Evaluation Of Circuit Performance Of T-Shaped Tunnel Fet

IET CIRCUITS DEVICES & SYSTEMS(2020)

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摘要
This study investigates the analogue performance of a III-V tunnelling field-effect transistor (TFET). To explore the circuit performance of the TFET, a T-shaped TFET (TTFET) structure is investigated and its performance parameters are compared with a 14 nm simulation program with integrated circuit emphasis (SPICE)-based predictive technology model FinFET. The advantages and limitations of TTFET technology over its FinFET counterparts are discussed in detail by implementing the inverter, current mirror, track-and-hold (T/H), and differential amplifier circuits. It is observed that the TTFET inverter offers 1.56x higher maximum gain, 14.46x lower delay, and 12.13x lower-energy-delay product when compared with FinFET inverter in Fan-Out1 (FO1) configuration atV(DD) = 0.3 V. The TTFET-based current mirror and T/H circuit perform superior to their FinFET counterparts in terms of accuracy and delay. The TTFET-based differential amplifier provides 24.63 dB higher differential gain and 21.5 dB higher common-mode rejection ratio when compared with FinFET amplifier. Finally, the impact of the variation in process parameters on the device and circuit performance has been investigated. The standard deviation of 20% in oxide thickness, 20% in channel thickness, 20% in source doping, and 2% in metal work function results in a standard deviation 2.56% in delay of FO1 inverter from its nominal value.
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关键词
SPICE, semiconductor device models, tunnel field-effect transistors, sample and hold circuits, T-shaped TFET structure, TTFET technology, differential amplifier circuits, TTFET inverter, FinFET inverter, Fan-Out1 configuration, TTFET-based current mirror, TTFET-based differential amplifier, FinFET amplifier, circuit performance, FO1 inverter, T-shaped tunnel FET, analogue performance, III-V tunnelling field-effect transistor, SPICE-based predictive technology model FinFET, track-and-hold circuit, energy-delay product, common-mode rejection ratio, source doping, metal work function, size 14, 0 nm, voltage 0, 3 V
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