Key Application Scenarios

• Transition Metal Ion Capture
  
  During battery cycling, positive electrode materials release transition metal ions that catalyze electrolyte decomposition, reducing battery life and safety. Customized MOF materials efficiently capture these ions through synergistic physical and chemical adsorption, preventing damage to electrolytes and electrodes without affecting lithium ion transport.

• Lithium Dendrite Suppression
  
  Lithium dendrite growth on the negative electrode can pierce the separator, causing short circuits and thermal runaway. MOF materials modified on the negative electrode or integrated into separators guide uniform lithium ion deposition, inhibiting dendrite formation while maintaining good electrochemical stability and electrolyte compatibility.

• Battery Separator Coating Modification
  
  Traditional polyolefin separators suffer from poor thermal stability and electrolyte wettability. MOF-based composite coatings enhance separator performance, improving electrolyte absorption, thermal stability, and mechanical strength. The coating is compatible with existing production lines without additional equipment modifications.

• MOF-Based Solid-State Electrolytes
  
  Liquid electrolytes pose leakage and flammability risks. MOF-based solid-state electrolytes use MOF frameworks as lithium ion transport channels, offering high ionic conductivity, good mechanical strength, and thermal stability. They address interface impedance issues, enabling safer and higher energy density batteries.