Smart Supercapacitors

<p>Part One: Fundamentals of supercapacitors<br>1 General introduction about electrochemistry and supercapacitors<br>2 Historical perspective of electrochemical energy storage devices<br>3 Supercapacitors—new developments<br>4 Fundamental understanding of charge storage mechanism<br>5 Fundamentals of supercapacitors<br>6 Research and technology on smart supercapacitors<br>7 Rapidly emerging aspects & future R&D directions for supercapacitor<br>8 Smart supercapacitors—a new perspective</p> <p>Part Two: Material for Supercapacitors<br>9 Electrode materials for EDLC and pseudocapacitors<br>10 Hybrid supercapacitors, formation, and new advances with different electrochemical electrodes based on layered double hydroxides (LDHs), metal–organic framework (MOF) materials, smart supercapacitors<br>11 Electrolyte materials for supercapacitors<br>12 Nanomaterials for supercapacitors<br>13 Nanocarbons (graphene, etc.), MXenes for energy storage applications<br>14 Novel designs of carbon electrodes for the technological improvement of electrochemical capacitors</p> <p>Part Three: Structures for Supercapacitors<br>15 Design and fabrication of supercapacitors<br>16 Development of symmetric and asymmetric supercapacitors–a step towards efficient and practical energy storage<br>17 Metal-based hybrid capacitors<br>18 Recent progress on materials, architecture, and performances of hybrid battery-supercapacitors</p> <p>Part Four: Smart Supercapacitors<br>19 Transport supercapacitors<br>20 Flexible supercapacitors<br>21 Recent advances in microsupercapacitors: material design, system construction, and applications<br>22 Wearable supercapacitors<br>23 Stretchable supercapacitor<br>24 Healable supercapacitors</p> <p>Part Five: Sustainable Supercapacitor<br>25 Industrial manufacturing of supercapacitors<br>26 Testing and measurement techniques for supercapacitors<br>27 Comparison between supercapacitors and other energy storing electrochemical devices<br>28 Sustainability of current state-of-the-art supercapacitors: a case study<br>29 Quasi-solid-state electrolytes for pseudocapacitors and batteries</p> <p>Part Six: Current problems and future development directions of Smart Supercapacitors<br>30 Commercialization and market for supercapacitor<br>31 Potential impact of smart-hybrid supercapacitors in novel electronic devices and electric vehicles<br>32 Future of smart supercapacitors</p>