School of Chemical Engineering and Technology, Sun Yat-sen University, Zhuhai, 519082, Guangdong, P. R. China.
Chemistry. 2022 Dec 20;28(71):e202202478. doi: 10.1002/chem.202202478. Epub 2022 Oct 18.
Copper(I) halide organic-inorganic hybrid luminescent materials have many advantages, such as diverse structure, facile synthesis, high luminescent efficiency, tunable optical performance, etc., and show a broad application prospect in energy-saving lighting, display and other fields. However, compared with commercial rare-earth-metal-based phosphors, the reported hybrids generally suffer from poor stability and low luminescent efficiency, which are the bottleneck problem of their practical application. With the aim of developing high-performance organic-inorganic hybrid luminescent materials, a new synthesis strategy has been reported. This strategy can systematically design and synthesis copper(I) halide ionic hybrid structures by combining the covalent bonding and ionic bonding between inorganic and organic components into one structure, and use their synergistic effect to optimizing their properties. This design method is expected to develop high-performance organic-inorganic hybrid luminescent materials, promote the in-depth understanding of this field, and provide new ideas for the optimization of other types of hybrid materials.
铜(I)卤化物有机-无机杂化发光材料具有结构多样、合成简便、发光效率高、光学性能可调等优点,在节能照明、显示等领域具有广阔的应用前景。然而,与商业的稀土金属基荧光粉相比,所报道的杂化材料通常表现出较差的稳定性和较低的发光效率,这是其实际应用的瓶颈问题。为了开发高性能的有机-无机杂化发光材料,人们报道了一种新的合成策略。该策略可以通过将无机和有机成分之间的共价键和离子键结合到一个结构中,系统地设计和合成铜(I)卤化物离子杂化结构,并利用它们的协同效应来优化其性能。这种设计方法有望开发出高性能的有机-无机杂化发光材料,促进对该领域的深入了解,并为优化其他类型的杂化材料提供新的思路。