Hydrogen Technologies
Advanced Materials, AI Applications, and System Integration for Clean Energy
- 1st Edition - March 1, 2027
- Latest edition
- Authors: Mohit Hemanth Kumar, Sasmita Bal, Vedharaj Sivasankaralingam, Jayaraman Kandasamy
- Language: English
Hydrogen Technologies: Advanced Materials, AI Applications, and System Integration for Clean Energy addresses the urgent need for a unified, comprehensive resource in hydrog… Read more
Description
Description
Key features
Key features
- Integrates advanced materials science, AI, and system optimization for hydrogen technologies
- Presents real-world case studies and practical implementation toolkits
- Covers the entire hydrogen value chain from production to utilization
- Addresses safety, regulatory compliance, and economic analysis
- Highlights emerging digital technologies and sustainability assessment
Readership
Readership
Table of contents
Table of contents
1.1. Global energy challenges and hydrogen solutions
1.2. Hydrogen economy principles and market dynamics
1.3. Technology evolution and current state-of-art
1.4. Market overview and future projections
1.5. Policy frameworks and international initiatives
2. Hydrogen Production and Synthesis
2.1. Production method classification and criteria
2.2. Electrolysis systems and advanced technologies
2.3. Steam reforming and autothermal reforming
2.4. Green hydrogen production methods
2.5. Photoelectrochemical (PEC) and biological hydrogen production
2.6. Quality assessment and purification methods
2.7. Economic and environmental impact assessments of different hydrogen production methods
3. Advanced Polymer Composites and Pressure Vessels for Hydrogen Storage
3.1. Material selection criteria for hydrogen applications
3.2. Advanced manufacturing technologies and processes
3.3. Pressure vessel design methodologies and safety standards
3.4. Property optimization and performance testing
3.5. Quality control and validation procedures
3.6. Case studies of successful implementations
4. Smart Materials and Sensors for Hydrogen Systems
4.1. Smart material design principles
4.2. Sensor integration and IoT connectivity
4.3. Real-time monitoring systems
4.4. Safety features and emergency response
4.5. Material-based hydrogen detection
4.6. Performance validation and reliability
5. Advanced Hydrogen Storage Materials and Systems
5.1. Metal-organic frameworks (MOFs) and applications
5.2. Covalent organic frameworks (COFs) for storage
5.3. Solid-state storage materials and systems
5.4. Storage system design and integration
5.5. Safety protocols and pressure management
5.6. Performance testing and regulatory compliance
6. Hydrogen Thermal Management System
6.1. Heat exchange technologies for hydrogen applications
6.2. Thermal efficiency optimization strategies
6.3. Advanced cooling systems and heat recovery
6.4. Performance monitoring and control systems
6.5. Integration with renewable energy systems
6.6. Case studies in thermal optimization
7. Hydrogen Combustion Technologies and Optimization
7.1. Combustion system design and optimization
7.2. Emission control technologies and environmental impact
7.3. Performance optimization and efficiency improvement
7.4. Safety systems and risk mitigation
7.5. Quality control measures and monitoring
7.6. Integration with power generation systems
7.7. Environmental impact assessment and sustainability
8. Hydrogen Energy Systems Integration and Grid Connection
8.1. Renewable energy integration strategies
8.2. Grid connection technologies and protocols
8.3. System optimization and energy management
8.4. Energy storage and dispatch systems
8.5. Control strategies and smart grid integration
8.6. Economic analysis and market mechanisms
9. Advanced AI and ML Applications in Hydrogen Systems
9.1. AI fundamentals for Hydrogen technologies
9.2. AI in hydrogen system optimization and control
9.3. Machine learning applications for predictive maintenance
9.4. Process control systems and automation
9.5. Performance optimization using AI algorithms
9.6. Quality assurance systems and defect detection
9.7. Economic feasibility analysis using AI tools
9.8. Real-world case studies on successful AI/ML applications
9.9. Ethical and data privacy considerations using AI/ML
10. Hydrogen Fuel Cells: Design, Optimization, and Applications
10.1. Fuel cell types and operating principles
10.2. Design optimization and performance enhancement
10.3. Materials selection and durability considerations
10.4. System integration and auxiliary components
10.5. Applications in transportation, stationary, and portable power
10.6. Thermal and water management in fuel cell systems
10.7. Economic analysis and market applications
10.8. Future developments and emerging technologies
11. Hydrogen Utilization in Industrial Processes
11.1. Fischer-Tropsch synthesis and synthetic fuel production
11.2. Ammonia synthesis and fertilizer production
11.3. Hydrogen in steel production and metallurgy
11.4. Refinery operations and petroleum processing
11.5. Chemical industry applications and processes
