Broadband luminescence of Ni2+-doped Zn(GaxAl1−x)2O4-based glass–ceramics

IF 2.1 3区 材料科学 Q2 MATERIALS SCIENCE, CERAMICS
Francesco Bour, Jean-René Duclère, Pierre Carles, Sébastien Chenu, Mathieu Allix, Jean-Louis Auguste, Georges Humbert, Gaëlle Delaizir
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引用次数: 0

Abstract

Ni2+-doped glass–ceramics containing Zn(GaxAlx−1)2O4 crystals were successfully synthetized using both parent glass crystallization (Technique 1) and a direct doping method also called “frozen sorbet” (Technique 2) to get a ZnGa2O4 crystal/glass composite. The frozen sorbet technique allows the survival of ∼10 nm crystalline particles. Both materials are further crystallized near their respective temperature of crystallization to get glass–ceramics with the stabilization of Zn(GaxAlx−1)2O4 crystals. Although these two materials exhibit the same glass transition temperature, a shift in the crystallization temperature is observed. The glass–ceramics are transparent in the near infrared range, and the Ni2+ doping provides a broadband emission centered around 1300 nm with a full width at half-maximum (FWHM) equal to 228 nm. The structure, microstructure, and thermal and optical properties of these materials are discussed in the present study.

掺杂 Ni2+ 的 Zn(GaxAl1-x)2O4 基玻璃陶瓷的宽带发光特性
采用母玻璃结晶法(技术 1)和直接掺杂法(也称为 "冷冻冰沙法")(技术 2)成功合成了含有 Zn(GaxAlx-1)2O4 晶体的 Ni2+ 掺杂玻璃陶瓷,从而获得了 ZnGa2O4 晶体/玻璃复合材料。冷冻冰沙技术可使 10 纳米以下的晶体颗粒存活下来。这两种材料在各自的结晶温度附近进一步结晶,得到由 Zn(GaxAlx-1)2O4 晶体稳定的玻璃陶瓷。虽然这两种材料的玻璃化温度相同,但结晶温度发生了变化。玻璃陶瓷在近红外范围内是透明的,掺杂的 Ni2+ 提供了以 1300 纳米为中心的宽带发射,半最大值全宽(FWHM)等于 228 纳米。本研究讨论了这些材料的结构、微观结构以及热和光学特性。
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来源期刊
International Journal of Applied Glass Science
International Journal of Applied Glass Science MATERIALS SCIENCE, CERAMICS-
CiteScore
4.50
自引率
9.50%
发文量
73
审稿时长
>12 weeks
期刊介绍: The International Journal of Applied Glass Science (IJAGS) endeavors to be an indispensable source of information dealing with the application of glass science and engineering across the entire materials spectrum. Through the solicitation, editing, and publishing of cutting-edge peer-reviewed papers, IJAGS will be a highly respected and enduring chronicle of major advances in applied glass science throughout this century. It will be of critical value to the work of scientists, engineers, educators, students, and organizations involved in the research, manufacture and utilization of the material glass. Guided by an International Advisory Board, IJAGS will focus on topical issue themes that broadly encompass the advanced description, application, modeling, manufacture, and experimental investigation of glass.
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