Impact of the Scaling of LGS and LG on the On-State Breakdown Voltage of InAlN/GaN HFETs With Localized Fin Under the Gate Electrode

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-08-26 DOI:10.1109/JEDS.2024.3449798
Yatexu Patel;Pouya Valizadeh
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Abstract

In this manuscript, we have investigated the impact of the scaling of the gate-source length (LGS) and gate length (LG) on the on-state breakdown voltage (BVon) of metallic-face InAlN/AlN/GaN heterostructure field effect transistors (HFETs) having fin structures only under the gate and those having them stretched from source to drain. The results show that the downscaling of LGS and LG augments the electron velocity in the source-access region. Due to current conservation, the higher carrier velocity in the source-access region for the devices having shorter LGS and LG induces a higher electron density under the gated-channel. From what is theoretically observed, the presence of higher electron density close to the boundary with the velocity saturation region at the drain edge of the gate in devices having shorter LGS and LG does seem to initiate the device breakdown at lower drain voltages, leading to the deterioration of the on-state breakdown voltage.
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栅电极下有局部鳍片的 InAlN/GaN HFET 的 LGS 和 LG 缩放对通态击穿电压的影响
在本手稿中,我们研究了栅-源长度(LGS)和栅长度(LG)的缩放对金属面 InAlN/AlN/GaN 异质结构场效应晶体管(HFET)导通击穿电压(BVon)的影响。结果表明,LGS 和 LG 的缩减提高了源极-汲极区域的电子速度。由于电流守恒,LGS 和 LG 较短的器件在源极接入区的载流子速度较高,从而导致栅极沟道下的电子密度较高。从理论上观察,在 LGS 和 LG 较短的器件中,靠近栅极漏极边缘速度饱和区边界的较高电子密度似乎会在较低的漏极电压下引发器件击穿,从而导致导通击穿电压恶化。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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