Cell Lab Sodium Manganese Oxide Powder [Na₀.₄₄MnO₂, 99.9% Purity, 50 g]

Cell Lab Sodium Manganese Oxide Powder [Na₀.₄₄MnO₂, 99.9% Purity, 50 g]

High-purity tunnel-type Na₀.₄₄MnO₂ cathode material for next-generation sodium-ion batteries

The Cell Lab Sodium Manganese Oxide (Na₀.₄₄MnO₂) powder is a high-performance cathode material engineered for sodium-ion battery (SIB) research and prototype development. With a tunnel-type crystal framework, it provides superior structural stability and enables efficient Na⁺ intercalation through Mn⁴⁺/Mn³⁺ redox transitions, ensuring both high capacity and long-term cycling stability.

Produced at ≥ 99.9% purity, this fine black powder (≈ 3 µm average particle size) offers excellent dispersion in PVDF/NMP systems, making it ideal for laboratory studies and materials screening in energy-storage innovation and solid-state sodium-ion battery research.

Key Features

Tunnel-Type Crystal Structure
Provides open diffusion channels for smooth Na⁺ insertion and extraction while maintaining exceptional lattice stability.

High-Purity Composition (≥ 99.9%)
Ensures minimal contamination and reliable electrochemical performance for reproducible research outcomes.

Optimised Particle Size Distribution
Micron-scale particles (~3 µm) deliver homogeneous slurry mixing and uniform electrode coating.

Wide Voltage Operating Range
Electrochemically active between 1.5–3.9 V (Na counter) or 1.8–2.8 V (C counter), suitable for multiple testing configurations.

Excellent Process Compatibility
Fully compatible with standard PVDF/NMP binder systems used in cathode fabrication.

Technical Specifications

Impurity Content (ppm max):

Applications & Industries

• Sodium-ion and solid-state battery cathode research

• Low-cost alternative to lithium-based cathode materials

• Material science and energy-storage innovation

• Electrochemical performance benchmarking and academic research

• Advanced R&D laboratories focusing on post-lithium technologies

FAQ

Q1: What is the structural advantage of Na₀.₄₄MnO₂?
Its tunnel-type framework allows efficient Na⁺ diffusion with minimal lattice strain, enhancing cycling stability.

Q2: Can it replace LiMn₂O₄ in lithium systems?
Not directly; it is tailored for sodium-ion batteries but serves as a comparable structural analogue for Li-based materials.

Q3: How should this material be stored?
Store in a sealed container under dry, inert conditions to prevent surface oxidation or moisture absorption.

Q4: Is custom packaging available?
Yes. Quantities from 10 g to 1 kg are available upon request for research and pilot-scale use.

Q5: Is the powder compatible with aqueous binders?
It is primarily optimised for PVDF/NMP systems but can be dispersed in aqueous binders after surface treatment.