Lithium-Sulfur Batteries

PART 1: BASIC PRINCIPLES 1. Introduction to electrochemical energy storage technologies 2. A recent development in Li-S batteries 3. Chemistry and operation of Li-S batteries 4. High-performance Lithium-Sulfur batteries: Role of nanotechnology and nanoengineering 5. Mathematical modeling of Li-S batteries 6. Nanomaterials for advanced Li-S batteries: An introduction 7. Nanocomposites for binder-free Li-S electrodes 8. Separators for Li-S batteries 9. Progress and Perspective of separators towards high-performance lithium sulfur batteries 10. Electrolytes for Li-S batteries

PART 2: NANOMATERIALS AND NANOSTRUCTURES FOR SULFUR CATHODES 11. Porous carbon-sulfur composite cathodes 12. Recent advancement on nanocomposites of carbon / sulfur electrodes for lithium sulfur (Li-S) batteries 13. Advances in nanomaterials for sulfurized carbon cathodes 14. Graphene-sulfur composite cathodes 15. Nanocomposites of graphene-sulfur as cathode materials and separators for Li-S batteries 16. Graphene-sulfur nanohybrids for cathodes in Li-S batteries 17. Metal-organic framework-based cathode materials in Li-S batteries 18. MXene-based sulfur composite cathodes 19. Polymeric nanocomposites for Li-S batteries 20. Design of nanostructured sulfur cathodes for high-performance lithium-sulfur battery 21. Nanostructured additives and binders for sulfur cathodes

PART 3: LITHIUM METAL ANODES: MATERIALS AND TECHNOLOGY 22. Metallic Li anode: An introduction 23. Advanced carbon-based nanostructured framework for Li anodes 24. Carbon-based anode materials for lithium-ion batteries

PART 4: APPLICATIONS AND FUTURE PERSPECTIVES 25. Li-S batteries for marine applications 26. Two-dimensional layered materials for flexible electronics and batteries 27. Sustainability in Li-S batteries 28. Recyclability and recycling technologies for lithium-sulfur batteries 29. Recyclability, circular economy, and environmental aspects of Lithium-sulfur batteries

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• Ciência dos materiais

2-D materials; Activated carbon; Anode recycling; Anode; Artificial solid-electrolyte interphase; Batteries; Battery analyses; Battery management system; Battery modeling; Binary composite; Binder-free electrodes; Binders; Carbon host material; Carbon nanotube; Carbon-sulfur framework; Carbon/sulfur composites; Carbon; Catalyst role; Catalytic effect; Cathode material; Cathode materials; Cathode; Cathodes; Cell chemistry; Cell operation; Chemical immobilization; Chemical interaction; Composite; Composites; Conductivity; Cost-effectiveness; Dendrites; Electrocatalytic activity; Electrochemical energy storage; Electrochemical model; Electrochemical performance; Electrochemical study; Electrolyte; Energy density; Energy storage; Energy-storage mechanism; Environment impacts; Equivalent circuit model; Ferries; Flexible electronics; Graphene; Heteroatom-doped MXenes; Hierarchical carbon; High energy density; High performance; Hydrometallurgy; Inorganic ceramic electrolyte.Li-S battery; Interlayer; Interlayers; Least squares algorithm; Li metal anode; Li-S batteries; Li-S battery; Li-S batteries; Li-free anode; Li-ion batteries; Li-S batteries; Lithiophilic current collector; Lithium anode interface; Lithium metal anode; Lithium metal batteries; Lithium metal battery; Lithium metal; Lithium polysulfides; Lithium-sulfur batteries; Lithium-sulfur battery; Lithium-sulfur; Lithium-sulfur batteries; Lithium-sulfur batteries; Lithium-sulfur battery; Marine vessels; Mesoporous carbon; Metal-organic framework; Microporous carbon; Multilayer; MXene-based composites; MXene-derived oxides; MXenes; Nanocomposite; Nanocomposites; Nanoengineering; Nanomaterials; Nanostructured additives; Nanostructures; Nanotechnology; Next-generation batteries; Novel structured MXenes; Open-circuit voltage; Organic-Liquid electrolyte; Parameter identification; Physical barrier; Physiomechanical treatment; Polyacrylonitrile; Polymer electrolyte; Polymer electrolytes; Polymer; Polyolefin; Polysulfide formation; Polysulfide shuttle; Polysulfides; Porous current collectors; Power density; Pyrometallurgy; Recycling; Redox reaction; Role of catalyst; Safety; Separator; Shuttle effect; Solid electrolyte; Solid state; Solution dispersions; Spent Li-S batteries; Stability; State estimation; Structural design; Sulfur allotropes; Sulfur cathode; Sulfur copolymer; Sulfur host; Sulfur; Sulfurized carbon; Sulfurized polyacrylonitrile; Surface functionalization; Sustainability; Transition metal dichalcogenides; Two-dimensional; Volume expansion; Wettability; Yachts