The increasing demand for personalized and affordable prosthetic devices has led to significant advancements in 3D printing technologies. Accessible digital restoration methods and Structural forecasting models are revolutionizing the field of Artificial limbs by enabling precise, individualized designs that are both cost-effective and functional. This article explores the integration of digital tools, computational models, and 3D printing in creating high-performance prosthetic devices. It examines key techniques in digital restoration, such as CT scans and 3D modeling software, as well as the role of mechanical simulations in predicting the performance of Artificial limbs. The article also discusses the challenges, opportunities, and future directions of 3D-printed Artificial limbs, with a focus on accessibility, sustainability, and innovation.

3D printing, Artificial limbs, digital restoration, Structural forecasting, accessibility

Vujaklija, I., and Farina, D., 2018, “3D Printed Upper Limb Artificial limbs,” Expert Rev. Med. Dev., 15(7), pp. 505–512.

Burn, M. B., Ta, A., and Gogola, G. R., 2016, “Three-Dimensional Printing of Prosthetic Hands for Children,” J. Hand Surg., 41(5), pp. e103–e109.

Krebs, D. E., Edelstein, J. E., and Thornby, M. A., 1991, “Prosthetic Management of Children With Limb Deficiencies,” Phys. Therapy, 71(12), pp. 920–934.

Tantua, A. T., Geertzen, J. H., Breek, J.-K. C., and Dijkstra, P. U., 2014, “Reduction of Residual Limb Volume in People With Transtibial Amputation,” J. Rehab. Res. Dev., 51(7), pp. 1119–1126.

World Health Organization, 2017, “WHO Standards for Artificial limbs and Orthotics.”

Chen, R. K., Jin, Y., Wensman, J., and Shih, A., 2016, “Additive Manufacturing of Custom Orthoses and Prostheses—A Review,” Addit. Manuf., 12(Part A), pp. 77–89.