Seeman Nadrian C
Department of Chemistry, New York University, New York, NY 10003, USA.
Int J Nanotechnol. 2005 Oct 1;2(4):348-370. doi: 10.1504/IJNT.2005.008074.
Control of the structure of matter has been a major challenge to humankind for its entire history. The finer the features that that we are able to engineer, the greater the level of control that we have. Here, we summarize progress made in the bottom-up control of structure that is based on the self-assembly of nucleic acids. Nucleic acids are unique among molecular systems in that their intermolecular interactions can be programmed, from the perspectives of both affinity and of structure. Structural DNA nanotechnology has been based on directing the cohesion of branched DNA motifs by the same cohesive interactions used by genetic engineers. As a result, multiply-connected objects, periodic and aperiodic arrays and nanomechanical devices have been produced by these systems. Current experiments are directed at using nucleic acid systems to scaffold the spatial assembly of other species.
在人类的整个历史中,对物质结构的控制一直是一项重大挑战。我们能够设计出的特征越精细,我们所拥有的控制水平就越高。在此,我们总结了基于核酸自组装的自下而上的结构控制方面所取得的进展。核酸在分子系统中是独特的,因为从亲和力和结构的角度来看,它们的分子间相互作用都可以被编程。结构DNA纳米技术一直基于利用基因工程师所使用的相同粘性相互作用来引导分支DNA基序的凝聚。因此,这些系统已经产生了多重连接的物体、周期性和非周期性阵列以及纳米机械设备。当前的实验旨在利用核酸系统为其他物种的空间组装搭建支架。