Multi-Watt Multi-Pass Amplification in a 42-mm-Long Yb:LuLiF4 Single Crystal Fiber Grown by the Micro-Pulling-Down Method

F. Pirzio, S. Jun, S. Tacchini, G. Piccinno, A. Di Lieto, M. Tonelli, A. Agnesi
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Abstract

By exploiting a more favourable surface/volume ratio for heat exchange and pump absorption distribution over significantly increased length, single crystal fibers (SCF) are considered promising candidate as a replacement for bulk crystals in high-power laser systems. So far, micro-pulling down (μ-PD) technique was successfully employed mainly in growing cubic crystals, most impressive results being obtained with Yb:YAG [1]. Birefringent sCf are also attractive, as they provide a quite straightforward means of avoiding beam quality degradation at high thermal load due to depolarization. The first Nd:YLF laser based on fiber crystals was reported in [2]. However, from the perspective of high-power applications, Ytterbium-doped materials are definitely more interesting, owing to the much smaller quantum defect and absence of excited-state absorption.
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微拉下法生长的42毫米长Yb:LuLiF4单晶光纤的多瓦多通放大
单晶光纤(SCF)利用更有利的表面/体积比在显著增加的长度上进行热交换和泵浦吸收分布,被认为是高功率激光系统中块状晶体的替代品。迄今为止,微拉下(μ-PD)技术主要成功地应用于立方晶体的生长,最令人印象深刻的结果是Yb:YAG[1]。双折射sCf也很有吸引力,因为它们提供了一种非常直接的方法,避免在高热负荷下由于去极化而导致的光束质量下降。2010年首次报道了基于光纤晶体的Nd:YLF激光器。然而,从大功率应用的角度来看,掺镱材料肯定更有趣,因为量子缺陷小得多,没有激发态吸收。
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