11.6. Process optimization and efficiency improvement
11.7. Economic and environmental impact analysis
11.8. Case studies from major industrial implementations
12. Hydrogen Transport Applications and Infrastructure
12.1. Transport sector overview and hydrogen advantages
12.2. Automotive applications and fuel cell vehicles
12.3. Aviation systems and aerospace applications
12.4. Marine technologies and shipping applications
12.5. Infrastructure requirements and development
12.6. Refueling stations and distribution networks
12.7. Safety protocols and regulatory compliance
12.8. Performance metrics and economic analysis
12.9. Future trends in hydrogen mobility
13. Hydrogen Infrastructure Development and Supply Chain Management
13.1. Infrastructure planning and development strategies
13.2. Supply chain design and logistics optimization
13.3. Distribution network technologies and economics
13.4. Compression, liquefaction, and transportation methods
13.5. Refueling station design and operation
13.6. Storage and distribution safety protocols
13.7. Economic models and financing strategies
13.8. International trade and regulatory frameworks
14. Industrial Hydrogen Process Integration and System Optimization
14.1. Process design and system integration strategies
14.2. Efficiency optimization and performance enhancement
14.3. Safety measures and risk management
14.4. Cost considerations and economic optimization
14.5. Performance monitoring and control systems
14.6. Environmental impact and sustainability
14.7. Digital transformation and Industry 4.0 integration
14.8. Case studies from successful implementations
15. Membrane Technologies for Hydrogen Processing
15.1. Advanced membrane types and materials
15.2. Separation technologies and process optimization
15.3. System design and integration strategies
15.4. Performance optimization and efficiency improvement
15.5. Quality control and process monitoring
15.6. Cost analysis and economic considerations
15.7. Application methods and industrial implementations
15.8. Latest developments in membrane materials and applications
15.9. Challenges and future directions in membrane technology
16. Smart Control Systems and IoT Integration for Hydrogen Technologies
16.1. IoT implementation and connectivity solutions
16.2. Real-time monitoring and data analytics
16.3. System control and automation technologies
16.4. Predictive maintenance and fault detection
16.5. Smart sensors and measurement systems
16.6. Integration protocols and communication standards
16.7. Performance optimization using digital technologies
16.8. Cybersecurity and data protection
17. Digital Twin Technology for Hydrogen Systems
17.1. Digital twin concepts and implementation strategies
17.2. System modeling and simulation techniques
17.3. Performance prediction and optimization
17.4. Maintenance optimization and lifecycle management
17.5. Real-time monitoring and data integration
17.6. Process optimization and efficiency improvement
17.7. Cost analysis and ROI evaluation
17.8. Implementation strategies and best practices
18. Advanced Manufacturing Technologies for Hydrogen Components
18.1. Advanced manufacturing processes and technologies
18.2. Quality control and assurance systems
18.3. Production optimization and lean manufacturing
18.4. Automation systems and digital manufacturing
18.5. Cost reduction strategies and value engineering
18.6. Efficiency improvement and waste reduction
18.7. Sustainability measures and environmental impact
18.8. Industry standards and certification requirements
19. Safety and Risk Management in Hydrogen Systems
19.1. Advanced risk assessment methodologies
19.2. Comprehensive safety protocols and procedures
19.3. Emergency response systems and procedures
19.4. Advanced monitoring and detection systems
19.5. Training requirements and competency development
19.6. Regulatory compliance and international standards
19.7. Best practices and lessons learned
19.8. Case studies from safety incidents and improvements
20. Life Cycle Assessment and Economic Analysis of Hydrogen Technologies [Consolidated from original Chapters 18 and 19]
20.1. LCA methodologies and environmental impact assessment
20.2. Economic analysis tools and financial modeling
20.3. Market opportunities and business model development
20.4. Investment planning and risk assessment
20.5. Sustainability metrics and reporting systems
20.6. Decision support tools and frameworks
20.7. Policy implications and regulatory considerations
20.8. Integration of environmental and economic factors
21. Future Trends and Innovations in Hydrogen Technologies
21.1. Emerging technologies and breakthrough innovations
21.2. Research trends and development priorities
21.3. Innovation opportunities and market developments
21.4. Technology roadmaps and strategic planning
21.5. Policy evolution and international cooperation
21.6. Implementation challenges and solutions
21.7. Future scenarios and strategic implications
21.8. Investment opportunities and market projections
Product details
