This course provides "hands-on" VLSI design guideline of the machine learning (ML) accelerator architectures across top-to-down vertical layers including algorithm, architecture, and circuit design. The overview/theory of training and inference of deep neural network and other ML algorithms is provided. Students are supposed to train and validate their own network models for computer vision and natural language processing (NLP) applications via python (pytorch) programming. Then, the network model is mapped on the hardware by applying multiple low-power techniques including quantization, pruning, compression, and sparsity-aware circuit techniques. Students design their own architecture with verilog programming and verify the functionality with their test benches from python. Finally, the design is synthesized and evaluated with the Quartus Prime tool.

- Recommended preparation: ECE111 or equivalent course (which covers verilog & digital logic design).

- Prior knowledge of Machine learning is not required to take this course.

This course is a great way to explore our group’s hands-on research and ideally connect to academic publications. Students are required to attand a weekly one-on-one meeting, and each meeting generally takes 1-1.5 hrs (no meeting during midterm / final exam period). A decent amount of time and dedication from the students are expected, e.g., 8hr research per week for 4 credits. 

Academic advisor provides a goal of the week with the detailed guideline and written manual, and students are supposed to explain weekly progress during the meeting, ask questions, and discuss directions.

Please contact via email for ECE299. 

The fundamentals of both the hardware and software in a computer system. Topics include representation of information, computer organization and design, assembly and microprogramming, current technology in logic design.

- Prerequisites: ECE 15 and 25 with grades of C– or better.