Department of Chemical and Materials Engineering, National Central University, Jhongli District, Taoyuan City, 320, Taiwan (R.O.C.
Department of Chemical & Materials Engineering, Chang Gung University/Department of Pediatrics, Chang Gung Memorial Hospital, Linkou, Taoyuan, 333, Taiwan (R.O.C.
Chem Rec. 2021 Dec;21(12):3498-3508. doi: 10.1002/tcr.202100101. Epub 2021 May 5.
Synthetic organic chemists endeavor to develop new reaction conditions, improve product yields, and enhance atom economy (synthetic methodologies), whereas the material scientists strive to create novel functional molecules/structures, increase device stabilities, and promote power conversion efficiencies via device engineering (organic optoelectronics). However, these two prominent research fields seem to have no intersections. Since joining national central university in 2012, our research philosophy aims to narrow, or rather to bridge the gap between synthetic methodologies and π-functional organic materials. In contrast to using multistep synthetic approaches based on Suzuki- or Stille coupling reactions, this personal account describes various step-saving and viable synthesis-shortcuts developed by our group, to access thiophene-based small molecules for optoelectronic applications. We expect these succinct and user-friendly alternative pathways designed by synthetic chemists would help material scientists to reach their target molecules in a more step-economical manner.
合成有机化学家努力开发新的反应条件,提高产品收率,并提高原子经济性(合成方法学),而材料科学家则努力创造新型功能分子/结构,提高器件稳定性,并通过器件工程(有机光电)提高功率转换效率。然而,这两个突出的研究领域似乎没有交集。自 2012 年加入国立中央大学以来,我们的研究理念旨在缩小,或者更确切地说,弥合合成方法学和π功能有机材料之间的差距。与使用基于 Suzuki 或 Stille 偶联反应的多步合成方法不同,本个人报告描述了我们小组开发的各种节省步骤和可行的合成捷径,以获得用于光电应用的噻吩基小分子。我们希望合成化学家设计的这些简洁且用户友好的替代途径将帮助材料科学家以更经济的方式达到他们的目标分子。