Clothing design simulation inspection equipment

Abstract

A garment design simulation inspection device belongs to the technical field of garment design inspection and comprises a design terminal and a simulation terminal, the design terminal is used for drawing a three-dimensional model of a garment and setting a first size parameter for the garment; the simulation terminal is used for superposing first simulation dynamic parameters on the three-dimensional model imported by the design terminal, and different simulation results are obtained by superposing different first simulation dynamic parameters according to the dynamic change of the simulation terminal on the motion state of the clothes and the fabric of the clothes; the first simulation dynamic parameters comprise motion simulation parameters and fabric simulation parameters, and the motion simulation parameters and the fabric simulation parameters can be independently modified. The garment motion state and the fabric dynamic state are simulated through the simulation terminal, simulation parameters can be independently modified, and flexibility and pertinence are better achieved.

Description

Technical Field

[0001] The invention belongs to the technical field of clothing design inspection, and in particular relates to clothing design simulation inspection equipment. Background Art

[0002] In today's clothing design field, traditional inspection methods have many limitations. Usually, designers rely on experience and limited physical samples to evaluate the quality and effect of clothing, which lacks comprehensiveness and accuracy. Moreover, it is difficult to accurately predict the performance of clothing under different motion states and environmental conditions. With the development of science and technology, people's requirements for clothing are increasing day by day. They not only pursue beauty, but also pay more attention to comfort, functionality and durability. However, existing inspection technologies are difficult to meet these complex and diverse needs. A more scientific, efficient and comprehensive clothing design inspection method is urgently needed to fill this gap. Summary of the invention

[0003] In view of the above technical problems, a clothing design simulation and inspection device includes a design terminal and a simulation terminal. The design terminal is used to draw a three-dimensional model of a clothing and set a first size parameter for the clothing; the simulation terminal is used to superimpose a first simulation dynamic parameter on the three-dimensional model imported into the design terminal, and obtain different simulation results by superimposing different first simulation dynamic parameters on the movement state of the clothing and the dynamic changes of the clothing fabric through the simulation terminal; the first simulation dynamic parameters include motion simulation parameters and fabric simulation parameters, wherein the motion simulation parameters and fabric simulation parameters can be modified separately.

[0004] The steps of conducting simulation inspection by simulation inspection equipment include:

[0005] Step S101, setting the inspection indicators in the simulation terminal, and setting the inspection indicators as conditional tuples; when there are new indicators, add the new indicators into the conditional tuples, and the inspection indicator set in the conditional tuples is the final inspection indicator of the simulation terminal.

[0006] Step S102, setting simulation environment parameters in the simulation terminal, wherein the simulation environment parameters include temperature, humidity, and wind force; simulating different simulation environment parameters, and collecting data on the simulation results, wherein the collected data includes the tensile properties, compression properties, bending properties, and torsion properties of the clothing.

[0007] Step S103, performing comparative analysis based on the collected data and the set inspection index, and storing the set inspection index and the simulation environment parameters in association with the comparison result.

[0008] Furthermore, the simulation terminal also includes a user interaction interface, and the user sets the inspection index and simulation environment parameters through the visual interface, and saves the set parameters in components through the interactive interface.

[0009] Furthermore, the step of performing comparative analysis by the simulated terminal includes:

[0010] Step S201, the data analysis and feedback system collects data from various links, including size parameters of CAD software, clothing dynamic performance in a virtual reality environment, fabric material evaluation and motion simulation data, and then integrates and cleans the collected data.

[0011] Step S202, using statistics and machine learning algorithms to analyze and mine the integrated data; based on the analysis results, the clothing design and evaluation links are evaluated and diagnosed to clarify the pros and cons.

[0012] Step S203, generating specific, clear and actionable feedback information based on the evaluation and diagnosis results; designers and evaluators optimize and adjust the design and evaluation based on the feedback information; and continuously tracking the data of the new design and evaluation results.

[0013] Furthermore, the conditional tuple includes at least one inspection standard, and the inspection standard in the conditional tuple and the simulation environment parameter are combined together to form a component that can be saved.

[0014] Compared with the prior art, the present invention has the following advantages: (1) the present invention can accurately draw a three-dimensional model of clothing and set size parameters through a design terminal, thereby realizing a more accurate design basis; (2) the present invention simulates the movement state and fabric dynamics of clothing through a simulation terminal, and can modify the simulation parameters individually, which is more flexible and targeted. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 An exemplary step of performing a simulation test for the simulation test device of the present invention.

[0016] Figure 2 This is an exemplary step of performing comparative analysis for the present invention. DETAILED DESCRIPTION

[0017] Embodiment: A clothing design simulation inspection device includes a design terminal and a simulation terminal. The design terminal is used to draw a three-dimensional model of clothing and set a first size parameter for the clothing; the simulation terminal is used to superimpose a first simulation dynamic parameter on the three-dimensional model imported into the design terminal, and through the simulation terminal, the motion state of the clothing and the dynamic changes of the clothing fabric, different simulation results are obtained by superimposing different first simulation dynamic parameters; the first simulation dynamic parameters include motion simulation parameters and fabric simulation parameters, wherein the motion simulation parameters and fabric simulation parameters can be modified separately.

