On-surface polymerisation and self-assembly of DPP-based molecular wires†

IF 3.2 3区 工程技术 Q2 CHEMISTRY, PHYSICAL
Michael Clarke, Abigail Bellamy-Carter, Ferdinando Malagreca, Jack Hart, Stephen P. Argent, James N. O'Shea, David B. Amabilino and Alex Saywell
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引用次数: 0

Abstract

The incorporation of organic semiconducting materials within solid-state electronic devices provides a potential route to highly efficient photovoltaics, transistors, and light emitting diodes. Key to the realisation of such devices is efficient intramolecular charge transport within molecular species, as well as intermolecular/interdomain transport, which necessitates highly ordered supramolecular domains. The on-surface synthesis of polymeric organic materials (incorporating donor and/or acceptor moieties) is one pathway towards the production of highly ordered molecular domains. Here we study the formation of a polymer based upon a diketopyrrolopyrrole (DPP) monomer unit, possessing aryl-halide groups to facilitate on-surface covalent coupling and functionalised with alkyl chains which drive the self-assembly of both the monomer material prior to reaction and the domains of polymeric material following on-surface synthesis. The self-assembled structure of close-packed domains of the monomer units, and the ordered polymers, are investigated and characterised using scanning tunnelling microscopy and X-ray photoelectron spectroscopy.

Abstract Image

dpp基分子线的表面聚合和自组装
有机半导体材料在固态电子器件中的结合为高效光伏、晶体管和发光二极管提供了一条潜在的途径。实现这种器件的关键是分子物种内有效的分子内电荷传输,以及分子间/区域间的传输,这需要高度有序的超分子区域。高分子有机材料的表面合成(包括供体和/或受体部分)是生产高度有序分子结构域的一种途径。在这里,我们研究了一种基于二酮吡咯(DPP)单体单元的聚合物的形成,该聚合物具有芳基卤化物基团以促进表面共价偶联,并与烷基链官能化,烷基链在反应前驱动单体材料的自组装,并在表面合成后驱动聚合物材料的域。使用扫描隧道显微镜和x射线光电子能谱研究了单体单元紧密排列域的自组装结构和有序聚合物。
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来源期刊
Molecular Systems Design & Engineering
Molecular Systems Design & Engineering Engineering-Biomedical Engineering
CiteScore
6.40
自引率
2.80%
发文量
144
期刊介绍: Molecular Systems Design & Engineering provides a hub for cutting-edge research into how understanding of molecular properties, behaviour and interactions can be used to design and assemble better materials, systems, and processes to achieve specific functions. These may have applications of technological significance and help address global challenges.
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