Rengifo Rolando F, Li Noel X, Sementilli Anthony, Lynn David G
Emory University, Departments of Biology and Chemistry, 1515 Dickey Dr. NE, Atlanta, GA 30322, USA.
Org Biomol Chem. 2017 Aug 30;15(34):7063-7071. doi: 10.1039/c7ob01170a.
Living systems contain remarkable functional capability built within sophisticated self-organizing frameworks. Defining the assembly codes that coordinate these systems could greatly extend nanobiotechnology. To that end, we have highlighted the self-assembling architecture of the chlorosome antenna arrays and report the emulation and extension of their features for the development of cell-compatible photoredox materials. We specifically review work on amyloid peptide scaffolds able to (1) organize light-harvesting chromophores, (2) break peptide bilayer symmetry for directional energy and electron transfer, and (3) incorporate redox active metal ions at high density for energy storage.
生命系统在复杂的自组织框架内具备卓越的功能能力。定义协调这些系统的组装密码能够极大地拓展纳米生物技术。为此,我们着重介绍了叶绿体天线阵列的自组装结构,并报告了对其特性的模拟和扩展,以用于开发与细胞兼容的光氧化还原材料。我们特别回顾了关于淀粉样肽支架的研究工作,这些支架能够:(1)组织光捕获发色团;(2)打破肽双层对称性以实现定向能量和电子转移;(3)高密度掺入氧化还原活性金属离子以进行能量存储。