Inorganic Electrode Materials in High Performance Energy Storage Devices
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This Reprint focuses on the innovation, optimization, and application of inorganic electrode materials for high-performance energy storage, addressing key challenges in advanced energy storage technologies. It covers a diverse range of systems, including lithium-sulfur batteries, lithium-ion batteries, aqueous zinc-ion batteries, sodium-ion batteries, hybrid supercapacitors, and methanol-mediated water splitting. Featured research highlights cutting-edge strategies: structural engineering (hollow architectures, carbon nanofiber encapsulation, porous nanosheets), composition regulation (bimetallic synergistic effects, heteroatom doping, high-entropy alloying), and simplified scalable synthesis (EDTA-based synchronous carbonization-doping, two-step thermal annealing). The collected works report remarkable performance breakthroughs-such as long-cycle stability for sodium-ion battery anodes, high-rate capability for lithium-ion battery electrodes, and low overpotential for water-splitting catalysts-while elucidating critical structure-performance relationships. This Reprint serves as a concise, authoritative resource for researchers and engineers, facilitating knowledge exchange on inorganic electrode materials and accelerating the translation of fundamental research into practical, sustainable energy storage solutions.
This Reprint focuses on the innovation, optimization, and application of inorganic electrode materials for high-performance energy storage, addressing key challenges in advanced energy storage technologies. It covers a diverse range of systems, including lithium-sulfur batteries, lithium-ion batteries, aqueous zinc-ion batteries, sodium-ion batteries, hybrid supercapacitors, and methanol-mediated water splitting. Featured research highlights cutting-edge strategies: structural engineering (hollow architectures, carbon nanofiber encapsulation, porous nanosheets), composition regulation (bimetallic synergistic effects, heteroatom doping, high-entropy alloying), and simplified scalable synthesis (EDTA-based synchronous carbonization-doping, two-step thermal annealing). The collected works report remarkable performance breakthroughs-such as long-cycle stability for sodium-ion battery anodes, high-rate capability for lithium-ion battery electrodes, and low overpotential for water-splitting catalysts-while elucidating critical structure-performance relationships. This Reprint serves as a concise, authoritative resource for researchers and engineers, facilitating knowledge exchange on inorganic electrode materials and accelerating the translation of fundamental research into practical, sustainable energy storage solutions.
AmazonPagina's: 166, Hardcover, MDPI AG
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