[0018] In this embodiment, Figure 1As shown, the steps of performing simulation testing by the simulation testing device in this embodiment include:

[0019] Step S101, setting the inspection indicators in the simulation terminal, and setting the inspection indicators as conditional tuples; when there are new indicators, add the new indicators into the conditional tuples, and the inspection indicator set in the conditional tuples is the final inspection indicator of the simulation terminal.

[0020] The conditional tuple includes at least one test criterion, and the test criterion in the conditional tuple and the simulation environment parameters are combined to form a component that can be saved.

[0021] Step S102, setting simulation environment parameters in the simulation terminal, the simulation environment parameters including temperature, humidity, and wind force; simulating different simulation environment parameters, and collecting data on the simulation results, the collected data including the tensile performance, compression performance, bending performance, and torsional performance of the clothing.

[0022] Step S103, performing comparative analysis based on the collected data and the set inspection index, and storing the set inspection index and the simulation environment parameters in association with the comparison result.

[0023] The simulation terminal also includes a user interaction interface. The user sets the inspection indicators and simulation environment parameters through the visual interface, and saves the set parameters in components through the interactive interface.

[0024] The above saved components can be saved and modified in Json format, and the underlying interface can be called through the user interaction interface to realize local reading of parameters.

[0025] like Figure 2 As shown in this embodiment, the steps of simulating the terminal to perform comparative analysis include:

[0026] Step S201, the data analysis and feedback system collects data from various links, including size parameters of CAD software, clothing dynamic performance in a virtual reality environment, fabric material evaluation and motion simulation data, and then integrates and cleans the collected data.

[0027] Step S202, using statistics and machine learning algorithms to analyze and mine the integrated data; based on the analysis results, the clothing design and evaluation links are evaluated and diagnosed to clarify the pros and cons.

[0028] Step S203, generating specific, clear and actionable feedback information based on the evaluation and diagnosis results; designers and evaluators optimize and adjust the design and evaluation based on the feedback information; and continuously tracking the data of the new design and evaluation results.

[0029] Establish a data analysis and feedback system to analyze and process the collected data, provide useful feedback information, and help designers optimize clothing design and evaluation. For example, the data analysis and feedback system can analyze the performance data of clothing in different sports states, provide useful feedback information, and help designers optimize the style and material of clothing.

[0030] The above contents are merely examples and explanations of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the invention or exceed the scope defined by the claims, they shall all fall within the protection scope of the present invention.

Claims

1. A clothing design simulation inspection device, comprising a design terminal and a simulation terminal, characterized in that: The design terminal is used to draw a three-dimensional model of clothing and set a first size parameter for the clothing; the simulation terminal is used to superimpose a first simulation dynamic parameter on the three-dimensional model imported into the design terminal, and obtain different simulation results by superimposing different first simulation dynamic parameters on the motion state of the clothing and the dynamic changes of the clothing fabric through the simulation terminal; the first simulation dynamic parameter includes a motion simulation parameter and a fabric simulation parameter, wherein the motion simulation parameter and the fabric simulation parameter can be modified separately; The steps of conducting simulation inspection by simulation inspection equipment include: Step S101, setting the inspection index in the simulation terminal, and setting the inspection index as a conditional tuple; when there is a new index, add the new index into the conditional tuple, and the inspection index set in the conditional tuple is the final inspection index of the simulation terminal; Step S102, setting simulation environment parameters in the simulation terminal, wherein the simulation environment parameters include temperature, humidity, and wind force value; simulating different simulation environment parameters, and collecting data on the simulation results, wherein the collected data includes the tensile performance, compression performance, bending performance, and torsion performance of the clothing; Step S103, performing comparative analysis based on the collected data and the set inspection index, and storing the set inspection index and the simulation environment parameters in association with the comparison result.

2. A clothing design simulation inspection device according to claim 1, characterized in that: The simulation terminal also includes a user interaction interface. The user sets the inspection index and simulation environment parameters through the visual interface, and saves the set parameters in components through the interaction interface.

3. The clothing design simulation inspection device according to claim 1, characterized in that: The step of performing comparative analysis by the simulated terminal includes: Step S201, the data analysis and feedback system collects data from various links, including size parameters of CAD software, clothing dynamic performance in a virtual reality environment, fabric material evaluation, and motion simulation data, and then integrates and cleans the collected data; Step S202, using statistics and machine learning algorithms to analyze and mine the integrated data; based on the analysis results, evaluating and diagnosing the clothing design and evaluation links to clarify the pros and cons; Step S203, generating specific, clear and actionable feedback information based on the evaluation and diagnosis results; Designers and evaluators optimize designs and evaluations based on feedback; and continuously track data on new designs and evaluation results.

4. The clothing design simulation inspection device according to claim 1, characterized in that: The conditional tuple includes at least one inspection standard, and the inspection standard in the conditional tuple and the simulation environment parameter are combined together to form a component that can be saved.

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