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解锁用于白光发光二极管和植物生长照明应用的石榴石荧光粉中的双锰/锰发射。

Unlocking dual Mn/Mn emissions in garnet phosphors for WLED and plant growth lighting applications.

作者信息

Thi Thu Khuat, Huan Vu Dinh, Tu Nguyen, Quang Trung Do, Van Du Nguyen, Van Quang Nguyen, Ngoc Bach Ta, Tien Ha Le, Duy Hung Nguyen, Viet Dao Xuan, Tuan Nguyen Tri, Hieu Nguyen Minh, Tran Manh Trung, Thanh Huy Pham

机构信息

Faculty of Materials Science and Engineering, Phenikaa University Yen Nghia, Ha-Dong District Hanoi 10000 Vietnam

Faculty of Fundamental Science, Phenikaa University Yen Nghia, Ha-Dong District Hanoi 10000 Vietnam

出版信息

RSC Adv. 2025 Mar 17;15(11):8275-8286. doi: 10.1039/d5ra00345h.

Abstract

Garnet-based lattices (ABO) have emerged as promising hosts for Mn co-doping due to their wide band gap and robust mechanical properties. However, challenges in stabilizing Mn, balancing Mn/Mn emissions, and optimizing synthesis for thermal stability and efficiency have limited practical applications. In this study, GdGaO (GGG) garnet was synthesized with Mn and Mn co-doping a simple solid-state reaction. The incorporation of Mn ions into octahedral [GaO] sites and optimizing the synthesis condition to enhance photoluminescence (PL) properties were investigated. The phosphor achieved 100% color purity, 0.32 eV activation energy, 20.0% internal quantum efficiency, and a 0.0408 ms lifetime. A prototype pc-LED was fabricated, demonstrating that the Mn/Mn-doped Garnet-based phosphor can be used as potential WLED and plant growth LED components. These results provide insights into stabilizing Mn, controlling Mn/Mn balance, and improving thermal stability for advanced lighting applications.

摘要

基于石榴石的晶格(ABO)由于其宽带隙和强大的机械性能,已成为锰共掺杂的有前途的基质。然而,在稳定锰、平衡锰/锰发射以及优化热稳定性和效率的合成方面存在的挑战限制了其实际应用。在本研究中,通过简单的固态反应合成了掺锰和锰共掺杂的钆镓氧(GGG)石榴石。研究了将锰离子掺入八面体[GaO]位点并优化合成条件以增强光致发光(PL)性能。该荧光粉实现了100%的色纯度、0.32 eV的激活能、20.0%的内量子效率和0.0408 ms的寿命。制作了一个原型pc-LED,证明了掺锰/锰的石榴石基荧光粉可作为潜在的白光发光二极管和植物生长发光二极管组件。这些结果为稳定锰、控制锰/锰平衡以及改善高级照明应用的热稳定性提供了见解。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/6cf9/11912355/8e7d14a80613/d5ra00345h-f1.jpg

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