Sun Ningru, Sun Lei, Yu Yinghui, Peng Zhenbo, Du Shiyu, Liu Zhen
School of Chemical Engineering, Ningbo Polytechnic, Ningbo 315800, China.
Ningbo Multidimensional Space Time Intelligent Equipment Co., Ltd, Ningbo 315000, China.
ACS Omega. 2025 Mar 13;10(11):11168-11175. doi: 10.1021/acsomega.4c10465. eCollection 2025 Mar 25.
We synthesized two enantiomeric three-dimensional chiral coordination polymers, [Cu((R)-CIA)(HO)]·3HO () and [Cu((S)-CIA)(HO)]·3HO (), using 5-(1-carboxyethoxy) isophthalic acid as the organic linker. Crystal structure analysis revealed that both and exhibit complex and fascinating three-dimensional self-penetrating structures. Further characterization of the properties revealed that exhibits notable photoluminescence (PL) and magnetic behaviors. Specifically, photoluminescence measurements showed that when excited at 390 nm (λ = 390 nm), displays maximum emission peaks at 445 and 470 nm, indicating a strong fluorescence emission. The magnetic susceptibility measurements reveal that these coordination polymers exhibit pronounced antiferromagnetic behavior. By integrating the crystal structure with the performance analysis, it is demonstrated that and , as chiral coordination polymers, not only show distinct photoluminescent and magnetic characteristics but also provide crucial experimental and theoretical insights for the development and application of chiral functional materials. These research findings provide a solid foundation for the future development of multifunctional materials based on chiral metal coordination polymers, which are expected to play a significant role in areas such as optoelectronic devices, magnetic materials, and catalysis.
我们使用5-(1-羧基乙氧基)间苯二甲酸作为有机连接体,合成了两种对映体三维手性配位聚合物,[Cu((R)-CIA)(HO)]·3HO () 和 [Cu((S)-CIA)(HO)]·3HO ()。晶体结构分析表明, 和 均呈现出复杂且迷人的三维自穿插结构。对其性质的进一步表征显示, 表现出显著的光致发光(PL)和磁行为。具体而言,光致发光测量表明,当在390 nm(λ = 390 nm)激发时, 在445和470 nm处显示出最大发射峰,表明有强烈的荧光发射。磁化率测量表明,这些配位聚合物表现出明显的反铁磁行为。通过将晶体结构与性能分析相结合,证明了 和 作为手性配位聚合物,不仅表现出独特的光致发光和磁特性,而且为手性功能材料的开发和应用提供了关键的实验和理论见解。这些研究结果为基于手性金属配位聚合物的多功能材料的未来发展奠定了坚实基础,有望在光电器件、磁性材料和催化等领域发挥重要作用。