Cell Lab Sodium Iron Phosphate Powder [NaFePO₄, Carbon-Coated, 99.9% Purity, 50 g] – High-Purity Sodium-Ion Battery Cathode Material

Cell Lab Sodium Iron Phosphate Powder [NaFePO₄, Carbon-Coated, 99.9% Purity, 50 g] – High-Purity Sodium-Ion Battery Cathode Material

Carbon-coated NaFePO₄ cathode powder offering stable olivine structure and superior electrochemical performance

The Cell Lab Sodium Iron Phosphate (NaFePO₄) powder is a high-purity (≥99.9%) carbon-coated phosphate cathode material optimised for sodium-ion battery (SIB) research and development. With a robust olivine crystal structure and a theoretical capacity of 155 mAh/g, NaFePO₄ demonstrates excellent cycling stability, cost efficiency, and environmental sustainability.

The uniform 3 wt% carbon coating enhances electrical conductivity and electrolyte wettability, while its fine particle size (≤3 µm) ensures consistent dispersion in electrode slurries. This makes it an ideal choice for laboratories working on post-lithium battery systems, solid-state energy storage, and next-generation cathode materials.

Key Features

Enhanced Electrical Conductivity
A 3 wt% carbon coating promotes superior charge transfer efficiency and improved electrolyte interface wetting.

High-Purity Composition (≥ 99.9%)
Guarantees reliable, reproducible data by minimising impurity-related electrochemical noise.

Fine and Uniform Particle Size
Particles ≤ 3 µm ensure homogeneous electrode coating and optimised ion diffusion during charge/discharge.

Stable Olivine Crystal Framework
Delivers structural integrity and long cycle life, even under repeated Na⁺ intercalation.

Sustainable Energy Storage Alternative
Offers a cost-effective, eco-friendly solution using earth-abundant sodium resources instead of lithium.

Technical Specifications

Impurity Content (ppm max):

Applications & Industries

• Sodium-ion and solid-state battery cathode research

• Energy storage material development and benchmarking

• Cost-effective phosphate-based battery innovation

• Academic and industrial R&D laboratories

• Post-lithium energy systems and sustainability studies

FAQ

Q1: Why is NaFePO₄ preferred for sodium-ion batteries?
Its olivine structure offers exceptional stability and safety while providing high theoretical capacity and cost efficiency.

Q2: What is the benefit of carbon coating?
The carbon layer enhances electrical conductivity and electrolyte compatibility, improving overall electrochemical kinetics.

Q3: How should the powder be stored?
Keep sealed in a dry, inert environment to prevent surface oxidation or moisture absorption.

Q4: Is this powder compatible with both liquid and solid electrolytes?
Yes. It is widely compatible across liquid, polymer, and solid-state SIB systems.

Q5: Can custom batch sizes be ordered?
Yes. Bulk packaging options (10 g–1 kg) are available for laboratory or pilot-scale applications.