Cell Lab Lithium-Rich Lithium Iron Oxide Li₅FeO₄ [Cathode Additive | 100 g]

Cell Lab Lithium-Rich Lithium Iron Oxide Li₅FeO₄ [Cathode Additive | 100 g]

High-capacity cathode additive for advanced lithium-ion and lithium-iron phosphate battery research

The Cell Lab Lithium-Rich Lithium Iron Oxide (Li₅FeO₄) is a next-generation cathode additive developed for experimental and high-capacity energy storage systems. Leveraging a dual anionic and cationic redox mechanism, it delivers exceptional theoretical capacity (867 mAh/g) with minimal oxygen loss and enhanced structural stability. Compatible with both LFP and layered oxide systems, Li₅FeO₄ enables the design of high-energy, long-cycle battery materials for cutting-edge R&D applications.

Key Features

• High Theoretical Capacity: Offers up to 867 mAh/g through a dual redox reaction mechanism.

• Enhanced Stability: Maintains oxygen lattice integrity, reducing degradation at high voltage.

• Material Compatibility: Integrates seamlessly into LFP and ternary cathode formulations.

• Fine Particle Size: D₅₀ ≈ 5–15 µm ensures excellent dispersibility and reactivity.

• Research-Grade Purity: Specially prepared for laboratory and pilot-scale cathode material studies.

Specifications:

Reaction Mechanism

First charging platform (3.5 V – 4.0 V):
Li₅FeO₄ → 2Li⁺ + 2e⁻ + Li₃FeO₄

Second charging platform (> 4.0 V):
Li₃FeO₄ → 2Li⁺ + 2e⁻ + LiFeO₂

Applications & Industries

• Cathode additive for lithium-ion and lithium-iron phosphate batteries

• Solid-state and high-voltage cathode research

• Material performance enhancement for next-generation energy storage

• Electrochemical and structural studies in advanced material laboratories

• Academic and industrial battery R&D programmes

FAQ

Q1: What is the main advantage of Li₅FeO₄ compared with traditional LFP additives?
It provides a higher theoretical capacity and supports anionic redox activity, significantly improving energy density.

Q2: Can this additive be blended with ternary cathode materials?
Yes. Li₅FeO₄ is suitable for integration into layered oxide systems such as NCM or NCA.

Q3: What precautions should be taken when handling this powder?
Store in a dry, inert atmosphere and avoid moisture exposure to maintain chemical stability.

Q4: Is this product intended for commercial battery production?
No. It is supplied exclusively for laboratory research and experimental development.

Q5: How should the material be stored?
Keep sealed under argon or nitrogen and store below 25 °C to preserve purity and reactivity.