Simulation study and comparative analysis of proposed novel hybrid DG-TFET with conventional TFETs structures for improved performance

Aadil Anam, S. Amin, D. Prasad
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Abstract

In this paper, the simulation study and comparative analysis of the proposed novel hybrid Double-Gate Tunnel Field Effect Transistor (DG-TFET) are extensively done with different conventional TFET structures (different semiconductor materials like Si, Ge and SiGe in the source). The novel hybrid DG-TFET improves the electrical performance (like ON current, subthreshold swing (SS), Ion/Ioff) by undercutting the top ultra-shallow source region and by sandwiching the thin Si channel onto it (between the source and gate). By doing so, along with the lateral tunneling junction (like in the conventional DG-TFET), an additional vertical tunneling junction on an ultra-shallow channel (normal to source gate dielectric) is created. The additional top thin Si channel confines the electric field and along with the lateral tunneling like in the conventional TFETs, it also ensures the possible vertical tunneling. The simulation shows significant improvement in the ON current, SS, and Ion/Ioff, etc. of the proposed hybrid DG-TFET compared to the conventional TFETs. Moreover, to optimize the ON state drain current, the simulation study of the proposed novel hybrid DG-TFET with different front gate/source overlapping has been also done in this paper.
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为了提高性能,本文提出的新型混合DG-TFET与传统tfet结构进行了仿真研究和对比分析
本文对所提出的新型混合型双栅隧道场效应晶体管(DG-TFET)进行了广泛的仿真研究和对比分析,采用了不同的传统TFET结构(源中有不同的半导体材料,如Si、Ge和SiGe)。新型混合DG-TFET通过削弱顶部超浅源区并将薄硅沟道夹在其上(在源和栅极之间),提高了电性能(如ON电流,亚阈值摆幅(SS),离子/离子关断)。通过这样做,与横向隧道结(如传统的DG-TFET)一起,在超浅通道(与源栅极介电正常)上创建了一个额外的垂直隧道结。额外的顶部薄硅沟道限制了电场,并且与传统tfet中的横向隧道一样,它也确保了可能的垂直隧道。仿真结果表明,与传统的tfet相比,所提出的混合DG-TFET在ON电流、SS和Ion/Ioff等方面都有显著改善。此外,为了优化导通状态漏极电流,本文还对所提出的具有不同栅源重叠的新型混合DG-TFET进行了仿真研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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