Chair of Chemical Biology, Karlsruher Institut für Technologie, KIT, Institut für Biologsiche Grenzflächen 1, IBG-I, Herrmann-von-Helmholtz Platz 1, Campus Nord, Eggenstein-Leopoldshafen, 76344, Germany.
Angew Chem Int Ed Engl. 2017 Oct 23;56(44):13574-13589. doi: 10.1002/anie.201703806. Epub 2017 Sep 14.
Biological compartmentalization is a fundamental principle of life that allows cells to metabolize, propagate, or communicate with their environment. Much research is devoted to understanding this basic principle and to harness biomimetic compartments and catalytic cascades as tools for technological processes. This Review summarizes the current state-of-the-art of these developments, with a special emphasis on length scales, mass transport phenomena, and molecular scaffolding approaches, ranging from small cross-linkers over proteins and nucleic acids to colloids and patterned surfaces. We conclude that the future exploration and exploitation of these complex systems will largely benefit from technical solutions for the integrated, machine-assisted development and maintenance of a next generation of biotechnological processes. These goals should be achievable by implementing microfluidics, robotics, and added manufacturing techniques supplemented by theoretical simulations as well as computer-aided process modeling based on big data obtained from multiscale experimental analyses.
生物区室化是生命的基本原则,使细胞能够代谢、繁殖或与环境进行通信。许多研究致力于理解这一基本原则,并利用仿生区室和催化级联作为技术过程的工具。这篇综述总结了这些发展的最新进展,特别强调了长度尺度、质量输运现象和分子支架方法,从小交联剂到蛋白质和核酸,再到胶体和图案化表面。我们得出结论,这些复杂系统的未来探索和利用将在很大程度上受益于集成的、机器辅助的下一代生物技术过程的开发和维护的技术解决方案。这些目标可以通过实施微流控、机器人技术和添加制造技术来实现,同时辅以理论模拟以及基于从多尺度实验分析中获得的大数据的计算机辅助过程建模。