高耐用可打印材料
EPFL研發用於軟體機械人的高韌性3D打印彈性體
高耐用度可打印材料,正透過克服韌性與抗疲勞性之間的傳統取捨困境,拓展積層製造的能力範圍。瑞士洛桑聯邦理工學院(EPFL)研究人員,研發出雙網絡顆粒彈性體,可透過 3D 打印製造,同時承受反覆拉伸、撞擊及機械壓力,而不影響耐用度。其獨特的雙網絡結構,可將應變分散至整個材料之中,減緩裂紋擴展,延長組件壽命。此組合特性,令此材料非常適合軟體機械人、穿戴式電子產品,以及需要靈活性及長期可靠性的生物醫學裝置等高要求應用領域。
對企業而言,耐用型可打印材料,有助減少維護需求,提升產品性能,並延長持續承受動態運作的組件的使用壽命。運用商用 3D 打印機生產更堅固、更耐用的零件的能力,亦支援更快速的產品開發及更大的設計靈活性。隨著積層製造技術持續演進,先進彈性體,有望於多個行業之中,為高性能、訂製化產品,開拓全新機會。
英文原文
High-durability printable materials are expanding the capabilities of additive manufacturing by overcoming the traditional trade-off between toughness and fatigue resistance. Researchers at EPFL developed double network granular elastomers that can be 3D printed while withstanding repeated stretching, impacts and mechanical stress without compromising durability. Their unique dual-network structure redistributes strain throughout the material, slowing crack growth and extending component lifespan. This combination makes the material well suited for demanding applications such as soft robotics, wearable electronics and biomedical devices that require flexibility and long-term reliability.
For businesses, durable printable materials can reduce maintenance requirements, improve product performance and extend the service life of components exposed to continuous movement. The ability to manufacture stronger, longer-lasting parts with commercial 3D printers also supports faster product development and greater design flexibility. As additive manufacturing continues to evolve, advanced elastomers are positioned to unlock new opportunities for high-performance, customized products across multiple industries.
- 來源
- Trend Hunter
- 發布
- 2026-07-29
- 品類
- Science
- 出處
- 3dprinting, actu.epfl.ch