The research investigates various power reduction techniques, including test pattern compression, selective clock gating, and power-aware test scheduling, to optimize power consumption during testing.
This paper presents a comprehensive study on the design and implementation of a BIST architecture tailored for low-power VLSI applications, leveraging the Verilog hardware description language. The proposed BIST architecture integrates advanced power-aware testing techniques to minimize energy consumption during testing phases, ensuring compatibility with modern low-power design paradigms.
Through extensive simulations and empirical testing, we demonstrate the efficacy of this BIST architecture in efficiently detecting and diagnosing faults within low-power VLSI circuits while adhering to stringent power constraints. The results highlight the potential of this methodology to significantly enhance the reliability and power efficiency of VLSI systems, making it a valuable asset for designers in the pursuit of energy-efficient electronics.
NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Software Requirements:
· Tool: Xilinx Vivado
· HDL: Verilog
Hardware Requirements:
· Introduction to digital & analog electronics
· Understanding of VLSI Concepts
· Fundamentals of BIST
o BIST Architecture
o BIST Design Styles
· Knowledge on Verilog
· Low-Power Design Techniques
· Simulation & Verification
· Testing & Debugging skills
· Real world Applications