College of Electronic and Optical Engineering & College of Microelectronics, Nanjing University of Posts and Telecommunications, Nanjing, 210023, People's Republic of China.
Phys Chem Chem Phys. 2018 May 3;20(17):11516-11541. doi: 10.1039/c8cp00433a.
Bismuth with [Xe]4f145d106s26p3 electronic configuration is considered as 'a wonder metal' due to its diverse oxidation states and multi-type electronic structures. This review article summarizes the spectral properties of phosphors doped with Bi3+ or co-doped with Bi3+-Ren+ (n = 2, 3, 4), and highlights the critical role of Bi3+ in spectral modification. The energy transfer processes are discussed in detail, including (1) Bi3+ and metal-to-metal charge, (2) Bi3+ and tetravalent cation, (3) Bi3+ and trivalent cation, (4) Bi3+ and divalent cation, and (5) Bi3+ and two kinds of rare earth ions. The most important results obtained in each case are summarized, and the emerging challenges and future development of Bi3+-doped phosphors are discussed. We introduce a method for spectral modification based on the energy transfer between Bi3+ and other cations, with the perspective of development and application in the fields of phosphors, telecommunication, optical temperature sensing, biomedicine, and lasers.
具有 [Xe]4f145d106s26p3 电子构型的铋由于其多样的氧化态和多种类型的电子结构,被认为是一种“神奇金属”。本文综述了掺杂 Bi3+或共掺杂 Bi3+-Ren+(n=2,3,4)的荧光粉的光谱性质,并强调了 Bi3+在光谱修饰中的关键作用。详细讨论了能量传递过程,包括(1)Bi3+和金属-金属电荷转移,(2)Bi3+和四价阳离子,(3)Bi3+和三价阳离子,(4)Bi3+和二价阳离子,以及(5)Bi3+和两种稀土离子。总结了每种情况下最重要的结果,并讨论了 Bi3+掺杂荧光粉面临的新挑战和未来发展。我们介绍了一种基于 Bi3+与其他阳离子之间能量转移的光谱修饰方法,展望了其在荧光粉、电信、光学温度传感、生物医学和激光等领域的发展和应用。