Figure-eight arylene ethynylene macrocycles: facile synthesis and specific binding behavior toward Hg2+

Literature Information

Publication Date 2021-09-29
DOI 10.1039/D1QO00812A
Impact Factor 5.281
Authors

Hui Nie, Qian-Hui Li, Siqi Zhang, Chuan-Ming Wang, Wen-Hui Lin, Ke Deng, Li-Jin Shu, Qing-Dao Zeng, Jun-Hua Wan


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Abstract

Figure-eight (lemniscular) shaped macrocycles, besides their esthetic beauty, often have interesting chiroptical properties. However, only limited figure-eight carbocyclic frameworks have been reported as yet and most of them have been acquired by dimerizing helicenes with inherently helical structures. Herein a novel figure-eight carbocyclic framework, lemniscular arylene ethynylene macrocycle (AEM), was firstly synthesized from non-helical precursors. By simply increasing the reactant concentration, intramolecular cyclization was effectively suppressed, while intermolecular cyclization was significantly increased to obtain figure-eight macrocycles in acceptable yields. Scanning tunneling microscopy (STM) investigation was firstly employed to confirm the figure-eight shape through molecular imaging. Furthermore, the figure-eight cyclization mechanism was systematically discussed. Interestingly, macrocycles bearing inner –NH2 groups (SPM-Q6-NH2 and SPM-Q12-NH2) showed a specific sensing behavior toward highly toxic Hg2+. Even more intriguing is that, compared to planar macrocycle SPM-Q6-NH2, its figure-eight dimer (SPM-Q12-NH2) exhibited much stronger complexation with Hg2+. This study opens up a new way to construct figure-eight conjugated carbocyclic macrocycles from an inherently non-helical precursor. More importantly, with this figure-eight AEM as a molecular platform, further structural derivations can be achieved through simple cycloaddition reactions with unsaturated bonds (ethynylene bonds and diyne bonds) or introducing donor–acceptor (D–A) structures.

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Organic Chemistry Frontiers

Organic Chemistry Frontiers
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