Design for Manufacturability and Statistical Design: A Constructive Approach provides a thorough treatment of the causes of variability, methods for statistical data characterization, and techniques for modeling, analysis, and optimization of integrated circuits to improve yield. The objective of the constructive approach developed in this book is to formulate a consistent set of methods and principles necessary for rigorous statistical design and design for manufacturability from device physics to large-scale circuit optimization. The segments of the book are devoted, respectively, to understanding the causes of variability; design of test structures for variability characterization; statistically rigorous data analysis; techniques of design for manufacturability in lithography and in chemical mechanical polishing; statistical simulation, analysis, and optimization techniques for improving parametric yield. Design for Manufacturability and Statistical Design: A Constructive Approach presents an overview of the methods that need to be mastered for state-of-the-art design for manufacturability and statistical design methodologies. It is an important reference for practitioners and students in the field of computer-aided design of integrated circuits.

Unified Treatment of Data Collection, Modeling, and Statistical CAD Covers From Fabrication to Design to CAD Deals With the Extraction of Fab Information into distrubutions for analysis Circuit Structures and Techniques to Reduce On-Chip Variability Using CAD for the Analysis and Optimization of Timing and Power Includes supplementary material: sn.pub/extras

Inhalt
Sources of Variability.- Front End Variability.- Back End Variability.- Environmental Variability.- Variability Characterization and Analysis.- Test Structures For Variability.- Statistical Foundations Of Data Analysis And Modeling.- Design Techniques for Systematic Manufacturability Problems.- Lithography Enhancement Techniques.- Ensuring Interconnect Planarity.- Statistical Circuit Design.- Statistical Circuit Analysis.- Statistical Static Timing Analysis.- Leakage Variability And Joint Parametric Yield.- Parametric Yield Optimization.- Conclusions.