's specific body shape data.

[0013] Step S3: The system establishes a clothing style database and a clothing fabric database respectively, collects and records all clothing styles and fabrics within the scope of the customized transaction for customers to choose from, and records the specific clothing type, style size and physical characteristics of the specific clothing fabric.

[0014] Step S4: Integrate the customer's 3D scan model data and requirements for customized clothing into a data block, match and search in the clothing style database and clothing fabric database, filter out clothing that does not match the data block, and use virtual reality technology to display the remaining clothing. Customers can make an initial selection of clothing by operating the device.

[0015] According to the above technical solution, the operation method of the fitting experience simulation analysis module includes the following steps:

[0016] Step A1: After the customer confirms the initial selection of a garment, the fitting experience simulation analysis module starts running. First, the connection signal of the customer's virtual reality wearable device is checked through the wearable device interconnection module. After the wearable device is successfully connected, the virtual reality devices that can simulate a real fitting experience are interconnected.

[0017] Step A2: Divide the generated customer body model into several groups of force-sensing zones;

[0018] Step A3: Begin force analysis on each group of force sensing intervals, and then output the force values ​​of each area under the current body posture of the customer based on the force analysis results.

[0019] According to the above technical solution, step A3 further includes the following steps:

[0020] Step A31: The user determines and confirms the body posture under a certain action;

[0021] Step A32: In response to the confirmation signal, the sensing tag position marking submodules send sensing signals to each other, and output the relative direction and spatial distance l between the sensing tags according to the sensing direction and the strength of the sensing signal. The overall output of all sensing tags is set in the customer 3D scanning model so that the customer 3D scanning model can satisfy the current positional relationship between each group of sensing tags after the posture changes, and the posture is determined as the current force analysis posture.

[0022] Step A33: Based on the current posture model and each receptive region, connect each receptive region of the model along the nearest spatial contour fitting line of the model contour, and read its length value L;

[0023] Step A34: Add the type, size, and fabric stretch data of the clothing to be tried on, and analyze and calculate the force distribution in each sensory zone under the current determined posture.

[0024] According to the above technical solution, step A34 further includes the following steps:

[0025] Step A341: Obtain the type of clothing currently being tried on, and based on the type of clothing, provide the system-preset range of the required force analysis for that type of clothing.

[0026] Step A342: Take the length L of the spatial contour fitting line under the current posture model in the linkage sensing range.

[0027] Step A343: Determine the size of the garment within the linked sensory range relative to the average redundancy size r of the customer's 3D scan model;

[0028] Step A344: When L > b + r, further analyze and calculate the force situation in the sensing interval; otherwise, output the force value of the region as 0.

[0029] Step A345: The formula for calculating the force situation in the sensing interval is: Where F is the relative force value of the linkage sensing range; y is the extensibility value of the clothing fabric. The larger y is, the better the extensibility of the clothing fabric. It is a constant greater than 0; k is the conversion coefficient of the force value. It is a constant greater than 0.

[0030] According to the above technical solution, the operation method of the fitting experience simulation module includes the following steps:

[0031] Upon receiving the analysis results from the try-on experience simulation analysis module, the try-on experience simulation module is activated, controlling the virtual reality wearable device to execute electrical signal control, causing the corresponding divided sensation intervals to perform force analysis values, while simultaneously reading the monitoring values ​​from the interval force monitoring unit, providing feedback calibration, and achieving the effect of simulating a real try-on experience.

