This Review provides a comprehensive overview of LiNiO2 (LNO), almost 30 years after its
introduction as a cathode active material. We aim to highlight the physicochemical …

The layered nickel‐rich cathode materials are considered as promising cathode materials
for lithium‐ion batteries (LIBs) due to their high reversible capacity and low cost. However …

Currently, the main drivers for develo** Li‐ion batteries for efficient energy applications
include energy density, cost, calendar life, and safety. The high energy/capacity anodes and …

High-energy-density lithium-metal batteries face the challenge of develo** functional
electrolytes enabling both the stabilization of the lithium-metal negative electrode and high …

High energy‐density lithium‐ion batteries are in demand for portable electronic devices and
electrical vehicles. Since the energy density of the batteries relies heavily on the cathode …

The Li-ion battery (LIB) industry has rapidly developed and dominates the market of electric
vehicles and portable electronic devices. Special attention is devoted to achieving higher …

Energy‐storage technologies, including electrical double‐layer capacitors and rechargeable
batteries, have attracted significant attention for applications in portable electronic devices …

Structural degradation of Ni-rich cathode materials (LiNi x M1–x O2; M= Mn, Co, and Al; x>
0.5) during cycling at both high voltage (> 4.3 V) and high temperature (> 50° C) led to the …

Lattice oxygen release (LOR), which promotes surface structural degradation and electrolyte
decomposition, is a major contributor to capacity fade and thermal runaway in layered oxide …

Capacity degradation by phase changes and oxygen evolution has been the largest
obstacle for the ultimate commercialization of high‐capacity LiNiO2‐based cathode …