Framework development demonstrates optimized textile properties and structural adaptation across multiple athletic scenarios, suggesting improved protective performance and ergonomic fit.
Addressing the issues of inadequate protective performance in sports protective gear textiles, poor alignment between material properties and athletic scenarios, and insufficient integration of comfort with protective functionality, this paper conducts research on optimizing textile material characteristics and adapting sports protective gear design based on core athletic protection requirements. First, integrating sports biomechanics theory, materials science principles, and ergonomic guidelines, we define core protective dimensions (impact absorption, freedom of movement, breathability/moisture wicking, fit/conformity) and key textile material performance metrics (mechanical properties, breathability, elastic recovery, abrasion resistance). Second, injury risk data and protective gear usage feedback from diverse sports (ball sports, contact sports, endurance sports) were collected to construct a multidimensional dataset (SPD-2024) encompassing 6 sports scenarios and 5 protection levels. Third, design a technical framework of “protection requirement decomposition - material property optimization - protective gear structural adaptation.” Enhance material protective performance through fiber modification, fabric structure design, and composite process optimization. Introduce a protection-adaptation collaborative evaluation model to strengthen the alignment between material properties and protective gear design.
No takes yet. Share an insight, caveat, or question.
G. Duan (2026) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: