Cell Lab Sodium Manganese Phosphate Powder [NaMnPO₄, 99.9% Purity, 50 g]

Cell Lab Sodium Manganese Phosphate Powder [NaMnPO₄, 99.9% Purity, 50 g]

Carbon-coated NaMnPO₄ cathode powder for advanced sodium-ion battery research

The Cell Lab Sodium Manganese Phosphate (NaMnPO₄) powder is a high-purity (≥99.9%) cathode material designed for next-generation sodium-ion batteries (SIBs). Featuring a 3 wt% conductive carbon coating, it provides improved electrical conductivity, enhanced electrolyte wettability, and stable Na⁺ diffusion.

NaMnPO₄ utilises the Mn³⁺/Mn²⁺ redox couple, enabling high reversibility and structural stability within an orthorhombic crystal lattice. With fine particle size (≤3 µm) and uniform carbon dispersion, it is ideal for laboratory-scale SIB development, electrochemical performance testing, and energy storage material innovation.

Key Features

Carbon-Coated for High Conductivity
A uniform 3 wt% carbon layer enhances electron transfer, electrolyte wetting, and cathode–electrolyte interfacial contact.

High Purity Composition (≥ 99.9%)
Research-grade material ensuring consistent quality and reproducible electrochemical results.

Optimised Fine Particle Size
Submicron-level powder (≤ 3 µm) offers superior surface area and active ion intercalation kinetics.

Stable Orthorhombic Structure
Provides strong lattice integrity and reliable Na⁺ transport channels during charge–discharge cycling.

Sustainable Energy Storage Material
Cost-effective and eco-friendly alternative to lithium-based cathodes for next-generation sodium-ion systems.

Technical Specifications

Impurity Content (ppm max):

Applications & Industries

• Sodium-ion and solid-state cathode R&D

• Material science and energy storage innovation

• Electrochemical performance benchmarking

• Battery prototyping and academic research

• Sustainable alternatives to Li-ion cathodes

FAQ

Q1: Why is NaMnPO₄ coated with carbon?
The 3 wt% carbon layer significantly improves electronic conductivity and interfacial contact, essential for efficient charge transfer.

Q2: What makes NaMnPO₄ suitable for sodium-ion batteries?
Its Mn³⁺/Mn²⁺ redox activity and stable phosphate framework enable reversible Na⁺ intercalation with long cycle life.

Q3: Is this material compatible with aqueous or non-aqueous electrolytes?
It is compatible with both, depending on binder selection and electrode formulation.

Q4: Can it be used for full-cell assembly?
Yes. It serves effectively as the cathode material paired with hard carbon or NaTi₂(PO₄)₃ anodes in SIB research.

Q5: Is custom packaging available for bulk purchase?
Yes. Quantities from 10 g up to 1 kg are available upon request for laboratory and pilot-scale needs.