Designing High‐Performance Dual‐Ion Batteries: Insights into Electrode, Electrolyte, and Interface Engineering
Xiaoming Qiu, Hong Liu, Yun Duan, Meng Wu, Yang Li, Xiaomin Wang, Ce‐Wen Nan, Li‐Zhen Fan
Abstract
Abstract Dual‐ion batteries (DIBs) have garnered significant interest due to their high operating voltage, low cost, and environmental sustainability. However, their energy density remains insufficient for commercial viability. Driven by the evolving demands of advanced energy markets and material‐specific application requirements, substantial progress has been made in the innovation and modification of key materials for DIBs. Critical electrochemical performance metrics—such as energy density, power density, rate capability, and cycling stability—are heavily influenced by the structure and properties of both electrode and electrolyte materials. This review provides an overview of strategies to enhance carrier migration dynamics, including advancements in electrode and electrolyte material composition and design, carrier transport mechanism optimization, and interface engineering. These developments are poised to accelerate the commercialization of DIBs, facilitating their integration into future energy storage technologies.