As the demand for high-power electronics spans diverse industries, the pursuit of innovative semiconductor devices capable of meeting burgeoning power requirements becomes imperative. This article investigates the transformative capabilities of Gallium Nitride (GaN)-based Tunnel Field-Effect Transistors (TFETs) within the realm of high-power applications. GaN celebrated for its exceptional electrical properties, emerges as a promising contender poised to redefine the boundaries of power electronics. Leveraging a Tunnel Field-Effect Transistor design, distinguished by its unique tunnelling mechanism, these devices confer distinct advantages over traditional transistor technologies, including reduced leakage current and heightened energy efficiency. The simulation in this study aims to achieve an On-state current of 10 −8 A and subthreshold swing (SS) of 56mV/dec with a fixed off-state current of 10 −12 A. This article delves into the pivotal features of GaN-based TFETs, emphasizing their applicability in high-power scenarios and their potential to revolutionize the power electronics landscape. By offering insights into the underlying principles and recent advancements in this technology, the article seeks to enhance understanding and position GaN-based TFETs as the next frontier in high-power electronic devices.
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VP et al. (2024) studied this question.
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