Inkjet Printing of Yb:YAG Transparent Ceramic Planar Waveguide Laser Gain Medium

IF 3.7 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Haoran Wang, Wenlan Gao, Jian Zhang, Jie Ma, Haohao Ji, Mengmeng Xie, Xiaojian Mao, Shiwei Wang, Lei Wang, Yuan Gao
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Abstract

Herein, a YAG/10 at% Yb:YAG/YAG transparent ceramic planar waveguide (PWG) gain medium has been molded via inkjet printing and dry pressing molding. The composition and rheological property of ink are optimized along with the printing process to enhance the printing accuracy and quality. The PWG has dimensions of 13.5 × 8.0 × 1.8 mm3, while the thickness of the core Yb:YAG layer is ≈190 μm. The in-line transmittance of the PWG reaches 81.7% at 1030 nm, and the average grain size is ≈2.3 μm. The diffusion characteristics of Yb ions across the interface between the cladding YAG layer and the core Yb:YAG layer are investigated by calculating the diffusion coefficient and the mean diffusion distance of 172Yb ions. The Yb:YAG PWG oscillator, which is pumped from a single end by a 940 nm laser diode, produces continuous wave laser at a wavelength of 1030 nm and exhibits the highest power (3.8 W) and highest absorbed–output slope efficiency (64.6%).

Abstract Image

喷墨打印 Yb:YAG 透明陶瓷平面波导激光增益介质
在此,通过喷墨打印和干压成型技术,一种 YAG/10 at% Yb:YAG/YAG 透明陶瓷平面波导 (PWG) 增益介质得以成型。在打印过程中,对墨水的成分和流变特性进行了优化,以提高打印精度和质量。PWG 的尺寸为 13.5 × 8.0 × 1.8 mm3,核心 Yb:YAG 层的厚度为 ≈190 μm。PWG 在 1030 纳米波长的在线透射率达到 81.7%,平均晶粒大小≈2.3 μm。通过计算 172Yb 离子的扩散系数和平均扩散距离,研究了 Yb 离子在包层 YAG 层和核心 Yb:YAG 层之间的扩散特性。Yb:YAG PWG 振荡器由一个 940 nm 激光二极管从单端泵浦,产生波长为 1030 nm 的连续波激光,功率最大(3.8 W),吸收-输出斜率效率最高(64.6%)。
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