SAMS Research Group-icFRC, Institut Charles Sadron, CNRS-UPR 22, 23 rue du Loess, BP 84087, 67034 Strasbourg cedex 2, France.
Adv Mater. 2013 Jan 18;25(3):477-87. doi: 10.1002/adma.201201949. Epub 2012 Sep 12.
Supramolecular organic electronics rests on the use of bottom-up chemical self-assembly processes in order to design conducting components on the 5-100 nm scale. The challenges in this field are both the construction of 1D-nanostructures displaying optimized transport properties and their precise connections to electrodes. The present Research News highlights important advances in such materials regarding their electrical performances, from semiconductors to organic metals, but also regarding their processability. In particular, by externally controlling light-responsive supramolecular polymerization processes, and by using appropriate methods of casting with an applied electric field, it becomes possible to pre-determine the accurate positioning of organic interconnects within patterned nano-circuitry. These strategies using external stimuli to obtain addressability, thus hold promising alternatives to other conducting materials such as carbon nanotubes for further technological applications in nanosciences.
基于自下而上的化学自组装过程,超分子有机电子学旨在设计 5-100nm 尺度的导电元件。该领域的挑战在于构建具有优化传输性能的一维纳米结构,并将其与电极精确连接。本期 Research News 重点介绍了在半导体到有机金属等方面,这些材料在电学性能以及加工性能方面的重要进展。特别是,通过外部控制光响应超分子聚合过程,并采用施加电场的适当浇铸方法,可以预先确定有机互连在图案纳米电路中的精确位置。这些使用外部刺激来获得可寻址性的策略为进一步在纳米科学中应用其他导电材料(如碳纳米管)提供了有前途的替代方案。