Resin-Based Porous Carbon for Silicon-Carbon Anode Carrier（SL-C85）

Shanli SL-C85 is a resin-based porous carbon developed for silicon-carbon anode applications. Produced through high-temperature carbonization and activation, it features a uniform microporous structure with zero macroporosity and a pore volume ≥0.85 cm³/g. The material resists collapse and deformation under pressure, providing stable mechanical support for silicon deposition and long cycle life.

Shanli SL-C95 is a high-performance resin-based porous carbon engineered for next-generation silicon-carbon anodes. With a controlled microporous architecture, higher pore volume, and greater specific surface area, it offers expanded internal space for silicon loading. The structure maintains zero macroporosity and remains non-collapsing under pressure, ensuring robust support and improved cycling stability.

SL-C105 is a resin-derived porous carbon engineered for next-generation high-energy-density batteries. Produced through high-temperature carbonization and activation, it addresses the severe volume expansion of silicon anodes during charge/discharge cycles.  

SL-C120 is a resin-based porous carbon produced through high-temperature carbonization and activation. Designed as a high-performance carrier for silicon-carbon anodes, it offers enhanced pore volume and structural stability for advanced lithium-ion battery applications.

SL-TC150 is a resin-derived porous carbon produced through high-temperature carbonization and activation. Featuring a specific surface area of ≥2600 m²/g and a pore volume of ≥1.5 cm³/g with optimized mesopore distribution, it provides superior silicon accommodation and effectively buffers volume expansion during charge/discharge cycles.