Effect of Green Logistics on Designing of Single Bit Cache Memory Architecture

Abstract

The international economy's fast expansion has made logistics more crucial in addressing shifting societal demands and has also worsened sustainability and environmental issues. With an emphasis on entering and leaving logistics, this study examines the long-term effects of green logistics practices. The paper creates a theoretical framework for examining the effects of green logistical practices on single-bit cache memory architectures' economic, social, and environmental performance. This paper proposes and implements a design analysis of a single-bit static random access memory voltage differential sense amplifier architecture. It uses a write driver circuit, a static random access memory, and different differential sense amplifiers, including voltage differential sense amplifiers, current differential sense amplifiers, and charge transfer differential sense amplifiers. How well different architectures perform in terms of total power consumption, static power consumption, transistor count, and sensing delay has been determined. The voltage differential sensing amplifier for single-bit static random-access memory cells utilizes the least power (13.16µW). Longer sensing delays (12.5ηs) are present in the single-bit static random-access memory cell charge-transfer differential sense amplifier design and the single-bit random-access memory cell current differential sense amplifier architecture. Techniques for power reduction have also been employed to optimize power.