Design, Analysis and Fault-tolerance of Multilevel Inverter

Description

Design, Analysis and Fault-tolerance of Multilevel Inverter is a comprehensive reference that explores one of the most promising technologies in modern power electronics. Multilevel inverters (MLIs) have become an essential component in renewable energy systems, electric drives, and industrial applications due to their ability to generate high-quality output waveforms with reduced harmonic distortion, lower switching stress, and improved efficiency.

This book presents a systematic study of the design principles, operational analysis, and control techniques of various multilevel inverter topologies such as diode-clamped, flying capacitor, and cascaded H-bridge inverters. It provides in-depth mathematical modeling, simulation approaches, and experimental insights for engineers, researchers, and students working in the field.

A key highlight of the book is its focus on fault diagnosis and fault-tolerant strategies. It discusses how to identify common faults in multilevel inverters, including switch open-circuit and short-circuit faults, capacitor voltage imbalance, and reliability challenges. Techniques for enhancing the robustness and fault-tolerance of MLIs are explained with practical case studies and performance comparisons.

By bridging theory with practical applications, the book serves as:

• A reference guide for postgraduate students and researchers working on power electronics, renewable energy integration, and electric vehicle technologies.

• A practical resource for engineers and professionals involved in the design and implementation of inverter systems.

• A knowledge base for exploring recent advancements in fault-tolerant multilevel converter technology.

With its structured approach, this book equips readers to design efficient, reliable, and fault-resilient multilevel inverters for next-generation energy systems.