Graphene-Enhanced Polymer Cathode & Anode Materials
Powering the next generation of lithium energy storage.
Graphenodes™ integrates advanced graphene–polymer composites into lithium iron phosphate (LiFePO₄) cell architecture, delivering superior electrical performance, longer cycle life, and higher energy density—without major changes in manufacturing.
Application
Graphenodes™ is applied as a high-performance conductive additive in LiFePO₄ (LFP) cathode and anode formulations.
Its proprietary graphene-polymer blend forms a highly conductive, thermally stable network within the electrode matrix—unlocking greater charge efficiency and higher output capacity.
Key Benefits
⚡ Superior Electrical Conductivity
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Strengthens the conductivity pathways of the LFP cathode matrix
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Reduces internal resistance and improves overall charge mobility
🚀 Faster Charge/Discharge Rates (15–25% Boost)
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Enables quicker electron transport
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Maintains stability even under high C-rate cycles
🔥 Better Thermal Management & Longer Battery Life
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Graphene’s high thermal conductivity helps dissipate heat
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Enhances structural integrity and slows degradation
🔋 Higher Energy Density with Lower Material Loss
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Improves active material utilisation
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Supports more efficient cell chemistry with minimal redesign
Cost–Benefit Analysis
| Parameter | Value / Description |
|---|---|
| Graphene Mix (%) | 0.2–0.5% |
| Original Material Requirement | 1 kg LFP active material |
| Cost Increase | 6–9% |
| Performance Gain | 15–25% higher energy output |
Result: A small material cost increase delivers significant performance uplift, enabling higher-capacity cells, improved durability, and better $/Wh economics.
Why Graphenodes™?
Graphenodes™ delivers measurable, production-ready improvements for energy storage manufacturers seeking stronger performance without reengineering their battery lines. Our graphene-polymer technology integrates seamlessly into existing slurry processes and electrode formulations—making it one of the most cost-efficient upgrades for LFP-based systems.
