
This course deals with the basic theory of analog circuits, design principles and techniques for analog ICs blocks implemented in CMOS Technology.

Explore advanced VLSI design concepts, from historical perspectives to modern techniques in CMOS circuits, power management, arithmetic strategies, and hardware description languages.

In this context, the course attempts to expose the students and practitioners to the most recent, yet fundamental, VLSI test principles and DFT architectures in an effort to help them design better quality products that can be reliably manufactured in la…

Comprehensive exploration of data conversion circuits, covering sampling, quantization, delta-sigma modulation, ADC/DAC architectures, and advanced techniques for improving performance and accuracy.

Master PERL for VLSI automation: from basics to advanced concepts like OOP, data structures, file I/O, and regular expressions. Gain practical skills for EDA and QA/QC applications.

Explore open-source code linting techniques for chip design and verification, enhancing quality and efficiency in semiconductor development processes.

Explore carry save adder techniques for efficient multiple operand addition in digital circuits.

Explore fundamental concepts and principles of digital integrated circuit design, laying the groundwork for advanced electronic systems development.

Explore advanced analog layout techniques, focusing on optimizing circuit performance and minimizing parasitic effects in integrated circuit design.

Explore novel approximate adder designs for edge detection applications, including OLOCA and HOAANED, and their use in creating efficient approximate multipliers.

Establish minimum delay constraints for transparent latch designs in computational datapath subsystems, addressing hold time failures and contamination delays.

Explore the carry select adder, a fast addition technique, and understand its principles and implementation in digital circuit design.

Explore Verilog's fundamentals, including structural and dataflow modeling, for efficient hardware description and design.

Discover how Large Language Models are revolutionizing integrated circuit design automation, enhancing efficiency and innovation in semiconductor development.

Explore how machine learning revolutionizes electronic design automation, enhancing semiconductor development and improving design efficiency through AI-driven solutions.