纺织学报 ›› 2022, Vol. 43 ›› Issue (12): 151-159.doi: 10.13475/j.fzxb.20211003609

• 服装工程 • 上一篇    下一篇

基于三维人体扫描模型的衬衣版型生成方法

肖伯祥, 刘正东(), 郭昱成, 王渊霞   

  1. 北京服装学院 服装艺术与工程学院, 北京 100029
  • 收稿日期:2021-10-19 修回日期:2022-07-28 出版日期:2022-12-15 发布日期:2023-01-06
  • 通讯作者: 刘正东
  • 作者简介:肖伯祥(1981—),男,副研究员,博士。主要研究方向为服装智能工程。
  • 基金资助:
    北京市教育委员会科技计划项目(KM202110012011);北京市自然科学基金项目(4222044)

Shirt pattern generating method based on 3-D human scanning model

XIAO Boxiang, LIU Zhengdong(), GUO Yucheng, WANG Yuanxia   

  1. School of Fashion, Beijing Institute of Fashion Technology, Beijing 100029, China
  • Received:2021-10-19 Revised:2022-07-28 Published:2022-12-15 Online:2023-01-06
  • Contact: LIU Zhengdong

摘要:

针对衬衣定制自动生成版型与体型匹配误差不可控问题,提出一种基于三维人体扫描模型的衬衣版型生成方法。首先,扫描目标人体获得个性化的三维人体模型,通过对模型截面曲线的几何特征分析,在三维人体模型上提取个性化体型特征点;使用服装制版标准人台,构建一个衬衣的标准三维基础模型;然后,使用保刚性变形算法,以个性化体型特征点为约束,实现该衬衣标准三维基础模型的变形;最后,使用基于质点-弹簧系统的三维模型展平算法,根据变形后的衬衣三维模型各个版片生成对应的二维版片,添加经实验验证的版片边缘线缩放量,生成适应目标体型的个性化衬衣版型。实验结果表明,该方法能够生成合体的衬衣版型,基于数字化模型和自动化处理算法,实现衬衣版型的自动化生成,保证个性化制版的精度,并提高制版效率,为服装智能生产制造提供技术解决方案。

关键词: 服装CAD, 三维人体扫描, 男衬衣, 版型生成, 质点-弹簧系统, 服装个性化定制

Abstract:

Aiming at uncontrollable matching error between automatically generated pattern and body shape in shirt customization, an automatic generating method based on 3-D human body scanning model is proposed. The personalized 3-D human model was obtained by scanning the target human body, and the personalized body feature points were extracted on the 3-D human model by analyzing the geometric characteristics of the cross-section curves of the model. A standard 3-D basic model of a shirt was constructed by using the standard mannequin for garment pattern making, and as-rigid-as possible (ARAP) deformation algorithm was used to create the deformation of the standard 3-D basic model with the personalized body feature points as constraints. Finally, using a 3-D model flattening algorithm based on the mass-spring system, the corresponding 2-D pattern was generated according to the deformed 3-D clothing models, and offsets of the edge lines of the pattern verified by experiments were considered in generating the final personalized shirt pattern that adapts to the target body shape. The experimental results show that this method can generate shirt pattern with good fitting. Based on the digital model and automatic processing algorithm, automatic generation of shirt pattern can be achieved that ensures the accuracy and improves the efficiency of personalized pattern making. The research outcome provides a technical solution for garment intelligent manufacturing.

Key words: garment CAD, 3-D human body scanning, men's shirt, pattern generating, mass-spring system, customized garment

中图分类号: 

  • TS941.26

图1

本文方法流程示意图"

图2

三维人体扫描的设备和扫描模型示例"

图3

三维扫描模型分析特征提取"

图4

三维服装基础版模型"

图5

基于特征点约束的三维服装模型变形"

图6

基于物理模型的三维图形展平"

图7

左前衣片的展平以及内部能量分布"

图8

左前衣片的边缘曲线段示意图"

表1

三维衣片模型和二维衣片模型变形计算比较"

参数 前中/
mm
领/
mm
肩/
mm
袖窿/
mm
侧缝/
mm
底边/
mm
面积/
mm2
三维
长度
657.0 122.3 135.1 195.9 531.2 219.2 144 339
二维
长度
652.8 122.1 135.3 196.6 528.3 219.6 144 353
变形率/% -0.64 -0.15 0.17 0.37 -0.53 0.18 0.01

图9

衬衣前片、肩片和后片的展开过程"

图10

衬衣前片、肩片和后片的放松量以及领片、袖片"

表2

版片边缘特征点偏移量和偏移方式"

版片特征点 偏移值/cm 偏移方式
前肩点 1 沿肩线延伸
前胸侧点 3 偏移x坐标值
-1 偏移y坐标值
前底侧点 3 偏移x坐标值
-1 偏移y坐标值
后肩点 1 沿肩线延伸
后背侧点 1 沿横向延伸
后胸侧点 3 偏移x坐标值
-1 偏移y坐标值
后底侧点 3 偏移x坐标值
-1 偏移y坐标值

表3

版型合体度主要尺寸参数测量对比"

项目 胸围 领围 肩宽 衣长 袖长
人体手工量体尺寸 89 40 45 64 53
三维模型测量尺寸 88 40 44 56 54
手工制版加放松量 13 2 2 0 3
本文方法加放松量 12 0 2 10 3
本文样衣实测尺寸 100 41 43 66 57

图11

模特样衣试穿实验的效果"

表4

模型的几何信息和系统各模块的处理运行时间"

算法与处理流程 运行时间/s
体型特征点分析
(31个体型特征点,三维人体模型约93 800
个顶点,171 000个三角面)
22
三维模型保刚性变形
(三维模型1 177个顶点,2 232个三角面)
12
三维版型展平(迭代10 000次)
(肩片50个顶点,72个三角面)
3
三维版型展平(迭代10 000次)
(后片120个顶点,198个三角面)
5
三维版型展平(迭代10 000次)
(前片310个顶点,531个三角面)
9
二维版型后处理 1
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