Just as a single polypeptide strand can self-fold into a complex 3D structure, a single strand
of DNA can self-fold into DNA origami. Most DNA origami structures (ie, the scaffold-staple …

Synthetic DNA motifs form the basis of nucleic acid nanotechnology. The biochemical and
biophysical properties of these motifs determine their applications. Here, we present a …

Facile fabrication and control over the self-assembly of π-conjugated block copolymers are
greatly desired in the field of organic semiconducting materials. In this work, polyfluorenes …

As a latecomer in DNA/RNA nanotechnology, the architecture of self-folded nucleic-acid
nanostructures has been attracting increasing research interests because of its vast …

Assembly of complex structures from a small set of tiles is a common theme in biology. For
example, many copies of identical proteins make up polyhedron-shaped, viral capsids and …

Molecular circuits crafted from DNA molecules harness the inherent programmability and
biocompatibility of DNA to intelligently steer molecular machines in the execution of …

Tile‐based DNA self‐assembly is a powerful approach for nano‐constructions. In this
approach, individual DNA single strands first assemble into well‐defined structural tiles …

细胞膜是细胞的外层包裹结构, 保护细胞内部免受外界干扰. 通过对细胞膜进行修饰,
引入特定的分子或结构, 可以实现对细胞命运和功能的调控, 从而赋予细胞特殊的功能. 近年来 …

Synthetic DNA motifs form the basis of nucleic acid nanotechnology, and their biochemical
and biophysical properties determine their applications. Here, we present a detailed …

Nucleic acids, including DNA and RNA molecules, have been widely used as materials for
building artificial structures in recent years. Since then, DNA nanotechnology has rapidly …