Lithium-ion batteries are widely used in various applications due to their high energy
density, columbic efficiency, and scalability. While their safety mechanisms, such as heat …

The chemical composition significantly affects the inherent electrical surface properties of
the graphite and SiO electrodes, which further, significantly alters the thermal stability of …

Individually functionalized cation‐and anion‐based ionic additives are designed to mitigate
the interfacial side reaction occurring on both the positive and negative electrode surfaces …

Formation of the solid electrolyte interphase (SEI) on hard carbon electrode significantly
influences the performance of batteries, in terms of cycle performance, calendar life, and …

Ether-based electrolytes with high reductive stability can be compatible with multiple
anodes. However, their low oxidative stability and low flash point lead to restrictions for …

Despite considerable research efforts of lithium metal batteries (LMBs) in various aspects
are performed, however the application as the power sources for transport vehicles remains …

Owing to the limited electrochemical stability window of carbonate electrolytes, the initial
formation of a solid electrolyte interphase and surface film on the negative and positive …

High-entropy oxides (HEOs) are considered promising electrode materials as they have
great potential to provide much higher energy density and cyclability than their conventional …

Li metal batteries (LMBs) coupled with Ni-rich cathode are regarded as a holy grail to
achieve high energy density for the application in electric vehicles. However, the practical …

The reversibility and stability of zinc (Zn) metal anode are closely related to inner Helmholtz
plane (IHP) chemistry. The H2O‐rich IHP raises severe parasitic reactions and irregular Zn …