About the Book
Designing reliable and maintainable energy systems is crucial for ensuring efficiency, longevity, and sustainability in energy production, distribution, and consumption. Reliability focuses on minimizing failures and ensuring continuous operation under varying conditions, while maintainability emphasizes ease of inspection, repair, and upgrades. A well-designed energy system integrates robust components, predictive maintenance strategies, and advanced monitoring technologies to reduce downtime and operational costs. By prioritizing both reliability and maintainability, engineers can develop resilient energy infrastructures that support modern demands while minimizing environmental impact and lifecycle costs.
Designing Reliability and Maintainability of Energy Systems is a guide to enhancing the resilience and reliability of modern energy infrastructures. Chapters present fundamental principles of reliability and resilience and new artificial intelligence applications, such as predictive maintenance, advanced analytics, and digital twin technologies for improved efficiency and sustainability in energy systems. Clear chapter objectives, worked problems, and case studies are included to demonstrate real-world applications of these technologies.
This book is valuable for researchers, industry professionals, engineers, and advanced undergraduate and graduate students focused on energy grids, power system reliability, and AI-driven solutions for sustainable infrastructure.
Table of Contents:
Introduction
1. Application of Electromagnetic Time Reversal for online locating partial discharges in power networks
2. Design for Reliability in Induction Heating Applications
3. Design considerations for weather- and climate-resilient power systems
4. Hybrid Energy Storage System with Uc For PV System: Load Management
5. Ambient Backscatter Sensing Networks for Critical Infrastructure Monitoring within Power Systems
6. Hardware-In-The-Loop-Based Assessment of Special Protection Schemes for Reliability Enhancement
7. Ensuring the Reliability and Resilience of Power Converters for LED Lighting Systems, part I: Capacitors
8. Life and Reliability Modelling of High Voltage Cables
9. Design of Reliable and Resilient Electric Power Systems for Wide-Body All-Electric Aircraft
10. Impact of Remedial Action Schemes on the Reliability and Integrity of Power Electrical Systems
11. Ensuring the Reliability and Resilience of Power Converters for LED Lighting Systems, part II: the Role of the PCB, Power Inductors, and Optoelectronics
12. Study LVFRT capabilities of microgrids including PV generating units supported by energy storage devices
13. The Design for Power Reliability and Resilience on the More Electric Aircraft Systems
14. Design for Resilience and Distributed Fixed-Time Control of MTDC Systems Under DoS Attacks
15. Signature Reliability Scrutiny of Multiplex Backup Generator Systems Using UGF-with a k-out-of-n:G Configuration
16. Measurement methods for the detection and analysis of inter-area oscillations in electrical transmission networks
17. System Integrity Protection Deign for Enhanced Transient Stability of Taiwan Power System: A Holistic Approach Involving Reliable Generator Rejection and Multi-Phase Transmission Line Reclosing
18. Investigating Load Growth in Distribution Systems for Improved system reliability considering Loadability
About the Author :
Fausto Pedro García Márquez works as a Professor and as Director of the Ingenium Research Group at the Universidad De Castilla-La Mancha, Spain. He is an Honorary Senior Research Fellow at Birmingham University, UK, and a Lecturer at the Postgraduate European Institute. He has published more than 150 papers and 31 books (Elsevier, Springer, Pearson, McGraw-Hill, Intech, IGI, Marcombo, AlfaOmega). He has been Principal Investigator in 4 European projects, 6 national projects, and more than 150 projects for universities, companies, and other institutions. His main interests are: Artificial Intelligence, Maintenance, Management, Renewable Energy, Transport, Advanced Analytics, and Data Science. René Vinicio Sánchez Loja is a Professor at the Universidad Politécnica Salesiana, Ecuador, working mainly in areas related to the automation of sequential processes. In 2014, he founded the Research and Development Group in Industrial Technologies, and Overseas invited Ph.D. at Chongqing Technology and Business University, China. He is a senior member of IEEE. He has extensive experience in the organization of conferences, implementation of technological projects, management and execution of research projects; currently he has more than 60 publications in Web of Science. His current focus is in the areas of project management, condition-based maintenance, engineering education and industry 4.0 especially for SMEs. Mayorkinos Papaelias is a Reader in NDT and Condition Monitoring in the School of Metallogy and Materials at the University of Birmingham, UK. Dr Papaelias leads the research activity in Non-Destructive Testing and Structural Health Condition Monitoring at the Birmingham Railway Centre for Research and Education and conducts research in structural health condition monitoring of wind turbine towers, and advanced condition monitoring of wind turbine gearboxes and rotating machinery. He served as a technical consultant to TWI, ENGITEC, Innovative Technology and Science Ltd, and Instituto de Soldadura e Qualidade. He is editor of two books on fault detection and condition monitoring, and has contributed chapters to books in fault detection and rail inspection. Mayorkinos is chairman of the Education Committee of the International Society for Condition Monitoring of the British Institute of Non-Destructive Testing.
