| Literature DB >> 28387470 |
Ming Li1, Mengyao Song1, Guitai Wu2, Zhenyu Tang1, Yunfeng Sun1, Yunbin He3, Jinhua Li3, Lei Li3, Haoshuang Gu2, Xiong Liu4, Chuang Ma1, Zefei Peng1, Zhaoquan Ai1, David J Lewis5.
Abstract
In many 2D materials reported thus far, the forces confining atoms in a 2D plane are often strong interactions, such as covalent bonding. Herein, the first demonstration that hydrogen (H)-bonding can be utilized to assemble polydiacetylene (a conductive polymer) toward a 2D material, which is stable enough to be free-standing, is shown. The 2D material is well characterized by a large number of techniques (mainly different microscopy techniques). The H-bonding allows splitting of the material into ribbons, which can reassemble, similar to a zipper, leading to the first example of a healable 2D material. Moreover, such technology can easily create 2D, organic, conductive nanowire arrays with sub-2-nm resolution. This material may have potential applications in stretchable electronics and nanowire cross-bar arrays.Entities:
Keywords: 2D materials; hydrogen bonding; polydiacetylene; self-healing; supramolecules
Year: 2017 PMID: 28387470 DOI: 10.1002/smll.201604077
Source DB: PubMed Journal: Small ISSN: 1613-6810 Impact factor: 13.281