High-nickel cathode materials suffer from mechanical cracking and surface side reactions during cycling. Addressing these degradation mechanisms prevents rapid loss of electrochemical performance and safety risks.

Parasitic chemical interactions between high-nickel cathode surfaces and electrolyte cause rapid capacity loss. Mitigating these reactions prevents chemical degradation and gas evolution.

High-nickel cathode materials suffer from parasitic side reactions and phase transitions at the particle-electrolyte interface. Mitigating this degradation prevents capacity loss and thermal runaway.

High-nickel cathode materials suffer from parasitic side reactions and phase transitions at the particle-electrolyte interface. Mitigating this degradation prevents capacity loss and thermal runaway during cycling.

High-nickel ternary cathodes suffer from mechanical strain and phase transitions that lead to capacity fade. Mitigating structural breakdown ensures long-term electrochemical stability.