Lee Andrew J, Wälti Christoph
Bioelectronics, The Pollard Institute, School of Electronic & Electrical Engineering, University of Leeds, LS2 9JT, United Kingdom.
Comput Struct Biotechnol J. 2019 Jun 14;17:832-842. doi: 10.1016/j.csbj.2019.06.013. eCollection 2019.
At its inception DNA nanotechnology was conceived as a tool for spatially arranging biological molecules in a programmable and deterministic way to improve their interrogation. To date, DNA nanotechnology has provided a versatile toolset of nanostructures and functional devices to augment traditional single molecule investigation approaches - including atomic force microscopy - by isolating, arranging and contextualising biological systems at the single molecule level. This review explores the state-of-the-art of DNA-based nanoscale tools employed to enhance and tune the interrogation of biological reactions, the study of spatially distributed pathways, the visualisation of enzyme interactions, the application and detection of forces to biological systems, and biosensing platforms.
在其诞生之初,DNA纳米技术被设想为一种以可编程和确定性方式在空间上排列生物分子以改进对其研究的工具。迄今为止,DNA纳米技术已经提供了一套多功能的纳米结构和功能器件工具集,通过在单分子水平上分离、排列和关联生物系统,来增强包括原子力显微镜在内的传统单分子研究方法。本综述探讨了用于增强和调节生物反应研究、空间分布途径研究、酶相互作用可视化、对生物系统施加和检测力以及生物传感平台的基于DNA的纳米级工具的现状。