[0032] Compared with existing technologies, the beneficial effects achieved by this invention are as follows: This invention, by setting up a customized initial selection module, a fitting experience simulation analysis module, and a fitting experience simulation module, can specifically simulate and analyze whether the clothing will cause dragging or squeezing sensations when customers make various body movements or postures during the fitting process, based on the type of clothing. Furthermore, it can accurately calculate the actual squeezing values ​​based on the clothing style and fabric parameters, providing data support for bringing customers a more realistic and accurate simulated experience, thereby helping customers to make comprehensive considerations and achieving a smart, convenient, and fast effect. Attached Figure Description

[0033] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0034] Figure 1 This is a schematic diagram of the system module composition of the present invention. Detailed Implementation

[0035] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0036] Please see Figure 1 This invention provides a technical solution: a remote 3D intelligent clothing customization system based on virtual reality, comprising a customization preliminary selection module, a fitting experience simulation analysis module, and a fitting experience simulation module. The customization preliminary selection module is used to initially select and customize clothing styles and categories based on the customer's body type and the customer's selection. The fitting experience simulation analysis module is used to analyze the stress on the customer's body parts after fitting. The fitting experience simulation module is used to simulate the wearing experience of clothing under different body postures after a real fitting based on the analysis results of the fitting experience simulation analysis module. The customization preliminary selection module and the fitting experience simulation analysis module are electrically connected, and the fitting experience simulation analysis module and the fitting experience simulation module are electrically connected.

[0037] The initial selection module for customization includes a 3D scanning module, an information input module, a clothing style database, and a clothing fabric database. The 3D scanning module is used to perform 3D scanning of the customer's body shape and input the customer's body shape data. The information input module is used for customers to input relevant body shape data and requirements for customized clothing, calibrating and filtering the clothing selection range. The clothing style database is used to collect and record all clothing styles within the scope of accepted customization transactions for customers to choose from. The clothing fabric database is used to collect and record all clothing fabrics within the scope of accepted customization transactions for customers to choose from.

[0038] The try-on experience simulation analysis module includes a wearable device interconnection module, a sensation zone division module, and a zone force analysis module. The wearable device interconnection module is used to interconnect virtual reality devices that can simulate a real try-on experience. The sensation zone division module is used to divide several groups of force sensing zones on the generated customer body model. The zone force analysis module is used to determine the overall feeling of wearing clothing based on the selected clothing and the customer's body posture after the customer tries on clothing through virtual reality technology.

[0039] The interval force analysis module further includes a posture determination submodule, a sensor tag position marking submodule, a fitting line connection submodule, and a data calculation submodule. The posture determination submodule is used to determine a fixed posture of the customer that is expected to be analyzed before the force analysis. The sensor tag position marking submodule is used to generate a customer body shape model state change model based on the sensor tags in the virtual reality device and determine it as the current posture model. The fitting line connection submodule is used to connect the spatial contour fitting line of the model according to the current posture model and each sensory interval. The data calculation submodule is used to add the fitting clothing data model and analyze and calculate the force situation of each sensory interval under the current determined posture.

[0040] The fitting experience simulation module includes a zone force monitoring unit and a zone force execution unit. The zone force monitoring unit is used to monitor the force data of each zone in the virtual reality wearable device during the customer's simulated fitting experience. The zone force execution unit is used to control the virtual reality wearable device to release pressure to simulate the overall feeling of wearing clothing based on the analysis results of the fitting experience simulation analysis module.

[0041] The method for running a customized initial selection module includes the following steps:

[0042] Step S1: Start the 3D scanning module to perform a 3D scan of the customer's body shape and input the customer's 3D scan model into the system;

[0043] Step S2: The customer inputs their body shape data and requirements for customized clothing into the system through the information input module. The system further optimizes and calibrates the size proportions of the customer's 3D scan model based on the customer's specific body shape data. The customer's body shape data includes the customer's height, weight, chest circumference, waist circumference, and thigh circumference. The customer's requirements for customized clothing include the type of clothing, such as dresses, jackets, and suits, as well as the main fabric of the clothing, such as suede, polyester, cotton, and linen.

[0044] Step S3: The system establishes a clothing style database and a clothing fabric database respectively, collects and records all clothing styles and clothing fabrics within the scope of the customized transaction for customers to choose from, and records the specific clothing type, style size and physical properties of the specific clothing fabric, including the extensibility of the clothing fabric.

