重离子注入增强氮化镓图像化的湿法刻蚀

Yuan Gao, C. Lan, J. Xue, Sha Yan, Yugang Wang, F. Xu, B. Shen
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引用次数: 0

摘要

本文研究了注入Au离子的氮化镓涂层的增强湿法刻蚀。采用500 keV的Au+离子注入和KOH蚀刻,获得了2 μ m宽的槽状条带的图像化GaN。研究了在不同离子影响下注入的蚀刻深度与蚀刻时间的关系。在3×1016 cm−2的影响下,氮化镓表面腐蚀明显。实验表明,在高离子影响下,损伤的GaN区域可以完全蚀刻出来,蚀刻深度可以超过入射500 keV Au+离子的规划范围。在高通量注入和较长的蚀刻时间下,可以实现~ 400nm深度的蚀刻,并且蚀刻区域的边缘可以保持清晰,直到蚀刻过程通过80 min。在注入过程中,用沉积的SiO2球掩盖GaN样品,研究其蚀刻效果。观察到GaN表面的~ 70nm波。我们的实验结果可能为GaN器件的制造提供了一种方法。
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Enhanced wet etching of patterned GaN with heavy-ion implantation
We present the enhanced wet etching of GaN epilayer implanted with Au+ ion. Patterned GaN with 2µm-wide sink-like strips was achieved by using 500 keV Au+ ion implantation and KOH etching. The Dependence of etching depth on etching time for the implantation at different ion fluences was investigated. Erosion of GaN surface was obvious with implantation at the fluence of 3×1016 cm−2. The experiment showed that the damaged GaN area could be completely etched out at high ion fluence, and the etching depth could exceed the project range of incident 500 keV Au+ ion. The ∼400nm depth etching could be achieved with high fluence implantation and a long etching time, and the edge of etched area could remain clear until the etching process passes 80 mins. As-deposited SiO2 spheres were used to mask the GaN sample in implantation process to investigate the etching effect. ∼70nm wave of the GaN surface was observed. The results of our experiments may suggest an approach to the fabricating of GaN devices.
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