High-performance porous carbon is an advanced functional carbon material developed on the basis of traditional ordinary porous carbon. It is fabricated from high-purity raw materials through precise carbonization and gradient activation processes, with artificially regulated hierarchical pore structures composed of micropores, mesopores and macropores. Featuring ultra-large specific surface area and abundant surface active sites, it greatly outperforms conventional carbon materials in comprehensive performance.

The material solves the defects of single pore structure and low mass transfer efficiency of common carbon products. The reasonably matched graded pores realize rapid transmission and efficient adsorption of ions and molecules. Meanwhile, it maintains excellent electrical conductivity, chemical stability and mechanical strength, with strong corrosion resistance and high and low temperature resistance. Through targeted surface modification, it can achieve customized functional characteristics to adapt to diverse complex working conditions.

Carbon-silicon anode material is an advanced composite negative electrode material for lithium-ion batteries. It is composed of silicon particles with high lithium storage capacity and carbon matrix with excellent stability and conductivity. The material effectively combines the ultra-high energy density of silicon and the outstanding structural stability of carbon, solving the capacity limitation of traditional graphite anodes and becoming a core material for new energy power batteries and energy storage batteries.

The most prominent advantage of carbon-silicon anode is its excellent lithium storage performance, which greatly improves battery energy density and significantly enhances the endurance of electric vehicles and digital devices. The carbon coating structure effectively relieves volume expansion, cracking and powdering of silicon during charging and discharging, extending battery cycle life. In addition, it features good electrical conductivity, fast charging capability and stable electrochemical performance.

Supercapacitor carbon is a high-end functional porous carbon material specially developed for supercapacitors, serving as the core electrode material for electrochemical energy storage. It is mainly prepared from coconut shell, biomass and high-purity resin through precise activation and pore structure regulation. Different from ordinary water-purifying activated carbon, it features a hierarchical pore structure, ultra-large specific surface area and excellent electrical conductivity.

The unique graded pores endow the material with outstanding electrochemical properties. Micropores provide sufficient active sites for energy storage, while mesopores and macropores accelerate electrolyte penetration and ion transmission. It supports ultra-fast charging and discharging with high power density, and can stably circulate hundreds of thousands of times. With high purity and great temperature resistance, it maintains stable performance in complex working conditions without obvious polarization attenuation.

Carbon-silicon anode is an advanced composite anode material for high-performance lithium-ion batteries. It is synthesized by compounding silicon and carbon materials, perfectly integrating the ultra-high lithium storage capacity of silicon and the excellent structural stability and conductivity of carbon. This innovative material effectively makes up for the low specific capacity limitation of traditional graphite anodes and has become a core material for upgrading new energy batteries.

The most prominent advantage of carbon-silicon anode is its extremely high energy density, which greatly improves the battery endurance of new energy vehicles and electronic devices. The outer carbon coating can effectively buffer the huge volume expansion of silicon during charging and discharging, preventing electrode cracking and pulverization. It also features outstanding rate performance, fast charging capability and stable cycle life.