Breaking the Reversibility Barrier in Zn‐Air Systems With Dual‐Electrolyte Engineering

in alkaline electrolyte, showing promise in advanced energy storage techniques. Additionally, replacing OER with iodine oxidation reaction reduces charging voltage to 1.5 V and achieves a 3.7 V output via serial discharging. This work proposes the separation engineering of battery architectures, integrating benefits from diverse electrolyte environments, and paves the way for aligning advancements in energy storage, waste management, material recycling, and sustainable power solutions for electric vehicles.