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Electrochemical energy storage is at the forefront of energy storage technology. It plays a large part in our lives, ranging from portable electronics to hybrid vehicles. The purpose of this book is to focus on recent advances in nanomaterials for advanced energy and power storage devices. The advancements include flow based energy devices, thermal energy storage devices, quantum dot based devices, electrodes and electrolytes of state-of-art and expand on the basic principles, operational practices and technological advancements. This will help the readers to assimilate the latest trends in the advanced energy and power storage devices. This book would appeal to researchers, scientists engaged in developing high performance devices.
Key Features
- Covers the latest research on the use of nanomaterials in state-of-the-art advanced electrochemical energy storage systems
- Covers flow batteries, hybrid supercapacitors
- Nanomaterials covered include quantum dots, thermal phase change materials, complex electrolytes
- Focuses on applications with an emphasis on bulk usage and scale up
- Includes advanced characterisation and testing, and future trends and directions
- Includes real-world case studies and end-of-chapter summaries
Prof K.R.V. Subramanian is a professor and HOD in the Mechanical Engineering department and Head of Research and Development at Ramaiah Institute of Technology, India. His research interests are in nanocomposites, nanofluids, nanotechnology, energy storage nanomaterials, nanofabrication, nanodevices, nanothermoelectrics and graphene-based sensors. He earned his PhD from Cambridge University in 2006 specialising in nanotechnology. He has over 30 years of academic and industrial work experience, has published over 160 journal and conference papers, and is the editor of two books published by CRC Press and a book published by IOP. He is a Marquis Who's Who of the World and an IBC Top 100 professional. He has been a principal investigator for many government-funded research projects.
Prof N Sriraam is a professor of Medical Electronics at Ramaiah Institute of Technology, India. He received his Ph.D. in Information Technology from the Multimedia University in Malaysia in 2007. He is the author or co-author of 150 published articles and has been involved in several sponsored research projects. He is the editor-in-chief of the International Journal of Biomedical and Clinical Engineering and a reviewer for journals including IEEE Transactions on Signal Processing Communications and IEEE Electronics Letters. He is a senior member of the IEEE and IEEE Engineering in Medicine and Biology Society (EMBS) and the Signal Processing Society.
Dr Aravinda C.L. Rao is an Associate Vice President at the Product Application & Research Centre, Reliance Industries Ltd., India. After completing his PhD at Bangalore University in 2001, he pursued his post-doctoral work at IISc., Bangalore, as an Alexander Humboldt fellow at Karlsruhe Institute of Technology, Technical University of Munich and University of California at Riverside. His research interests include nanotechnology, graphene-based advanced materials, polymer composites, biosensors, thin films and coatings for electronics. He has a rich and varied academic history as well as over 18 years of R&D experience in multinational companies. He has authored more than 25 papers in reputed journals, a book chapter and several conference papers.
Prof T. Nageswara Rao was a HOD and professor in the Mechanical Engineering Department at GITAM University in Bangalore, India. He earned his PhD from Indian Institute of Technology, Chennai in 2001 specializing in thermal engineering. He has over 25 years of academic and industrial work experience and has published over 30 journal and conference papers.
Table of Contents:
Chapter 1: Nanomaterials for static and dynamic flow supercapacitors
1.0 Introduction
1.1 Classification based on working principle
1.2 Classification based on morphology
1.3 Materials used as substrates in flexible supercapacitors
1.4 Materials used for making the electrode
1.5 Materials used as the electrolyte
1.6 Electrochemical flow capacitor
1.7 Conclusion
Chapter 2: Emerging technological advancements in thermal energy storage
2.1 Introduction
2.2 TES Technologies
2.3 Latent heat storage systems
2.4 Applications of sensible thermal energy storage
2.5 Sensible thermal energy storage
2.6 Latent heat energy storage
Chapter 3: Quantum dots as an efficient supercapacitor for modern world
3.1 Introduction
3.2 Synthesis of carbon quantum dots
3.3 Synthesis of Graphene quantum dots
3.4 Carbon quantum dots for supercapacitors
3.5 Graphene quantum dots for supercapacitors
3.6 Conclusion
Chapter 4: Importance of redox active electrolyte for the next generation energy storage system
4.1 Introduction
4.2 Charge storage principles of Redox electrolytes contains ECs
4.3 Mechanism of diffusion, adsorption, and kinetics of redox electrolyte
4.4 Categories of redox electrolyte
4.4.1 Aqueous systems
4.4.1.1 Anion redox electrolytes
4.4.1.2 Cation redox electrolytes
4.4.1.3 Neutral redox electrolytes
4.4.2 Non-aqueous electrolyte
4.4.2.1 Ionic liquid based redox electrolytes
4.4.2.2 Gel polymer based redox electrolytes
4.5 Dual redox electrolyte non-flow system
4.6 Catholyte and anolyte based redox electrolyte
4.7 Conclusion
Chapter 5: Conclusion on current trends in energy storage system
5.1 Mechanical energy storage
5.2 Heat energy storage
5.3 Electrochemical energy storage
5.4 Electromagnetic energy storage
5.5 Chemical energy storage
5.6 Hydrogen energy storage
5.7 Synthetic gas
5.8 Solar fuels
5.9 Future aspects of energy storage systems