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Temperature-Dependent Feedback Operations of Triple-Gate Field-Effect Transistors.

Nanomaterials 2024 March 10
In this study, we examine the electrical characteristics of triple-gate feedback field-effect transistors (TG FBFETs) over a temperature range of -200 °C to 280 °C. With increasing temperature from 25 °C to 280 °C, the thermally generated charge carriers increase in the channel regions such that a positive feedback loop forms rapidly. Thus, the latch-up voltage shifts from -1.01 V (1.34 V) to -11.01 V (10.45 V) in the n -channel ( p -channel) mode. In contrast, with decreasing temperature from 25 °C to -200 °C, the thermally generated charge carriers decrease, causing a shift in the latch-up voltage in the opposite direction to that of the increasing temperature case. Despite the shift in the latch-up voltage, the TG FBFETs exhibit ideal switching characteristics, with subthreshold swings of 6.6 mV/dec and 7.2 mV/dec for the n -channel and p -channel modes, respectively. Moreover, the memory window widens with increasing temperature. Specifically, at temperatures above 85 °C, the memory windows are wider than 3.05 V and 1.42 V for the n -channel and p -channel modes, respectively.

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