Prof. Mohammad Khalid is a Professor in Materials for Green Energy Technologies at the University of Glasgow. His research focuses on the synthesis of advanced nanomaterials for energy harvesting, storage, and conversion applications. He has an extensive publication record in peer-reviewed scientific journals, has edited several books, and holds multiple patents. He serves on the editorial boards of Scientific Reports (Springer) and ECS Sensor Plus (IOP Publishing). He has been consistently ranked among the top scientists globally since 2020. He is also a Fellow of the Higher Education Academy and the Royal Society of Chemistry. Numan Arshid is an Associate Professor and Head of the Sunway Center for Electrochemical Energy and Sustainable Technology, Sunway University, Malaysia. He research interests lie in 2D heterostructure nanomaterials for supercapacitors and rechargeable batteries.A Nirmala Grace is a Professor at the Centre for Nanotechnology Research, Vellore Institute of Technology, India.  Her research interests include energy materials, electrodes for supercapacitors, engineering of inter-layer spaces in 2D materials to improve ion accessibility, tuning the structure and porosity of electrode materials, transparent photovoltaics for device and surface integration, and flexible energy devices for conversion and storage.

"This book provides a great background for the reasons energy storage systems are currently being developed for power systems of the future that incorporate renewable sources with traditional sources including energy storage. You will find the first few chapters providing this very informative background abuot future energy storage and power grid considerations. The book then delves into the material aspects and technologies of supercapacitors and supercapatteries. Different types of materials are being explored for supercapacitors, all with the goal of increasing capacitance, voltage, energy and power densities, and lifetime. Some of the materials covered are conducting polymers, carbonaceous nanocomposites, metal oxides, and various electrode materials. Formulations are described for supercapatteries and applications. Future direction and challenges are also discussed." --IEEE Electrical Insulation Magazine

• 1. Background of Energy Storage 2. Fundamental Electrochemical Energy Storage Systems3. Conducting polymeric nanocomposite for supercapattery4. Carbonaceous nanocomposites for supercapattery 5. Binary Metal oxides for supercapattery6. Ternary nanocomposites for supercapattery7. Metal/Metal Oxide thin film Electrode for Supercapattery8. Aqueous Electrolytes for supercapattery 9. Solid/Gel Polymer Electrolytes for Supercapattery 10. Industrial Scale applications of Supercapattery11. Future Prospects and challenges

Prof. Mohammad Khalid is a Professor in Materials for Green Energy Technologies at the University of Glasgow. His research focuses on the synthesis of advanced nanomaterials for energy harvesting, storage, and conversion applications. He has an extensive publication record in peer-reviewed scientific journals, has edited several books, and holds multiple patents. He serves on the editorial boards of Scientific Reports (Springer) and ECS Sensor Plus (IOP Publishing). He has been consistently ranked among the top scientists globally since 2020. He is also a Fellow of the Higher Education Academy and the Royal Society of Chemistry. Numan Arshid is an Associate Professor and Head of the Sunway Center for Electrochemical Energy and Sustainable Technology, Sunway University, Malaysia. He research interests lie in 2D heterostructure nanomaterials for supercapacitors and rechargeable batteries.A Nirmala Grace is a Professor at the Centre for Nanotechnology Research, Vellore Institute of Technology, India.  Her research interests include energy materials, electrodes for supercapacitors, engineering of inter-layer spaces in 2D materials to improve ion accessibility, tuning the structure and porosity of electrode materials, transparent photovoltaics for device and surface integration, and flexible energy devices for conversion and storage.

"This book provides a great background for the reasons energy storage systems are currently being developed for power systems of the future that incorporate renewable sources with traditional sources including energy storage. You will find the first few chapters providing this very informative background abuot future energy storage and power grid considerations. The book then delves into the material aspects and technologies of supercapacitors and supercapatteries. Different types of materials are being explored for supercapacitors, all with the goal of increasing capacitance, voltage, energy and power densities, and lifetime. Some of the materials covered are conducting polymers, carbonaceous nanocomposites, metal oxides, and various electrode materials. Formulations are described for supercapatteries and applications. Future direction and challenges are also discussed." --IEEE Electrical Insulation Magazine

• 1. Background of Energy Storage 2. Fundamental Electrochemical Energy Storage Systems3. Conducting polymeric nanocomposite for supercapattery4. Carbonaceous nanocomposites for supercapattery 5. Binary Metal oxides for supercapattery6. Ternary nanocomposites for supercapattery7. Metal/Metal Oxide thin film Electrode for Supercapattery8. Aqueous Electrolytes for supercapattery 9. Solid/Gel Polymer Electrolytes for Supercapattery 10. Industrial Scale applications of Supercapattery11. Future Prospects and challenges

Prof. Mohammad Khalid is a Professor in Materials for Green Energy Technologies at the University of Glasgow. His research focuses on the synthesis of advanced nanomaterials for energy harvesting, storage, and conversion applications. He has an extensive publication record in peer-reviewed scientific journals, has edited several books, and holds multiple patents. He serves on the editorial boards of Scientific Reports (Springer) and ECS Sensor Plus (IOP Publishing). He has been consistently ranked among the top scientists globally since 2020. He is also a Fellow of the Higher Education Academy and the Royal Society of Chemistry. Numan Arshid is an Associate Professor and Head of the Sunway Center for Electrochemical Energy and Sustainable Technology, Sunway University, Malaysia. He research interests lie in 2D heterostructure nanomaterials for supercapacitors and rechargeable batteries.A Nirmala Grace is a Professor at the Centre for Nanotechnology Research, Vellore Institute of Technology, India.  Her research interests include energy materials, electrodes for supercapacitors, engineering of inter-layer spaces in 2D materials to improve ion accessibility, tuning the structure and porosity of electrode materials, transparent photovoltaics for device and surface integration, and flexible energy devices for conversion and storage.

"This book provides a great background for the reasons energy storage systems are currently being developed for power systems of the future that incorporate renewable sources with traditional sources including energy storage. You will find the first few chapters providing this very informative background abuot future energy storage and power grid considerations. The book then delves into the material aspects and technologies of supercapacitors and supercapatteries. Different types of materials are being explored for supercapacitors, all with the goal of increasing capacitance, voltage, energy and power densities, and lifetime. Some of the materials covered are conducting polymers, carbonaceous nanocomposites, metal oxides, and various electrode materials. Formulations are described for supercapatteries and applications. Future direction and challenges are also discussed." --IEEE Electrical Insulation Magazine

• 1. Background of Energy Storage 2. Fundamental Electrochemical Energy Storage Systems3. Conducting polymeric nanocomposite for supercapattery4. Carbonaceous nanocomposites for supercapattery 5. Binary Metal oxides for supercapattery6. Ternary nanocomposites for supercapattery7. Metal/Metal Oxide thin film Electrode for Supercapattery8. Aqueous Electrolytes for supercapattery 9. Solid/Gel Polymer Electrolytes for Supercapattery 10. Industrial Scale applications of Supercapattery11. Future Prospects and challenges