What This Document Is
This is a comprehensive report detailing the third phase of a term project for EECS 141, Digital Integrated Circuits at UC Berkeley. Specifically, it focuses on the design and optimization of a 32x64 Static Random Access Memory (SRAM) module. This report represents a significant deliverable, requiring students to synthesize and apply knowledge gained throughout the course to a practical, complex design challenge. It’s a culmination of previous phases, building upon earlier work to achieve a fully functional and optimized SRAM implementation.
Why This Document Matters
This report is essential for students enrolled in or auditing EECS 141 who are seeking a deep understanding of SRAM design principles. It’s particularly valuable for those aiming to excel in digital integrated circuit design, as it demonstrates the entire design flow – from initial architectural decisions to final layout and simulation. Students preparing for similar projects or advanced coursework will find this report a useful reference for understanding best practices and common challenges in memory design. Access to the full report unlocks detailed insights into the practical application of theoretical concepts.
Topics Covered
* SRAM Cell Design and Optimization
* Decoder Architecture and Implementation
* Adder/Subtractor Circuit Design
* Layout Considerations for High-Density Memory
* Performance Analysis (Delay, Power, Area)
* Simulation Techniques for Verification
* Optimization Strategies for Digital Circuits
* Complete SRAM Array Design and Integration
What This Document Provides
* A detailed overview of the complete SRAM design, including schematic and layout representations.
* Analysis of critical path delays and timing characteristics through simulation results.
* Explanations of key design decisions and the rationale behind optimization choices.
* Performance metrics, including calculated and simulated power dissipation and area estimations.
* Detailed schematics and layouts of core components like the decoder and adder/subtractor circuits.
* An appendix section for supplementary analyses and detailed breakdowns of design choices.
* A clear articulation of the design approach and the results achieved.
