Extending the limited driving range of current electric vehicles (EVs) necessitates the
development of high-energy-density lithium-ion batteries (LIBs) for which Ni-rich layered …

Lithium–sulfur batteries (LSBs) are promising electrochemical storage devices due to their
incomparable theoretical energy density (2600 W h kg− 1). However, the electrically …

The development of advanced layered Ni-rich cathodes is essential for high-energy lithium-
ion batteries (LIBs). However, the prevalent Ni-rich cathodes are still plagued by inherent …

With ever‐increasing pursuit for high‐value output in recycling spent lithium‐ion batteries
(LIBs), traditional recycling methods of cathodes tend to be obsolete because of the …

The ever‐growing demand for resources sustainability has promoted the recycle of spent
lithium‐ion batteries to a strategic position. Direct recycle outperforms either …

The tungsten with high oxidation states (W 6+) had been proved to effectively improve the
electrochemical performance of ultrahigh-nickel (Ni≥ 90%) cathode materials due to the …

High-voltage phase transition constitutes the major barrier to accessing high energy density
in layered cathodes. However, questions remain regarding the origin of phase transition …

Further commercialization of Ni‐rich layered cathodes is hindered by severe
structure/interface degradation and kinetic hindrance that occur during electrochemical …

Further popularization of ultrahigh-Ni layered cathodes for high-energy lithium-ion batteries
(LIBs) is hampered by their grievous structural and interfacial degeneration upon cycling …

Microstructure engineering of Ni-rich layered cathodes is crucial for mitigating mechanical
degradation induced by anisotropic strain during Li-ion (de) intercalation. While the …