Acta Mechanica Slovaca 2024, 28(4):64-69 | DOI: 10.21496/ams.2025.004
Additively Manufactured Auxetic Materials for Healthcare Innovations
- Technical University of Košice, Faculty of Mechanical Engineering, Department of Applied Mechanics and Mechanical Engineering, Letná 9, 042 00 Košice, Slovak Republic
This review explores the mechanical properties, manufacturing techniques, and biomedical applications of auxetic metamaterials. Auxetic materials, characterized by a negative Poisson's ratio, exhibit unique deformation behaviours that make them highly suitable for medical applications such as orthopedic implants, vascular stents, and protective equipment. The study systematically examines recent advancements in the design and additive manufacturing of auxetic structures, focusing on their mechanical performance, durability, and potential for biomedical innovations. Key research findings from experimental and computational studies are summarized to provide insights into the advantages and challenges of implementing these materials in healthcare. The review highlights current trends, limitations, and future research directions in the field of auxetic metamaterials for biomedical applications.
Keywords: metamaterials, 3D printing, biomedical engineering, polymers, additive technology, auxetic, healthcare
Received: January 10, 2025; Revised: February 12, 2025; Accepted: February 18, 2025; Published: December 1, 2024 Show citation
References
- ReferencesGreaves, N., Greer, A., Lakes, R. (2011). Poisson's ratio and modern materials. Nature Materials, 12, 823-837.2. Zhao, Y., Belkin, M., Alu, A. (2012). Twisted optical metamaterials for planarized ultrathin broadband circular polarizers. Nature Communications, 4, 870.3. Kadic, M., Buckmann, T., Stenger, T., Thiel, M. (2012). On the practicability of pentamode mechanical metamaterials. Applied Physics Letters, 18, 100-110.4. Kadic, M., Buckmann, T., Wegener, N., Schitty, M. (2013). Elastic measurements on macroscopic three-dimensional pentamode metamaterials. Applied Physics Letters, 1, 103-105.5. Wiebe, C., Brodland, G. (2005). Tensile properties of embryonic epithelia measured using a novel instrument. Journal of biomechanics, 38, 2087-2094.6. Chen, X., Brodland G. (2009). Mechanical determinants of epithelium thickness in early-stage embryos. The Journal of the Mechanical Behavior of Biomedical Materials, 5, 494-501.7. Pagliara, S., Franze, K., McClain, C. (2014). Auxetic nuclei in embryonic stem cells exiting pluripotency. Nature Materials,13, 638-644.8. Gatt, R., Mizzi, L., Azzopardi, J. (2015). Hierarchical Auxetic Mechanical Metamaterials. Scientific Reports, 5, 8395.9. Derrouiche, A., Zaouali, A., Zaïri, F. (2019). Osmo-inelastic response of the intervertebral disc. Proceedings of the Institution of Mechanical Engineers, 233, 332-341.10. Yao, Y. et al. (2020). A novel auxetic structure based bone screw design: Tensile mechanical characterization and pullout fixation strength evaluation. Materials & Design, 188, 264-271.11. Huo, Y. et al. (2021). A Critical Review on the Design, Manufacturing and Assessment of the Bone Scaffold for Large Bone Defects. Frontiers in Bioengineering and Biotechnology, 9, 155-168.12. Ghavidelnia, N. et al. (2021). Femur auxetic meta-implants with tuned micromotion distribution. Materials, 14, 1.13. Ghavidelnia, N., Hedayati, R., Sadighi, M. (2020). Development of porous implants with non-uniform mechanical properties distribution based on CT images. Applied Mathematical Modelling, 83, 801-823.14. Kolken, H.M.A., Janbaz, S., Leeflang, S.M.A., Lietaert, K. (2018). Rationally designed meta-implants: a combination of auxetic and conventional meta-biomaterials. Materials Horizons, 5, 28-35.15. Yu, A., Zhang, C., Xu, W., Zhang, Y. (2023). Additive manufacturing of multi-morphology graded titanium scaffolds for bone implant applications. Journal of Materials Science & Technology, 139, 47-58.16. Martz, E.O., Lakes, R.S., Goel, V.K., Park, J.B. (2005) Design of an Artificial Intervertebral Disc Exhibiting a Negative Poisson's Ratio. Cellular Polymers, 24, 127-138.17. Maerz, T., Herkowitz, H., Baker, K. (2013). Molecular and genetic advances in the regeneration of the intervertebral disc. Surgical Neurology International, 4, 94-105.18. Barri K. et al. (2022). Patient-Specific Self-Powered Metamaterial Implants for Detecting Bone Healing Progress. Advanced functional materials, 32, 32.19. Wang, S.B., Cheng, Y.N., Cui, S.X. (2009). Des-γ-carboxy prothrombin stimulates human vascular endothelial cell growth and migration. Clinical and Experimental Metastasis, 26, 469-477.20. Wan, T., Jing, T., Zhang, H. (2022). Adoption of Novel Nano Bio-vascular Stent in Carotid Artery Stenosis Stent Intervention and Perioperative Nursing Analysis: Adoption of Novel Nano Bio-vascular Stent in Carotid Artery Stenosis Stent. Cellular and Molecular Biology, 68, 114-121.21. Solis, D.M., Czekanski, A. (2022). 3D and 4D additive manufacturing techniques for vascular-like structures - A review. Bioprinting, 25, 251-263.22. Sanami, M., Ravirala, N., Alderson, K., Alderson, A. (2014).Auxetic Materials for Sports Applications. Procedia Engineering, 72, 453-458.23. Wang, Z., Hu, H. (2014). Auxetic materials and their potential applications in textiles. Textile Research Journal, 84, 1600-1611.
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