Li Qiuping, Ouyang Hongxia, Yang Xinghui, Wang Qi, Ding Yonghong, Yu Haichao, Rao Zhi
FuZhou AI Drug Innovation Center, School of Pharmacy, Fuzhou Medical College of Nanchang University Fuzhou 344000 China
Applied System Engineer, Gandong University Fuzhou Jiangxi 344000 China.
RSC Adv. 2025 Jul 21;15(32):25885-25893. doi: 10.1039/d5ra03377b.
Lanthanide organic-inorganic hybrid fluorescent materials are considered as promising candidates for next-generation lighting materials due to their unique optical properties and potential applications. In this work, commercialized silica materials (fumed silica) were selected as the carrier. By means of the bridging function of silane coupling agents, Eu(TTA)(Phen) was covalently grafted onto the surface of fumed silica to synthesize lanthanide hybrid phosphors. Subsequently, the phosphor was dispersed into the MMA polymerization system, and a monolithic fluorescent organic glass was fabricated polymerization. Both the obtained europium hybrid phosphor and the europium complex-doped organic glass exhibited intense red fluorescence under UV light and possessed the characteristics of broad absorption, narrow emission, and long fluorescence lifetime. The design and synthesis process is straightforward and cost-effective, making this approach highly valuable for the development and advancement of novel rare earth hybrid luminescent materials.
镧系有机-无机杂化荧光材料因其独特的光学性质和潜在应用,被认为是下一代照明材料的有前途的候选者。在这项工作中,选择商业化的二氧化硅材料(气相二氧化硅)作为载体。通过硅烷偶联剂的桥联作用,将Eu(TTA)(Phen)共价接枝到气相二氧化硅表面,合成镧系杂化荧光粉。随后,将荧光粉分散到MMA聚合体系中,通过聚合制备了整体式荧光有机玻璃。所制备的铕杂化荧光粉和铕配合物掺杂的有机玻璃在紫外光下均表现出强烈的红色荧光,具有宽吸收、窄发射和长荧光寿命的特点。该设计与合成过程简单且成本效益高,使得这种方法对于新型稀土杂化发光材料的开发和进步具有很高的价值。