低功耗双栅隧道场效应晶体管的双极电流抑制及射频性能分析

N. Guenifi, Rahi Sb, M. Larbi
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引用次数: 4

摘要

目前的研究信是专门对双栅隧道场效应晶体管(DG-TFET)的详细分析。DG-TFET通过带对带(B2B)隧道提供比传统TFET更好的导通电流(ION)。然而,由于双极电流(Iamb)大,导致关闭电流(IOFF)增加,DG-TFET在低功耗应用中是不利的。本研究以Si/GaAs/ GaAs异质结构DG-TFET作为研究器件性能的研究基础。与同结构器件相比,DG-TFET器件的电学参数得到了改善。比较分析了同质结构Si/Si /Si和异质结构Si/GaAs/GaAs、DG-TFET两种结构的转移(I-V)特性、电容电压(C-V)特性。在工作频率为1mhz的情况下,得到了DG-TFET的C-V特性。与Si/Si/Si /Si同质DG-TFET相比,所提出的Si/GaAs/GaAs异质DG-TFET的双极电流抑制了5 × 108个数量级,直至施加的漏极电压非常低,等于VDS = 0.5 V,而不影响稳态性能。仿真结果表明,该器件具有良好的离子/ off比(10 13)和较低的亚阈值斜率SS (~36.52 mV/dec)。与Si/Si/ Si异质结构DG-TFET相比,Si/GaAs/GaAs异质结构DG-TFET的通流(ION)、关流(IOFF)、延时(ιd)、跨导(gm)和功率延迟积(PDP)等各种电学特性都得到了改善。所提出的设计结果表明其在数字和模拟领域的应用是可行的。
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Suppression of Ambipolar Current and Analysis of RF Performance in Double Gate Tunneling Field Effect Transistors for Low-Power Applications
The present research letter is dedicated to a detailed analysis of a double-gate tunnel field-effect transistor (DG-TFET). The DG-TFET provides improved on-current (ION) than a conventional TFET via bandto-band (B2B) tunneling. However, DG-TFET is disadvantageous for low-power applications because of increased off-current (IOFF) due to the large ambipolar current (Iamb). In this research work, a Si/GaAs/ GaAs heterostructure DG-TFET is considered as research base for investigation of device performance. The electrical parameters of the DG-TFET device have been improved in comparison to the homostructure. The transfer (I-V) characteristics, capacitance voltage (C-V) characteristic of homo structure Si/ Si/Si and hetero structure Si/GaAs/GaAs, DG-TFET both structures is analysed comparatively. The C-V characteristics of DG-TFET have obtained using operating frequency of 1 MHz. The ambipolar current Iamb is suppressed by 5 × 108 order of magnitude in proposed Si/GaAs/GaAs hetero DG-TFET as compared to Si/Si/Si homo DG-TFET up to the applied drain voltage very low equal to VDS = 0.5 V without affecting onstate performance. The simulation result shows a very good ION/IOFF ratio (10 13) and low subthreshold slope, SS (~36.52 mV/dec). The various electrical characteristics of homo and hetero DGTFET such as on-current (ION), off current (IOFF), time delay (ιd), transconductance (gm) , and power delay product (PDP) have been improve in Si/GaAs/GaAs heterostructure DG-TFET and compared with Si/Si/ Si homo DG-TFET. The advantageous results obtained for the proposed design show its usability in the field of digital and analog applications.
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