Novel Low Power Cross-Coupled FET-Based Sense Amplifier Design for High-Speed SRAM Circuits

Area of Science:

• Electrical Engineering
• Computer Engineering
• Materials Science

Background:

• Semiconductor chips are integral to modern technology, with Static Random-Access Memory (SRAM) being crucial for data storage and memory.
• Key requirements for memory technologies include small footprint and low power consumption, especially for portable and advanced computing applications.

Purpose of the Study:

• To design and implement a high-performance sense amplifier circuit for low-power SRAM applications.
• To explore and optimize various power reduction techniques for SRAM sense amplifiers.
• To analyze the impact of design parameters on power consumption and reaction time.

Main Methods:

• Utilized LTSpice software for circuit simulation and design.
• Investigated and implemented several power reduction strategies.
• Analyzed the effects of transistor width-to-length (W/L) ratio, power supply, and nanoscale technology on performance.
• Evaluated different approaches to determine optimal power usage and transistor count.

Main Results:

• Developed a modified SRAM design incorporating an optimized low-power sense amplifier.
• Demonstrated promising results in reducing power consumption and improving reaction time.
• Quantified power usage and transistor requirements for various design techniques.
• Successfully applied three variations of Very-Large-Scale Integration (VLSI) power reduction techniques.

Conclusions:

• The proposed low-power sense amplifier design offers significant improvements in efficiency for SRAM.
• Optimized design parameters and VLSI techniques are effective in minimizing power consumption and enhancing performance.
• Low-power SRAMs are essential for the advancement of memory-centric applications, including neuromorphic computing.