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硫代镓酸锂的热物理性质对光学应用很重要。

Thermophysical properties of lithium thiogallate that are important for optical applications.

作者信息

Kurus Alexey, Yelisseyev Alexander, Lobanov Sergei, Plyusnin Pavel, Molokeev Maxim, Solovyev Leonid, Samoshkin Dmitry, Stankus Sergei, Melnikova Svetlana, Isaenko Lyudmila

机构信息

Novosibirsk State University 2 Pirogov str. Novosibirsk 630090 Russia

Sobolev Institute of Geology and Mineralogy SB RAS 3 Kopyug ave. Novosibirsk 630090 Russia.

出版信息

RSC Adv. 2021 Dec 8;11(62):39177-39187. doi: 10.1039/d1ra05698k. eCollection 2021 Dec 6.

DOI:10.1039/d1ra05698k
PMID:35492447
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9044440/
Abstract

Lithium thiogallate LiGaS is one of the most common nonlinear crystals for mid-IR due to its extreme beam strength and wide transparency range; however, its thermophysical properties have not yet been practically studied. Large crystals of high optical quality are grown. DTA revealed features at 1224 K below melting point (1304 K) that are associated with the oxygen containing compounds of the LiGaO S type. The thermal conductivity of LiGaS (about 10.05 W (m K)) and band gap value (3.93 eV at 300 K) are found to be the highest in the LiBC family. Isotropic points in the dispersion characteristics for the refractive index are found and LiGaS-based narrow-band optical filters, smoothly tunable with temperature changes, are demonstrated. Intense blue photoluminescence of anionic vacancies is observed at room temperature after annealing LiGaS in vacuum, whereas orange low-temperature emission is related to self-trapped excitons. When LiGaS crystals are heated, spontaneous luminescence (pyroluminescence) takes place, or thermoluminescence after preliminary UV excitation; the parameters of traps of charge carriers are estimated. The obtained data confirm the high optical stability of this material and open up prospects for the creation of new optical devices based on LiGaS.

摘要

硫代镓酸锂LiGaS由于其极高的光束强度和宽透明范围,是中红外波段最常见的非线性晶体之一;然而,其热物理性质尚未得到实际研究。生长出了高质量的大晶体。差示热分析(DTA)揭示了在熔点(1304K)以下1224K处与LiGaO S型含氧化合物相关的特征。发现硫代镓酸锂的热导率(约10.05W/(m·K))和带隙值(300K时为3.93eV)在LiBC族中是最高的。发现了折射率色散特性中的各向同性点,并展示了基于硫代镓酸锂的窄带光学滤波器,其可随温度变化进行平滑调谐。在真空中对硫代镓酸锂进行退火后,室温下观察到阴离子空位的强烈蓝光光致发光,而橙色低温发射与自陷激子有关。当硫代镓酸锂晶体受热时,会发生自发发光(热发光),或在初步紫外线激发后产生热释光;估计了电荷载流子陷阱的参数。所获得的数据证实了这种材料的高光学稳定性,并为基于硫代镓酸锂的新型光学器件的创造开辟了前景。

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