Cell Lab Lithium Iron Phosphate (LFP) Powder [1.5 µm D50, Carbon Coated, 500g]

Cell Lab Lithium Iron Phosphate (LFP) Powder [1.5 µm D50, Carbon Coated, 500 g]

High-performance carbon-coated LFP cathode material for lithium-ion batteries

The Cell Lab Lithium Iron Phosphate (LiFePO₄) Powder is a premium battery-grade cathode material engineered for advanced lithium-ion battery applications.
Featuring a carbon-coated surface, uniform particle distribution, and excellent electrochemical stability, this LFP powder ensures superior conductivity, safety, and long cycle life.

Widely adopted in EV batteries, energy storage systems, and laboratory-scale R&D, Cell Lab’s LFP exhibits a specific capacity exceeding 154 mAh/g at 0.1C with >95 % first-cycle efficiency, making it one of the most reliable materials for high-performance lithium cells.

Key Features

• Carbon-Coated Surface – Improves electronic conductivity and enhances overall electrode kinetics for high-rate performance.

• Optimised Particle Size – Median diameter (D50 = 1.5 µm) enables smooth slurry dispersion and uniform electrode coating.

• High Specific Capacity – Delivers >154 mAh/g at 0.1C, maintaining >95 % coulombic efficiency.

• Stable Electrochemical Performance – Provides excellent cycling retention and low internal resistance over extended use.

• Industrial-Grade Purity – Synthesised via solid-state reaction under controlled carbon atmosphere for consistent quality.

Technical Specifications

Chemical Composition (wt %)

Applications & Industries

• Lithium-Ion Battery Cathodes – Core material for LFP-based lithium-ion cells.

• EV Power Batteries – Provides thermal stability and long cycle life for electric vehicles.

• Energy Storage Systems (ESS) – Ensures safe, high-efficiency performance in large-scale grid storage.

• Battery Research & Prototyping – Ideal for laboratory R&D and pilot cell manufacturing.

• Consumer Electronics – Stable, low-cost cathode option for high-safety applications.

FAQ

Q1: What is the advantage of carbon-coated LFP compared to uncoated LFP?
A: The carbon coating enhances conductivity, reduces internal resistance, and improves high-rate charge–discharge performance.

Q2: Is this material compatible with standard NMP-based cathode slurry formulations?
A: Yes. It disperses well in both PVDF/NMP and water-based binder systems (such as CMC/SBR).

Q3: What is the recommended calcination temperature for re-coating or surface modification?
A: Typically between 600–700 °C under inert or reducing atmosphere, depending on the carbon precursor used.

Q4: Can it be used in full-cell or half-cell testing?
A: Yes. It is suitable for both coin-cell and pouch-cell configurations, matched with graphite or LTO anodes.

Q5: How should the powder be stored?
A: Store in airtight containers in a dry, inert atmosphere (argon or nitrogen) to prevent surface oxidation.