In lithium-ion battery systems for consumer electronics such as mobile phones, laptops, and Bluetooth headsets, lithium cobalt oxide is one of the most classic and widely used cathode materials.

Lithium iron phosphate (LiFePO₄, abbreviated as LFP) is an inorganic compound. In the context of lithium batteries, it mainly refers to lithium iron phosphate used as the positive electrode material in lithium-ion batteries.

With the booming development of new energy vehicles and intelligent energy storage systems, the core raw material of lithium-ion batteries—cathode materials—is undergoing unprecedented technological iteration.

With the booming development of the global clean energy and electric vehicle industry, lithium-ion batteries have become the core of modern energy storage and power fields.

High working voltage, high compaction density, fast charge‑discharge capability and long cycle life. With compaction density ≥ 2.5 g/cm³, smooth charge‑discharge curve and high operating voltage plateau of 3.7 V, LCO is the dominant cathode material for miniaturized, high energy density consumer‑electronic applications including smartphones, tablets, laptops and drones.

High energy density, excellent stability, long cycle life, good low‑temperature performance, and outstanding processability. Designed for R&D and production of lithium‑ion cells for power and energy storage applications.

Lithium iron phosphate delivers outstanding performance and long cycle life with favorable processability. It is suitable for R&D and production of various lithium-ion batteries, including power and energy-storage batteries.

Graphite-based anode active materials are high-performance powdered carbon materials,featuring high capacity, high tap density, long cycle life, and outstanding stability.

By leveraging the high specific capacity of silicon, these materials boost battery energy density. The buffering effect of silicon oxides, combined with the conductive and flexible networks of carbon materials, effectively mitigates the volume expansion of silicon during charge/discharge cycling, and improves electrode structural stability and cycle life.

Carbon black has a large specific surface area and excellent ion and electron conductivity, which facilitates electrolyte adsorption and enhances ionic conductivity. It is suitable for the research and production of dry batteries, lithium batteries, carbon-zinc batteries, double-layer capacitors, fuel cells, and other electrochemical systems.

Owing to their ultra‑small dimensions and excellent conductivity, carbon nanotubes serve as a highly‑effective conductive additive widely used in consumer electronics, communications, energy‑storage systems and power batteries.

PVDF offers excellent adhesion, chemical stability, thermal stability, electrical insulation, high mechanical strength, low moisture pickup and a wide processing window. It ensures a dense and robust electrode structure, withstands high temperatures and resists electrolyte attack and supports long‑term battery reliability.