
Explore the CMOS process design kit (pdk) description, technology files and pcells, including layer concepts, schematic versus layout, device models, and integration with simulations.
Explore bipolar devices in CMOS processes, including non scalable BJT sizes and silicon germanium CMOS options, plus fringe and MIM capacitors to save silicon area.
Examine NMOS transistor parameters and Ft variability using a common-source amplifier example, and understand standard cell libraries with testability features across voltage and temperature corners.
Master CMOS design rules defined by the PDK, including minimum width, spacing, and extension constraints. Explore layout versus schematic checks, antenna rules, and parasitic models essential for reliability.
HS Jatana, with a distinguished career spanning over three decades in the VLSI industry, brings a wealth of experience and expertise to this course. Having worked at Rockwell Semiconductor in the USA, he has made significant contributions to process development and integration, device testing and characterization, and IC design. His hands-on experience in these critical areas has shaped his deep understanding of the intricacies of semiconductor technology. Currently, as the Group Head at the Semiconductor Laboratory (SCL), Jatana continues to lead and innovate in the field.
This course offers a comprehensive overview of basic analog and digital design flows from a manufacturing perspective, with a particular focus on the nuances that practitioners encounter in real-world applications. Key topics include Process Design Kits (PDKs), Pcells, and detailed insights into the 180nm technology node, including cross-sectional views and practical examples.
The course also delves into the various components available in a standard CMOS process. It explains the basic structures of different elements and how they are realized in the manufacturing process. Special emphasis is placed on passive components, which are crucial in any mixed-signal design. Participants will explore the features, advantages, and disadvantages of these passive elements, gaining a thorough understanding of their role in modern VLSI design.