In this report, we present a vertical memristor based on a layered FePS3 two-dimensional material with the structure Ag/FePS3/Au, where FePS3 is a single-crystalline layer with a thickness of ∼151 nm. By operating a device with a pulse voltage of 0.1 V dual modes of resistive switching with both analog and digital features are implemented in a single device. One mode lies between the OFF and ON states and another lies in the ON state. The device shows nonvolatility. Short-term plasticity and long-term potentiation are observed. Therefore, the FePS3 memristor is suitable for application in flexible and complex neuromorphic systems.

With the rapid development of information technology, the demand for high-speed and low-power technology for digital signal processing is increasing. Full adders and multipliers are the basic components of signal processing technology. Pass-transistor logic is a promising method for implementing full adder and multiplier circuits due to the low count of transistors and low-power characteristics. In this paper, we present a novel full adder based on pass transistors. The proposed full adder consists of 18 transistors. The post-layout simulation shows a 13.78% of power reduction compared to conventional CMOS full adders. Moreover, we propose an 8-bit signed multiplier based on the proposed full adder. The post-layout simulation shows an 8% power reduction compared to the multiplier produced by the Design Compiler synthesis tool. Compared to the existing work with a similar process, our work achieved only 19.02% of the power-delay product and 3.5% of the area-power product.

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