Product details
- Edition: 1
- Latest edition
- Published: March 1, 2027
- Language: English
About the authors
About the authors
MK
Mohit Hemanth Kumar
Mohit Hemanth Kumar is an accomplished academic currently serving as an Assistant Professor and the Associate Director of the AU IPR Cell at Alliance University, Bengaluru. He earned his PhD from the National Institute of Technology, Tiruchirappalli, where he specialized in the development and investigation of nanofiller-reinforced hybrid polymer composites. His research interests span several critical areas in mechanical engineering and materials science, focusing on inorganic filler-reinforced hybrid polymer composites, nanocomposites, waste-to-innovative products, industrial product design and development, and manufacturing technology. As an educator, he has developed and taught courses in mechanical engineering fundamentals, product development and design, additive manufacturing, smart manufacturing, and materials technology. Dr. Kumar is a prolific author of journal articles and book chapters, and his research contributions have had a significant impact in his field, leading to several granted patents and granted industrial designs. He maintains strong professional affiliations as a life member of several prestigious organizations, including the Indian Society of Technical Education, Institute of Engineer's India, Society for Failure Analysis, International Association of Engineers, and the Powder Metallurgy Association of India. He serves as a reviewer for numerous high-impact journals, including Nature’s Scientific Reports, Elsevier’s Heliyon, and various Wiley and Springer publications.
SB
Sasmita Bal
Dr. Sasmita Bal is an Associate Professor in the Department of Mechanical Engineering at Alliance University, Bangalore. With a Ph.D. in Mechanical Engineering from KIIT Deemed University and an M.Tech from NIT Rourkela, she brings extensive expertise in thermal engineering, microfluidics, and advanced manufacturing technologies.
Her research interests span microfluidics, jet and spray impingement, CFD analysis, electronic cooling technologies, composites, and additive manufacturing. Dr. Bal has published numerous research papers in international journals and conference proceedings, and has two patents to her credit. She is a professional member of The Institution of Engineers (India) and the Institution of Engineering and Technology (IET).
As an accomplished researcher and educator, Dr. Bal has edited multiple technical publications, including proceedings of international conferences and textbooks on advanced manufacturing technologies. Her work consistently demonstrates a commitment to innovative research and sustainable technological development. Dr. Bal is a recipient of the prestigious Nanomaterials and Energy Prize for her groundbreaking research paper "Energy transition: paving the way for a greener future", further highlighting her significant contributions to sustainable energy research.
VS
Vedharaj Sivasankaralingam
Dr. S. Vedharaj is an Assistant Professor in the Department of Mechanical Engineering at the National Institute of Technology, Tiruchirappalli, India. He earned his Ph.D. in Mechanical Engineering from the National University of Singapore in 2014 and completed his postdoctoral research at King Abdullah University of Science and Technology, Saudi Arabia. His research focuses on internal combustion engines, alternative fuels, hydrogen technologies, and high-efficiency combustion concepts. Dr. Vedharaj has published extensively in high-impact journals including Fuel, Applied Energy, and Energy Conversion and Management. His significant contributions include pioneering work on biofuel utilization in diesel engines, optimization of combustion parameters, and emission reduction strategies. His research on novel fuel sources such as pine oil, kapok biodiesel, cashew nut shell liquid, and hydrogen-based systems has advanced the field of sustainable combustion technologies, supporting the transition to cleaner energy alternatives.
JK
Jayaraman Kandasamy
Dr. Jayaraman Kandasamy is Chief Manager at the National Centre for Combustion Research and Development (NCCRD) at IIT Madras. He received his Ph.D. in Aerospace Engineering from IIT Madras in 2008. With over 15 years of research experience across prestigious institutions including CNRS-ICARE (France), Middle East Technical University, and TUBITAK (Turkey), he has established expertise in hydrogen production technologies, hypersonic propulsion, and aerospace applications. Dr. Kandasamy is the Founder and CEO of Hypersonic Technologies Pvt Limited and Co-Founder of Harpy Aerospace Pvt Ltd, focusing on innovative space technologies, plasma propulsion systems, and sustainable energy solutions. His interdisciplinary research spans nanosatellite technology, climate change mitigation, and advanced materials for aerospace applications. He has contributed significantly to the development of pyrolysis technologies and propellant systems for gas turbine engines.