Energy transfer of Er3+-Nd3+ co-doped in tellurite glass via energy level match

IF 2.4 4区 物理与天体物理 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY Current Applied Physics Pub Date : 2024-06-11 DOI:10.1016/j.cap.2024.06.005
Qun Wang, Changyuan Xu, Fengjiao Zhao, Hongming Yin
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Abstract

Er3+/Nd3+ co-doped tellurate glass was prepared by melt quenching method. The relationship between the energy levels of two rare earth ions was studied by absorption spectra and excitation spectra. At 379/407/488 nm excitation, visible light, near-infrared (NIR) emission spectra, and fluorescence attenuation curves were measured. The NIR emission spectrum and fluorescence lifetime show that Er3+ can transfer energy to Nd3+, thus enhancing the NIR emission of Nd3+ in tellurate glass. In the co-doped sample, under excitation of 379/407/488 nm, the NIR emission of Nd3+ has a concentration quenching point related to Er3+, and the optimal co-doped concentration is 1mol% ErF3. At 365/451 nm excitation, NIR emission was not enhanced and no energy transfer occurred. In contrast to the energy transfer between conventional Er3+-Nd3+ co-doped glasses, this paper investigates the effect of matching the higher Er3+ energy levels with adjacent Nd3+ levels on the energy transfer. The energy transfer process of Er3+-Nd3+ co-doped glasses is studied in the energy level diagram.

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通过能级匹配实现碲玻璃中掺杂 Er3+-Nd3+ 的能量转移
采用熔融淬火法制备了 Er3+/Nd3+ 共掺杂碲酸玻璃。通过吸收光谱和激发光谱研究了两种稀土离子能级之间的关系。在 379/407/488 nm 激发波长下,测量了可见光、近红外发射光谱和荧光衰减曲线。近红外发射光谱和荧光寿命表明,Er3+ 可以将能量转移给 Nd3+,从而增强碲化镉玻璃中 Nd3+ 的近红外发射。在共掺杂样品中,在 379/407/488 nm 的激发下,Nd3+ 的近红外发射有一个与 Er3+ 有关的浓度淬灭点,最佳共掺杂浓度为 1mol% ErF3。在 365/451 纳米激发下,近红外发射没有增强,也没有发生能量转移。与传统的 Er3+-Nd3+ 共掺玻璃之间的能量传递不同,本文研究了较高的 Er3+ 能级与相邻的 Nd3+ 能级相匹配对能量传递的影响。通过能级图研究了 Er3+-Nd3+ 共掺玻璃的能量传递过程。
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来源期刊
Current Applied Physics
Current Applied Physics 物理-材料科学:综合
CiteScore
4.80
自引率
0.00%
发文量
213
审稿时长
33 days
期刊介绍: Current Applied Physics (Curr. Appl. Phys.) is a monthly published international journal covering all the fields of applied science investigating the physics of the advanced materials for future applications. Other areas covered: Experimental and theoretical aspects of advanced materials and devices dealing with synthesis or structural chemistry, physical and electronic properties, photonics, engineering applications, and uniquely pertinent measurement or analytical techniques. Current Applied Physics, published since 2001, covers physics, chemistry and materials science, including bio-materials, with their engineering aspects. It is a truly interdisciplinary journal opening a forum for scientists of all related fields, a unique point of the journal discriminating it from other worldwide and/or Pacific Rim applied physics journals. Regular research papers, letters and review articles with contents meeting the scope of the journal will be considered for publication after peer review. The Journal is owned by the Korean Physical Society.
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