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Review of the I− I3− redox chemistry in Zn-iodine . . . - ScienceDirect Zn-iodine redox flow batteries have emerged as one of the most promising next-generation energy storage systems, due to their high energy density, low cost and superior safety However, the low I2 utilization and shuttle effect of iodine species greatly inhibit their practical use
Interfacial Adsorption Layers Based on Amino Acid Analogues to Enable . . . Aqueous zinc–iodine (Zn–I 2) batteries are promising candidates for large-scale energy storage due to the merits of low cost and high safety However, their commercial application is hindered by Zn corrosion and polyiodide shuttle at I 2 cathode
Interfacial Adsorption Layers Based on Amino Acid Analogues to Enable . . . Aqueous zinc-iodine (Zn-I 2) batteries are promising candidates for large-scale energy storage due to the merits of low cost and high safety However, their commercial application is hindered by Zn corrosion and polyiodide shuttle at I 2 cathode
Decoding the Three-Card Monte: Unraveling the Role of Solvation Shell . . . The importance of stable SEI formation as the key determinant in enhanced performance is further supported by crossover experiments Overall, this study underscores the paramount importance of stable SEI formation over solvation and adsorption effects in enhancing the lifespan of Zn anodes
Dual-plating aqueous Zn–iodine batteries enabled via halogen . . . Here, we develop 10 Ah dual-plating Zn–I 2 batteries (DPZIB) by employing ZnI x G4 (tetraglyme) complex chemistry, in which zinc and iodine are iteratively dissolved and deposited in the aqueous electrolyte The battery contains no membrane or high-cost electrolytes