[0045] Step S4: Integrate the customer's 3D scan model data and requirements for customized clothing into a data block. Match and search the clothing style database and clothing fabric database, and filter out clothing that does not match the data block. Then, use virtual reality technology to display the remaining clothing. Customers can make an initial selection of clothing by operating the device. Through the above steps, using 3D scanning and information entry respectively, the customer's body model can be simulated more accurately. This helps to accurately filter out unsuitable clothing when matching data, reducing the selection time and trial and error costs for customers during the customization process, and improving efficiency.

[0046] The operation method of the try-on experience simulation analysis module includes the following steps:

[0047] Step A1: In response to the customer's confirmation signal for initially selecting a garment, the fitting experience simulation analysis module starts running. First, the connection signal of the customer's virtual reality wearable device is checked through the wearable device interconnection module. After the wearable device is successfully connected, the virtual reality devices capable of simulating a real fitting experience are interconnected. Among them, the virtual reality devices capable of simulating a real fitting experience include not only head-mounted VR devices, but also wearable suits for the customer to wear. The wearable suits contain several sets of airbags to simulate the realistic experience of wearing different garments.

[0048] Step A2: Divide the generated customer body model into several groups of force-sensing zones;

[0049] Step A3: Begin force analysis on each group of force sensing intervals, and then output the force values ​​of each area under the current body posture of the customer based on the force analysis results.

[0050] Step A3 further includes the following steps:

[0051] Step A31: The user determines and confirms the body posture under a certain action;

[0052] Step A32: In response to the confirmation signal, the sensing tag position marking submodules send sensing signals to each other, and output the relative direction and spatial distance l between the sensing tags according to the sensing direction and the strength of the sensing signal. The overall output of all sensing tags is set on the customer's 3D scanning model so that the customer's 3D scanning model can satisfy the current positional relationship between the sensing tags after the posture changes. This posture is determined as the current force analysis posture. The sensing tags are attached to the surface of the customer's body and are part of a virtual reality device that simulates a real try-on experience.

[0053] Step A33: Based on the current posture model and each receptive region, connect each receptive region of the model along the nearest spatial contour fitting line of the model contour, and read its length value L;

[0054] Step A34: Add the type, size, and fabric stretch data of the clothing to be tried on, and analyze and calculate the force distribution in each sensory zone under the current determined posture.

[0055] Step A34 further includes the following steps:

[0056] Step A341: Obtain the type of clothing currently being tried on. Based on the type of clothing, provide the system's preset sensory range for the force analysis required for that type of clothing. Different types of clothing require different sensory ranges for analysis. For example, the area that generally affects comfort for jackets is the linkage between the "shoulder blade and upper arm"; the area that generally affects comfort for dresses is the linkage between the "abdomen" and breathing; and the area that generally affects comfort for jeans is the linkage between the "knees and groin".

[0057] Step A342: Take the length L of the spatial contour fitting line under the current posture model in the linkage sensing range.

[0058] Step A343: Determine the average redundant size r of the garment's dimensions within the linkage sensation range compared to the customer's 3D scan model. The redundant size r is the sum of the excess value of the internal space dimensions of the garment under normal conditions compared to the customer's 3D scan model under standard posture and the allowable range of motion values ​​for normal activities that cause linkage of other areas of the garment. The allowable range of motion values ​​for normal activities that cause linkage of other areas of the garment are preset values ​​given by the style of the garment being tried on.

[0059] Step A344: When L > b + r, further analyze and calculate the force situation of the sensing interval; otherwise, output the force value of the region as 0; where b is the length of the spatial contour fitting line of the linkage sensing interval of the customer 3D scanning model under standard posture.

[0060] Step A345: The formula for calculating the force situation in the sensing interval is: Where F is the relative force value of the linkage sensation range; y is the extensibility value of the clothing fabric. The larger y is, the better the extensibility of the clothing fabric, and it is a constant greater than 0; k is the conversion coefficient of the force value, which is a constant greater than 0. As can be seen from the formula, when the extensibility of the clothing fabric is poor, the y value is lower. The y value is inversely proportional to the relative force value of the linkage sensation range, so the larger the force value, the smaller the force value. Through the above formula, we can simulate various limb movements or body postures made by customers during clothing try-on. According to the type of clothing, we can specifically simulate and analyze whether the clothing will cause dragging or squeezing sensations when wearing the clothing in different postures. Furthermore, we can accurately calculate the actual squeezing value based on the clothing style and fabric parameters, providing data support for bringing customers a more realistic and accurate simulation experience.

