Dual-mode single-band ratiometric luminescence thermometry based on tunable thermal-responsive luminescence of Eu3

High-performing lanthanide (Ln3+)-based luminescence thermometry is gaining widespread attention for its remote temperature reading, broad temperature range, high sensitivity, resolution, and stability in various applications. However, facile strategies for constructing multi-mode luminescence therm...

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Veröffentlicht in:Optical materials 2024-03, Vol.149, p.115144, Article 115144
Hauptverfasser: Zhou, Junhe, Zhang, Ziyan, Wang, Zeyu, Sun, Hongshun, Cai, Yuan, Pan, Jintao, Wang, Ning, Yang, Zicong, Hu, Yongjia, Ji, Yujia, Wei, Yang, Ma, Lingling, Lu, Yanqing
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Sprache:eng
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Zusammenfassung:High-performing lanthanide (Ln3+)-based luminescence thermometry is gaining widespread attention for its remote temperature reading, broad temperature range, high sensitivity, resolution, and stability in various applications. However, facile strategies for constructing multi-mode luminescence thermometry based on a simple material system are still challenging. Herein, we propose a dual-mode single-band ratiometric (SBR) luminescence thermometry based on the tunable Eu3+ luminescence in La2(WO4)3 (LaWO). Eu3+-doped La2(WO4)3 (LaWO:Eu) phosphor was synthesized by the high-temperature solid-state method. The rigid lattice of LaWO allows high content of Eu3+ doping without concentration quenching of luminescence, which endows high fluorescence intensity. In addition, in-situ and dynamic regulations of thermal-responsive luminescent properties of Eu3+ are systematically investigated, which enables the construction of SBR luminescence thermometry. At temperatures from 300 to 500 K, the maximum absolute and relative sensitivities reach 0.032 K-1 and 0.85% K−1, respectively. The high sensitivity and stability indicate that our results provide a facile and effective strategy for developing multi-mode luminescence thermometry and hold potential applications in various fields. [Display omitted] •Luminescence thermometry based on La2(WO4)3:Eu3+ is reported for the first time.•Dual-mode SBR luminescence thermometry is realized simultaneously.•Tunable luminescence of Eu3+ enable high-performing luminescence thermometry based on a simple material system.
ISSN:0925-3467
1873-1252
DOI:10.1016/j.optmat.2024.115144