Advanced Energy Materials · 2019 · 440 citations · 92 references
EngineeringChemical EngineeringMaterials ScienceCatalysisElectrochemical EngineeringElectrochemistryBattery MaterialsBattery SystemsBattery TechnologyElectrochemical Energy StorageEnergy StorageEnergy Storage MaterialsLithium-ion BatteriesLithium-ion Battery ChemistryLithium-ion Battery SystemsLithium-sulfur BatteriesPerformance ObstaclesSulfur Redox ChemistrySulfur Redox ReactionsSulfur Redox Transformations
Abstract Lithium‐sulfur (Li‐S) batteries are one of the most promising next‐generation energy‐storage systems. Nevertheless, the sluggish sulfur redox and shuttle effect in Li‐S batteries are the major obstacles to their commercial application. Previous investigations on adsorption for LiPSs have made great progress but cannot restrain the shuttle effect. Catalysts can enhance the reaction kinetics, and then alleviate the shuttle effect. The synergistic relationship between adsorption and catalysis has become the hotspot for research into suppressing the shuttle effect and improving battery performance. Herein, the adsorption‐catalysis synergy in Li‐S batteries is reviewed, the adsorption‐catalysis designs are divided into four categories: adsorption‐catalysis for LiPSs aggregation, polythionate or thiosulfate generation, and sulfur radical formation, as well as other adsorption‐catalysis. Then advanced strategies, future perspectives, and challenges are proposed to aim at long‐life and high‐efficiency Li‐S batteries.
92
Single-atom catalysis of CO oxidation using Pt1/FeOx
Botao Qiao, Aiqin Wang, Xiaofeng Yang et al. · Nature Chemistry · 2011 · 7.3K citations
A highly efficient polysulfide mediator for lithium–sulfur batteries
Xiao Liang, Connor J. Hart, Arnd Garsuch et al. · Nature Communications · 2015 · 2K citations · Full text
Natural Sciences, Chemical Engineering, Materials Science +17