Ye Chongyang, Li Xiaolu, Song Haiyan, Shi Yu, Liang Ruixin, Zhang Jun, Lee Ka Po, Chen Zhaolong, Zhou Beibei, Tong Raymond Kai-Yu, Yick Kit-Lun, Ng Sun-Pui, Yip Joanne
School of Fashion and Textiles, The Hong Kong Polytechnic University, Hong Kong, China.
Medical Imaging Department, Shenzhen Second People's Hospital, Shenzhen, China.
Front Bioeng Biotechnol. 2025 Jul 28;13:1632806. doi: 10.3389/fbioe.2025.1632806. eCollection 2025.
Biomechanical imaging through body scanning can provide a more comprehensive understanding of the soft tissue deformation exerted by compression sportswear, which is crucial in sports science research and functional sportswear design. However, displacement from movement affects alignment so accurately measuring tissue deformation with different wear conditions becomes challenging.
To address this issue, an analytical model is constructed to predict tissue deformation by using the Boussinesq solution, which is based on the elastic theory and stress function method. Moreover, a novel anthropometric method based on image recognition algorithms that systematically measures and evaluates tissue deformation while minimizing the impact of the effects of motion is proposed. The mechanical properties of five leggings samples are tested by using the Instron 4,411 and KES-FB1 systems to determine the uniaxial tension and pure shear.
The predicted results are then compared with the experimental results, which shows that they are in good agreement, with deviations within 1.15 mm for the static condition and 2.36 mm for the dynamic condition, thus validating the proposed novel method.
This anthropometric approach is an invaluable tool for evaluating tissue deformation patterns, thus providing key insights for sportswear designers to optimize garment performance and design.
通过身体扫描进行生物力学成像可以更全面地了解压缩运动服装对软组织的变形影响,这在运动科学研究和功能性运动服装设计中至关重要。然而,运动产生的位移会影响对齐,因此在不同穿着条件下准确测量组织变形具有挑战性。
为了解决这个问题,构建了一个分析模型,通过使用基于弹性理论和应力函数法的布辛涅斯克解来预测组织变形。此外,还提出了一种基于图像识别算法的新型人体测量方法,该方法在最小化运动影响的同时系统地测量和评估组织变形。使用英斯特朗4411和KES-FB1系统测试了五个紧身裤样本的力学性能,以确定单轴拉伸和纯剪切。
然后将预测结果与实验结果进行比较,结果表明两者吻合良好,静态条件下偏差在1.15毫米以内,动态条件下偏差在2.36毫米以内,从而验证了所提出的新方法。
这种人体测量方法是评估组织变形模式的宝贵工具,从而为运动服装设计师优化服装性能和设计提供关键见解。