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Full Description
Thermal Energy Storage: The Path from Theory to Application offers a comprehensive exploration of the science and practical implementation of thermal energy storage (TES) systems. This authoritative volume consolidates significant scientific contributions, covering foundational principles such as thermodynamics, heat transfer, and fluid flow, with detailed insights into various TES methods including sensible, latent, thermochemical, and hybrid systems. The book emphasizes the evolution of TES technologies, their advantages, limitations, and innovative approaches to addressing current energy challenges. It also delves into advanced techniques like predictive modeling, numerical methods, experimental strategies, and cutting-edge tools such as 3-D printing and specialized software, equipping readers with the knowledge necessary to develop and optimize TES solutions. Additionally, the book highlights the application of TES across diverse sectors, including building management, power generation, decentralized electrification, food supply chains, and data centers, supported by practical case studies from around the world. It concludes with a discussion of market dynamics, environmental benefits, and emerging trends shaping the future of thermal energy storage, making it an essential resource for both researchers and practitioners. This book is particularly valuable for engineers, scientists, policymakers, and industry professionals working in energy, construction, HVAC, and manufacturing sectors, as well as graduate students and researchers in fields like mechanical engineering, environmental science, and sustainable development. Whether involved in designing energy-efficient systems, conducting research, or developing policies, readers will find this resource indispensable for understanding and implementing TES technologies. By bridging theoretical concepts with real-world applications, Thermal Energy Storage: The Path from Theory to Application helps promote sustainable energy practices, reduce environmental impacts, and foster innovation in energy management across multiple disciplines and industries.
Contents
Part 1: Introduction to Thermal Energy Storage
1.1 Overview, Historical Development and Evolution of TES
1.2 Basic Concepts of Thermodynamics
1.3 Heat Transfer Concepts Involved in TESs
1.4 General Aspects of Fluid Flow Involved in TESs
Part 2: Different Methods of Thermal Energy Storage
2.1 Sensible TESs
2.2 Latent TESs
2.3 Thermo-Chemical TESs
2.4 Hybrid Thermal Energy Storage
Part 3: Useful Approaches for TES Problems
3.1 Predictive Modelling Techniques
3.2 Numerical Techniques
3.3 Experimental Techniques
3.4 3-D Printing for TES
3.5 Different Software Tools
Part 4: Applications of TES in Different Sectors
4.1 Introduction to Thermal Batteries
4.2 TES in Building Sector
4.3 TES in Power Generation and Decentralized Electrification
4.4 TES in Food Supply Chain
4.5 TES in Data Centres and Electronic Cooling
Part 5: Market Outlook, Environmental Benefits, and Future Trends
5.1 Maturity and Cost Effectiveness of TESs
5.2 Role of TES Integration for a Sustainable Future
5.3 Current Status of Market Adaptability
5.4 Different Case Studies
Part 6: Conclusions and Future Recommendations



