The Impact of Artificial Intelligence on the Generative Design and Cross-Domain Performance of Athletic Footwear
Main Article Content
Keywords
sportswear footwear, human-machine collaboration, workflow optimization, manufacturing technologies
Abstract
The athletic footwear industry is shifting from conventional linear R&D pipelines to advanced digital workflows driven by artificial intelligence (AI). This paper evaluates how AI-driven tools optimize established manufacturing paradigms, focusing on the systemic transition within sports shoe development rather than isolated technical breakthroughs. However, conventional pipelines face severe bottlenecks, including low concept iteration efficiency, prolonged finite element simulation latencies, and high tooling costs that impede mass customization. To address these challenges, this study analyzes a triple-transformation methodology. First, Latent Diffusion Models and Kansei Engineering are applied to quantify consumer perception and accelerate conceptual design. Second, machine learning surrogate models replace time-consuming simulations for rapid biomechanical and topological optimization. Third, computer vision frameworks are integrated with additive manufacturing to bypass physical molds and streamline personalized production pipelines. The evaluation demonstrates that the integration of predictive algorithms and 3D printing shortens development cycles while achieving precise gait customization. In conclusion, human-machine collaboration will emerge as the dominant paradigm in footwear engineering, successfully balancing industrial economies of scale with absolute product personalization.
References
- [1] P. Minaoglou et al., “Integrating Artificial Intelligence into the Shoe Design Process,” MDPI Engineering Proceedings, 2024.
- [2] M. Yu and J. Wu, “Research on Intelligent Design of Sports Shoe Modeling Based on Kansei Engineering,” Design, 2023.
- [3] Z. Lu et al., “Personalised footwear design method based on machine learning and finite element analysis,” Footwear Science, 2025.
- [4] Mohammadi, M. M., & Nourani, A. (2025). Machine learning-based prediction of compressive energy absorption in shoe soles with different features. Scientific Reports, 15(1), 37059.
- [5] Kuzmeski, J., Bertschy, M., Healey, L., Barrons, Z., & Hoogkamer, W. (2026). Data driven shoe design improves running economy beyond state-of-the-art Advanced Footwear Technology running shoes. Journal of Sport and Health Science, 101133.
- [6] S. Li et al., “Plantar pressure and gait analysis in patients after anterior cruciate ligament injury and reconstruction,” Chinese Journal of Tissue Engineering Research, 2023.
- [7] Aparna, S., Athulya, L., Nandana, S., Sreelekshmi, K. R., Sabeena, K., & Chinchu, M. P. (2025). A Comprehensive Review of Digital Foot Measurement and Virtual Footwear Fitting Technologies: From Computer Vision to AI-Driven Solutions.
- [8] “Sculpting the Perfect Shoe: A Deep Dive into AI-Driven Footwear Design and Production,” Int. J. of Formative, Managerial and Research, vol. 5, 2023.
- [9] S. Mallakpour, Z. Radfar, and C. M. Hussain, “Advanced application of additive manufacturing in the footwear industry: from customized insoles to fully 3D-printed shoes,” in Medical Additive Manufacturing, Elsevier, 2024, pp. 153-178.
