Zhou Zhitao, Zhang Shaoqing, Cao Yunteng, Marelli Benedetto, Xia Xiaoxia, Tao Tiger H
State Key Laboratory of Transducer Technology, Shanghai Institute of Microsystem and Information Technology, Chinese Academy of Sciences, Shanghai, 200050, China.
School of Graduate Study, University of Chinese Academy of Sciences, Beijing, 100049, China.
Adv Mater. 2018 Jun 28:e1706983. doi: 10.1002/adma.201706983.
Silk is a natural fiber renowned for its outstanding mechanical properties that have enabled the manufacturing of ultralight and ultrastrong textiles. Recent advances in silk processing and manufacturing have underpinned a re-interpretation of silk from textiles to technological materials. Here, it is argued that silk materials-optimized by selective pressure to work in the environment at the biotic-abiotic interface-can be harnessed by human micro- and nanomanufacturing technology to impart new functionalities and opportunities. A critical overview of recent progress in silk technology is presented with emphasis on high-tech applications enabled by recent innovations in multilevel modifications, multiscale manufacturing, and multimodal characterization of silk materials. These advances have enabled successful demonstrations of silk materials across several disciplines, including tissue engineering, drug delivery, implantable medical devices, and biodissolvable/degradable devices.
丝绸是一种天然纤维,以其出色的机械性能而闻名,这些性能使得超轻且超强的纺织品得以制造。丝绸加工和制造方面的最新进展为从纺织品到技术材料对丝绸的重新诠释奠定了基础。在此,有人认为,通过在生物 - 非生物界面的环境中发挥作用的选择压力而优化的丝绸材料,可以被人类微纳制造技术所利用,以赋予新的功能和机遇。本文对丝绸技术的最新进展进行了批判性综述,重点关注通过丝绸材料的多级修饰、多尺度制造和多模态表征方面的最新创新所实现的高科技应用。这些进展已成功地在多个学科中展示了丝绸材料,包括组织工程、药物递送、可植入医疗设备以及生物可溶解/可降解设备。