Department of Chemical and Environmental Engineering, Yale University, New Haven, Connecticut.
Yale J Biol Med. 2013 Dec 13;86(4):527-36.
By interrogating nature at the length scale of important biological molecules (proteins, DNA), nanotechnology offers great promise to biomedicine. We review here our recent work on nanofilm biomaterials: "nanoscopically" thin, functional, polymer-based films serving as biocompatible interfaces. In one thrust, films containing carbon nanotubes are shown to be highly antimicrobial and, thus, to be promising as biomedical device materials inherently resistive to microbial infection. In another thrust, strategies are developed toward films of independently controllable bioactivity and mechanical rigidity - two key variables governing typical biological responses.
通过在重要生物分子(蛋白质、DNA)的长度尺度上研究自然,纳米技术为生物医学带来了巨大的希望。我们在这里回顾了我们最近在纳米薄膜生物材料方面的工作:“纳米级”薄、功能化、基于聚合物的薄膜,可用作生物相容性界面。一方面,含有碳纳米管的薄膜具有很强的抗菌性,因此有望成为具有抗微生物感染能力的生物医学器件材料。另一方面,我们还开发了能够独立控制生物活性和机械硬度的薄膜的策略——这两个关键变量控制着典型的生物学反应。