Highly stable linking platinum and porous spinel via carbon bridge engineering towards long-lifespan of rechargeable zinc-air battery

Key Points

• This research aims to improve the stability and performance of rechargeable zinc-air batteries through innovative engineering techniques.
• Developed a dealloying-carbon coating-dip pyrolysis strategy to enhance electrocatalyst properties.
• Synthesized a stable linking structure with platinum and porous spinel using carbon bridges.
• Evaluated the electrochemical performance and stability of the resulted battery systems.
• Enhanced stability of electrocatalysts for long-lifespan rechargeable zinc-air batteries.
• Improved energy storage and catalytic activity demonstrated through various tests.
• Achieved superior performance in comparison to traditional battery systems.