• 综述 •
陈琳, 陈捷锋, 刘一任, 刘玉玉, 凌海峰, 解令海. 有机张力半导体及其光电特性[J]. 化学进展, 2022, 34(8): 1772-1783.
Lin Chen, Jie-Feng Chen, Yi-Ren Liu, Yuyu Liu, Hai-Feng Ling, Ling-Hai Xie. Organic Strained Semiconductors and Their Optoelectronic Properties[J]. Progress in Chemistry, 2022, 34(8): 1772-1783.
分子张力作为空间设计的重要组成部分正成为调控有机半导体的重要手段。由于分子内产生的拉伸张力、扭曲/弯曲张力以及空间张力而导致p轨道排布重组和构型构象结构发生变化,最近各种几何与拓扑结构的高张力有机半导体材料相继被报道,这使得高张力有机半导体材料成为有机电子领域研究的焦点。为了进一步梳理分子张力在有机半导体材料中扮演的角色与价值,该综述从分子张力的类型、实验与理论量化以及可视化出发,总结了高张力共轭芳烃的分子设计策略、与其光电性能分子张力之间的关系,以及这类新兴材料在光电领域的应用。最后,对高张力共轭芳烃的研究前景进行了展望,阐述了该类材料所面临的机遇与挑战。
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n in [n]CPP | Strain energy/ kcal·mol-1 | 1H NMR/ppm | 13C NMR/ppm | UV/nm | PL/nm | ΦF |
---|---|---|---|---|---|---|
5(14) | 117.20 | 7.85 | 126.61,131.97 | 335 | - | 0 |
6(15) | 97.23 | 7.63 | 127.03, 134.88 | 338 | - | 0 |
7(16) | 85.20 | 7.48 | 127.4,136.8 | 339 | 592 | 0.01 |
8(17) | 73.40 | 7.48 | 127.60,137.81 | 340 | 540 /533 | 0.1 |
9(18) | 66.82 | 7.52 | 127.51,138.02 | 341 | 494 | 0.38 |
10(19) | 58.93 | 7.56 | 127.51,138.29 | 341 | 470 | 0.65 |
11(20) | 54.83 | 7.58 | 127.40,138.49 | 340 | 437/458 | 0.73 |
12(21) | 49.05 | 7.61 | 127.33,138.49 | 339 | 426/450/428,450 | 0.81 |
13(22) | 46.45 | 7.64 | 127.49,138.77 | 338 | 424/446 | - |
14(23) | 42.10 | 7.65 | 127.3,138.8 | 338c | 418/443 | 0.89 |
15(24) | 40.23 | 7.67 | 127.3,138.8 | 339c | 416/440 | 0.9 |
16(25) | 36.76 | 7.68 | 127.3,138.9 | 339c | 415/438 | 0.8 |
Optimized at B3LYP/6-31G(d) level |
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