Computational Intelligence in Analog and Mixed-Signal (AMS) and Radio-Frequency (RF) Circuit Design

Chapter 1 I-Flows: A Novel Approach to Computational Intelligence for Analog Circuit Design Automation Through Symbolic Data Mining and Knowledge-Intensive Reasoning

Chapter 2 Automatic Synthesis of Analog Integrated Circuits Including Efficient Yield Optimization

Chapter 3 Application of Computational Intelligence Techniques to Maximize Unpredictability in Multiscroll Chaotic Oscillators

Chapter 4 Optimization and Co-simulation of an Implantable Telemetry System by Linking System Models to Nonlinear Circuits

Chapter 5 Framework for Formally Verifying Analog and Mixed-Signal Designs

Chapter 6 Automatic Layout Optimizations for Integrated MOSFET Power Stages

Chapter 7 Optimizing Model Precision in High Temperatures for Efficient Analog and Mixed-Signal Circuit Design Using Modern Behavioral Modeling Technique: An Industrial Case Study

Chapter 8 Nonlinearities Behavioral Modeling and Analysis of Pipelined ADC Building Blocks

Chapter 9 SMAS: A Generalized and Efficient Framework for Computationally Expensive Electronic Design Optimization Problems

Chapter 10 Computational Intelligence Techniques for Determining Optimal Performance Trade‐Offs for RF Inductors

Chapter 11 RF IC Performance Optimization by Synthesizing Optimum Inductors

Chapter 12 Optimization of RF On-Chip Inductors Using Genetic Algorithms

Chapter 13 Automated System-Level Design for Reliability: RF Front-End Application

Chapter 14 The Backtracking Search for the Optimal Design of Low-Noise Amplifiers

Chapter 15 Design of Telecommunication Receivers Using Computational Intelligence Techniques

Chapter 16 Enhancing Automation in RF Design Using Hardware Abstraction

Chapter 17 Optimization Methodology Based on IC Parameter for the Design of Radio-Frequency Circuits in CMOS Technology