Controllable catalysis behavior for high performance lithium sulfur batteries: From kinetics to strategies

Hollow structures Prussian blue, its analogs, and their derivatives: Synthesis and electrochemical energy‐related applications

“…Advanced electric energy storage equipment is very important for the development and application of new clean energy. [57][58][59][60] Rechargeable batteries, such as lead-acid batteries, [61] nickel-metal hydride batteries, [62,63] and lithium-ion batteries (LIBs), [64,65] have been widely used in many fields. The electrolyte has an important influence on the performance of the battery.…”

Design and Synthesis of Multi‐Functional Polymeric Binders for High‐Performance Lithium‐Sulfur Batteries Based on Ring Opening Polymerization of Thiolactone†

“…Among many lithium secondary batteries, Li‐S batteries have ultra‐high theoretical energy density with abundant sulfur reserves, and were once considered as one of the most potential secondary batteries. [ 1‐4 ] However, the volume expansion during the formation of Li 2 S, the poor conductivity of sulfur and its discharge products, and the generation of lithium dendrites hinder the industrial production and commercialization of Li‐S batteries. [ 5‐7 ] In addition, the dissolution and migration of lithium polysulfides (LiPSs) (the so‐called "shuttle effect") lead to rapid degradation of battery performance, [ 8‐10 ] which hinders the development of high‐performance Li‐S batteries.…”

A Ni-MOF derived graphene oxide combined Ni3S2–Ni/C composite and its use in the separator coating for lithium sulfur batteries

“…[6][7][8] However, after decades of research, LSBs still have not embarked on the road of commercialization. 9 At present, the obstacles are mainly summarized as the following points: the poor conductivity of sulfur and its reaction product Li 2 S increases the resistance inside the battery. 10,11 The ''volume expansion'' of the cathode electrode will lead to the pulverization and collapse of the electrode structure.…”