CHAPTER 01. NANOSTRUCTURED-BASED ELECTRODE MATERIALS FOR SUPERCAPACITORS
1.1 Introduction
1.2 Importance of Supercapacitors in Modern Energy Storage
1.3 Nanomaterials and nanostructures in supercapacitors
1.4 Characterization Techniques
1.5 Industrial and Practical Applications of Nanostructured Supercapacitors
1.6 Challenges and Future Opportunities
1.7 Conclusion
 
CHAPTER 02. ADVANCED ELECTROLYTE MATERIALS FOR HIGH-PERFORMANCE SUPERCAPACITOR
 
2.1. Introduction
2.2. Aqueous Electrolytes for Supercapacitor Application
2.3. Organic Electrolytes
2.4. Ionic Liquid Electrolytes
2.5. Gel Polymer Electrolytes
2.6. Redox additive based electrolytes
2.7. Summary and Future Perspectives
2.8. References
 
CHAPTER 03. INNOVATIVE CARBON ELECTRODES: A SUPERCAPACITOR PERSPECTIVE
3.1 Introduction
3.2 Unique Properties of Graphene Relevant to Energy Storage
3.3 Graphene-Based Supercapacitors: Fabrication Techniques and Performance Characteristics
3.4 Properties of Single-Walled and Multi-Walled CNTs for Energy Storage
3.5 Integration of CNTs with Other Nanomaterials to Enhance Energy and Power Density
3.6 Synthesis and Properties of Carbon Aerogels/Nanofibers/Dots for High-Performance Supercapacitors
3.7 Integration of Nanostructured Carbon Materials into Flexible and Wearable Devices
3.8 Emerging Carbon Materials for Supercapacitors
3.9 Conclusions
 
CHAPTER 04. GREEN ENERGY MATERIALS: ACTIVATED CARBON FROM BIO WASTE FOR SUPERCAPACITORS
4.1. Introduction
4.2. Activated carbon: Preparation methods and pore structure control
4.3. Activation Techniques
4.4. Pore structure control
4.5. Advanced porous carbons
4.6. Hybrid carbons and composite materials
4.7. Applications and scalability of activated and porous carbon-based supercapacitors
4.8. Scalability and industrial challenges
4.9. Future Perspectives
4.10. References
 
CHAPTER 05. TRANSITION METAL OXIDES BASED ELECTRODES FOR SUPERCAPACITOR
5.1. Introduction
5.2. Importance of MO's (Metal Oxide) as an electrode for supercapacitor
5.3. Strategies, design, and electrochemical properties of MO based material.
5.4. Nanostructured metal Oxide Method of Synthesis
5.5. Electrochemical Performance of Various Metal Oxides
5.6. Binary Metal Oxide Composites
5.7. Challenges and Prevention Approach
5.8. Conclusion
 
CHAPTER 06. LAYERED DOUBLE HYDROXIDES: TAILORING OXIDES, SULFIDES, PHOSPHIDES, AND SELENIDES FOR ENERGY STORAGE
6.1. Introduction
6.2. Layered Double Hydroxides (LDHs) as Supercapacitor Materials
6.3. Synthesis and Modification Techniques for LDHs
6.4. Introduction to Metal Sulfides, Phosphides, and Selenides
6.5. Metal Sulfides for Supercapacitors
6.6. Metal Phosphides for Supercapacitors
6.7. Metal Selenides for Supercapacitors
6.8. Comparative Analysis of LDHs, Sulfides, Phosphides, and Selenides
6.9. Future Perspectives and Research Opportunities
6.10. Conclusion
 
CHAPTER 07. PEROVSKITE OXIDE-BASED ELECTRODES FOR SUPERCAPACITORS
7.1. Introduction to perovskite oxides and their role in electrochemical energy storage
7.2. Electrochemical behavior of perovskite oxides
7.3. Types of perovskite oxides
7.4. Factors affecting pseudocapacitive behavior of perovskite oxides
7.5. Factors affecting energy density of perovskite oxide based supercapacitors
7.6. Applications of perovskite oxides in hybrid and asymmetric
7.7. Challenges and outlook of perovskite oxides
7.8. Future Research Directions
7.9. Conclusion
7.10. References
 
CHAPTER 08. CURRENT CHALLENGES AND FUTURE PERSPECTIVES IN SUPERCAPACITOR TECHNOLOGY
8.1 Introduction
8.2 Overview of the current state of supercapacitor technology
8.3 Current Challenges in Supercapacitor Development.
8.4 Future Research Directions and Technological Innovations
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