一种新型p-GaN栅极HEMT数字蚀刻技术

Yuan Lin, Yueh-Chin Lin, F. Lumbantoruan, Chang Fu Dec, Burhanuddin Yeop Majilis, E. Chang
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引用次数: 5

摘要

我们演示了数字蚀刻(DE)工艺制备e模p-GaN/AIGaN/GaN HEMT。采用低功率氧(02)等离子体氧化和低功率三氯化硼(BCl3)等离子体蚀刻技术选择性去除p-GaN层。原子层蚀刻(ALE)的蚀刻速率为1.62 nm/周期,可达到70nm的深度。采用Ni/Au栅极金属的5µm源漏偏置长度(LSD)器件的漏极电流密度为365 mAlmm,阈值电压(VTH)为+1.8V,通断电流比为1.6×106,击穿电压(BV)为154V,静态导通电阻(RON)为8.47 Ω.mm。采用Ni/Au栅极金属的20µm LSD器件的漏极电流密度为211 mA/mm, VTH为+2V,通断电流比为1。2×106, BV为426V,静态RON为17.3 Ω.mm。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel Digital Etch Technique for p-GaN Gate HEMT
We demonstrate the digital etching (DE) process to fabricated E-mode p-GaN/AIGaN/GaN HEMT. DE process comprising low power oxygen (02) plasma oxidizing and low power boron trichloride (BCl3) plasma etching to selectively remove p-GaN layer. The atomic layer etching (ALE) has an etching rate of 1.62 nm/cycle to achieved depth of 70nm. The 5-µm source-drain offset length (LSD) device with Ni/Au gate metal demonstrated 365 mAlmm drain current density with threshold voltage (VTH) of +1.8V, on/off current ratio of 1.6×106, breakdown voltage (BV) of 154V, and static on-resistance (RON) of 8.47 Ω.mm. The 20-µm LSD device with Ni/Au gate metal demonstrated 211 mA/mm drain current density with VTH of +2V, and on/off current ratio of 1. 2×106, BV of 426V, and static RON of 17.3 Ω.mm.
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