The scaling limitations of Complementary Metal-Oxide-Semiconductor (CMOS) transistors to achieve better performance have led to the attention of other structures to improve circuit performance.One of these structures is multi-valued circuits.In this paper, we will Weighted Campdraft reins first study Carbon Nanotube Transistors (CNT).
CNT transistors offer a viable means to implement multi-valued logic due to their variable and controllable threshold voltage.Subsequently, we delve into the realm of three-valued flip-flop circuits, which find extensive utility in digital electronics.Leveraging the insights gained from our analysis, we propose a novel D-type flip-flop structure.
The presented structure boasts a remarkably low power consumption, showcasing a reduction exceeding 61% compared to other existing structures.Furthermore, the proposed circuit incorporates a reduced number of transistors, resulting in a reduced footprint.Importantly, this circuit exhibits negligible static power consumption in generating intermediate values, rendering it robust against process variations.
Overall, the proposed circuits demonstrate a 29.7% increase in delay compared to the compared structures.However, they showcase a 96.
1% reduction in power-delay product (PDP) compared to the other structures.The number of transistors is also 8.3% less than other structures.
Additionally, their figure of merits (FOM) Cookware Sets are 19.7% better than the best-compared circuit, underscoring its advantages in power efficiency, chip area, and performance.