[0061] The operation of the try-on experience simulation module includes the following steps:

[0062] Upon receiving the analysis results from the try-on experience simulation analysis module, the module is activated. It controls the virtual reality wearable device to execute electrical signal control, causing the corresponding defined sensory zones to perform force analysis. Simultaneously, it reads the monitoring values ​​from the zone force monitoring unit, provides feedback for calibration, and achieves the effect of simulating a real try-on experience. In addition to providing customers with a realistic try-on experience simulation, customers can also deeply experience the comfort of clothing by moving their limbs to make different postures, thus helping customers to make a comprehensive assessment and achieving a smart, convenient, and fast effect.

[0063] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0064] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A remote 3D intelligent clothing customization system based on virtual reality, characterized in that: The system includes a customization initial selection module, a fitting experience simulation analysis module, and a fitting experience simulation module. The customization initial selection module is used to initially select customized clothing styles and categories based on the customer's body type and the customer's choices. The fitting experience simulation analysis module is used to analyze the stress on the customer's body parts after trying on the clothing. The fitting experience simulation module is used to simulate the wearing experience of the clothing under different body postures after a real fitting, based on the analysis results of the fitting experience simulation analysis module. The customization initial selection module and the fitting experience simulation analysis module are electrically connected, and the fitting experience simulation analysis module and the fitting experience simulation module are electrically connected.

2. The remote 3D clothing intelligent customization system based on virtual reality according to claim 1, characterized in that: The customized initial selection module includes a 3D scanning module, an information input module, a clothing style database, and a clothing fabric database. The 3D scanning module is used to perform 3D scanning of the customer's body shape and input the customer's body shape data. The information input module is used for the customer to input relevant body shape data and relevant requirements for customized clothing, calibrating and filtering the clothing selection range. The clothing style database is used to collect and record all clothing styles within the scope of accepted customized transactions for the customer to choose from. The clothing fabric database is used to collect and record all clothing fabrics within the scope of accepted customized transactions for the customer to choose from.

3. The remote 3D clothing intelligent customization system based on virtual reality according to claim 2, characterized in that: The fitting experience simulation analysis module includes a wearable device interconnection module, a sensation interval division module, and an interval force analysis module. The wearable device interconnection module is used to interconnect virtual reality devices that can simulate a real fitting experience. The sensation interval division module is used to divide several sets of force sensing intervals on the generated customer body model. The interval force analysis module is used to determine the overall feeling of wearing clothing based on the selected clothing and the customer's body posture after the customer tries on the clothing through virtual reality technology.

4. The remote 3D clothing intelligent customization system based on virtual reality according to claim 3, characterized in that: The interval force analysis module further includes a posture determination submodule, a sensor tag position marking submodule, a fitting line connection submodule, and a data calculation submodule. The posture determination submodule is used to determine a fixed posture of the customer to be analyzed before the force analysis. The sensor tag position marking submodule is used to generate a customer body shape model state change model based on the sensor tags in the virtual reality device and determine it as the current posture model. The fitting line connection submodule is used to connect the spatial contour fitting line of the model according to the current posture model and each sensory interval. The data calculation submodule is used to add the fitting clothing data model and analyze and calculate the force situation of each sensory interval under the current determined posture.

5. The remote 3D clothing intelligent customization system based on virtual reality according to claim 4, characterized in that: The fitting experience simulation module includes a zone force monitoring unit and a zone force execution unit. The zone force monitoring unit is used to monitor the force data of each zone during the virtual reality wearable device's simulated fitting experience for the customer. The zone force execution unit is used to control the virtual reality wearable device to release pressure to simulate the overall feeling of wearing clothing based on the analysis results of the fitting experience simulation analysis module.

