Reprogrammable Assembly of Molecular Motor on Solid Surfaces via Dynamic   Bonds

doi:10.1002/smll.201700480

CORC > 北京大学 > 化学与分子工程学院

	Reprogrammable Assembly of Molecular Motor on Solid Surfaces via Dynamic Bonds
	Yu, Li ; Sun, Jian ; Wang, Qian ; Guan, Yan ; Zhou, Le ; Zhang, Jingxuan ; Zhang, Lanying ; Yang, Huai
刊名	SMALL
	2017
关键词	ROTARY MOTION MACHINES FUNCTIONALIZATION EXCHANGE
DOI	10.1002/smll.201700480
英文摘要	Controllable assembly of molecular motors on solid surfaces is a fundamental issue for providing them to perform physical tasks. However, it can hardly be achieved by most previous methods due to their inherent limitations. Here, a general strategy is designed for the reprogrammable assembly of molecular motors on solid surfaces based on dynamic bonds. In this method, molecular motors with disulfide bonds can be remotely, reversibly, and precisely attached to solid surfaces with disulfide bonds, regardless of their chemical composition and microstructure. More importantly, it not only allows encoding geometric information referring to a pattern of molecular motors, but also enables erasing and re-encoding of geometric information via hemolytic photocleavage and recombination of disulfide bonds. Thus, solid surfaces can be regarded as "computer hardware", where molecular motors can be reformatted and reprogramed as geometric information.; National Natural Science Foundation of China [51333001, 51573006, 51303007, 21204001]; Major Project of Beijing Science & Technology Program [Z151100003315023]; SCI(E); ARTICLE; 22; 13
语种	英语
内容类型	期刊论文
源URL	[http://ir.pku.edu.cn/handle/20.500.11897/472816]
专题	化学与分子工程学院工学院
推荐引用方式 GB/T 7714	Yu, Li,Sun, Jian,Wang, Qian,et al. Reprogrammable Assembly of Molecular Motor on Solid Surfaces via Dynamic Bonds[J]. SMALL,2017.
APA	Yu, Li.,Sun, Jian.,Wang, Qian.,Guan, Yan.,Zhou, Le.,...&Yang, Huai.(2017).Reprogrammable Assembly of Molecular Motor on Solid Surfaces via Dynamic Bonds.SMALL.
MLA	Yu, Li,et al."Reprogrammable Assembly of Molecular Motor on Solid Surfaces via Dynamic Bonds".SMALL (2017).