This research investigates four variants of Gaussian Doped (GD) Double Gate Single Material and Tri-Material Junction-Free Tunnel-Field-Effect-Transistors (GD-DG-JF-TFETs) to optimize their performance in analog and RF applications. The analysis is conducted using the Sentaurus Synopsis TCAD simulation tool, reveals a Subthreshold Swing (SS) as low as 38 mV/dec, exceptionally higher cut-off-frequency ( f t ) and maximum-oscillation-frequency ( f max ) of 516 GHz and 895 GHz, respectively. The proposed TMDG-JF-TFET enhances band-to-band tunneling between the drain and source regions, resulting in an extremely low-off-state-current ( I off ) of 9.6 fA and large-on-state current ( I ON ) of 6.7 mA in Permittivity of high-k ( HfO 2 = 25) and low-k ( SiO 2 = 3.8) based structures.Compared to conventional SMDG technologies, the TMDG structures exhibits 36% reduction in SS, a 16% improvement in f t , an 18% enhancement in f max and 17% increase in I ON . These improvements demonstrate that TMDG-based TFETs are superior devices for ultra-low-power-integrated-circuit-applications.
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Tamilarasi et al. (2024) studied this question.
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