6. The remote 3D clothing intelligent customization system based on virtual reality according to claim 5, characterized in that: The operation method of the customized initial selection module includes the following steps: Step S1: Start the 3D scanning module to perform a 3D scan of the customer's body shape and input the customer's 3D scan model into the system; Step S2: The customer inputs their body shape data and requirements for customized clothing into the system through the information input module. The system further optimizes and calibrates the size proportions of the customer's 3D scan model based on the customer's specific body shape data. Step S3: The system establishes a clothing style database and a clothing fabric database respectively, collects and records all clothing styles and fabrics within the scope of the customized transaction for customers to choose from, and records the specific clothing type, style size and physical characteristics of the specific clothing fabric. Step S4: Integrate the customer's 3D scan model data and requirements for customized clothing into a data block, match and search in the clothing style database and clothing fabric database, filter out clothing that does not match the data block, and use virtual reality technology to display the remaining clothing. Customers can make an initial selection of clothing by operating the device.

7. A remote 3D clothing intelligent customization system based on virtual reality according to claim 6, characterized in that: The operation method of the fitting experience simulation analysis module includes the following steps: Step A1: After the customer confirms the initial selection of a garment, the fitting experience simulation analysis module starts running. First, the connection signal of the customer's virtual reality wearable device is checked through the wearable device interconnection module. After the wearable device is successfully connected, the virtual reality devices that can simulate a real fitting experience are interconnected. Step A2: Divide the generated customer body model into several groups of force-sensing zones; Step A3: Begin force analysis on each group of force sensing intervals, and then output the force values ​​of each area under the current body posture of the customer based on the force analysis results.

8. A remote 3D clothing intelligent customization system based on virtual reality according to claim 7, characterized in that: Step A3 further includes the following steps: Step A31: The user determines and confirms the body posture under a certain action; Step A32: In response to the confirmation signal, the sensing tag position marking submodules send sensing signals to each other, and output the relative direction and spatial distance l between the sensing tags according to the sensing direction and the strength of the sensing signal. The overall output of all sensing tags is set in the customer 3D scanning model so that the customer 3D scanning model can satisfy the current positional relationship between each group of sensing tags after the posture changes, and the posture is determined as the current force analysis posture. Step A33: Based on the current posture model and each receptive region, connect each receptive region of the model along the nearest spatial contour fitting line of the model contour, and read its length value L; Step A34: Add the type, size, and fabric stretch data of the clothing to be tried on, and analyze and calculate the force distribution in each sensory zone under the current determined posture.

9. A remote 3D clothing intelligent customization system based on virtual reality according to claim 8, characterized in that: Step A34 further includes the following steps: Step A341: Obtain the type of clothing currently being tried on, and based on the type of clothing, provide the system-preset range of the required force analysis for that type of clothing. Step A342: Take the length L of the spatial contour fitting line under the current posture model in the linkage sensing range. Step A343: Determine the size of the garment within the linked sensory range relative to the average redundancy size r of the customer's 3D scan model; Step A344: When L > b + r, further analyze and calculate the force situation in the sensing interval; otherwise, output the force value of the region as 0. Step A345: The formula for calculating the force in the sensing interval is: Where F is the relative force value of the linkage sensing range; y is the extensibility value of the clothing fabric. The larger y is, the better the extensibility of the clothing fabric. It is a constant greater than 0; k is the conversion coefficient of the force value. It is a constant greater than 0.

10. A remote 3D clothing intelligent customization system based on virtual reality according to claim 9, characterized in that: The operation method of the fitting experience simulation module includes the following steps: Upon receiving the analysis results from the try-on experience simulation analysis module, the try-on experience simulation module is activated, controlling the virtual reality wearable device to execute electrical signal control, causing the corresponding divided sensation intervals to perform force analysis values, while simultaneously reading the monitoring values ​​from the interval force monitoring unit, providing feedback calibration, and achieving the effect of simulating a real try-on experience.

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