A high-barrier gate and tri-step doped channel transistor

W. Liu, H. Pan, W. Chang, K. Yu, S. Feng, J. Yan
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Abstract

A new GaInP/GaAs high-barrier gate and tri-step doped channel heterostructure field-effect transistor (HFET) has been successfully fabricated and demonstrated. A very thin and heavily doped /spl delta/(p/sup +/)-GaInP layer is introduced to increase the high gate turn-on and breakdown voltage and reduce the gate leakage current. A low-medium-high tri-step doped channel structure is used to improve the output current drivability and average transconductance. In addition, a metal-semiconductor field-effect transistor (MESFET) with the same tri-step doped channel structure has also been fabricated for comparison. The studied devices show the good performances of high breakdown voltage, high output drain saturation current and flat and wide transconductance operation regimes. The measured cut-off frequency (f/sub T/) is higher than 15 GHz. From experimental results, the studied devices show good potential in high-power and large input signal circuit applications.
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一种高势垒栅极三阶掺杂沟道晶体管
成功制备并演示了一种新型GaInP/GaAs高势垒三阶掺杂沟道异质结构场效应晶体管(HFET)。引入极薄且重掺杂的/spl δ /(p/sup +/)-GaInP层以提高高栅极导通和击穿电压,降低栅极漏电流。采用低-中-高三阶掺杂沟道结构,提高了输出电流的可驱动性和平均跨导性。此外,还制作了具有相同三阶掺杂沟道结构的金属半导体场效应晶体管(MESFET)进行比较。所研究的器件具有高击穿电压、高输出漏极饱和电流和平坦宽跨导工作模式等优良性能。测量到的截止频率(f/sub T/)大于15ghz。实验结果表明,所研究的器件在大功率大输入信号电路中具有良好的应用潜力。
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