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LFP Lithium Iron Phosphate LiFePO4 NMC LMO LTO Powder Raw Material for Lithium Ion Battery Pack

Product overview

Core functionalities

Applicable scenarios

Unique advantages

  • High-Performance Battery Material: Provides LiFePO₄ (LFP) powder as a core raw material for manufacturing lithium-ion battery packs, offering high energy density, thermal stability, and long cycle life.
  • Versatile Chemistry Options: Supports multiple battery chemistries (LFP, NMC, LMO, LTO) to cater to diverse application requirements, ensuring optimal performance for different use cases.

Key features

  • 1. Material Technology

  • With LiFePO₄ (LFP) material, ensure corrosion resistance and thermal stability, enhancing battery safety compared to NMC or LCO*

  • 2. Container Design

  • With a transparent glass container, easily monitor material quantity and quality during storage and handling, reducing contamination risks.

  • 3. Performance Parameters

  • With high energy density (up to 170 Wh/kg), achieve 25% longer cycle life than LTO materials*, enabling reliable performance in demanding applications.

  • 4. Scenario Solutions

  • Designed for EVs and grid storage, provide stable power output in high-cycle scenarios, ideal for commercial and industrial use.

  • 5. Certification Standards

  • Certified to CE and EPR (Germany/France) standards, ensuring compliance with EU safety and environmental regulations for global deployment.

  • Notes:

    • Comparative hints are included where applicable (e.g., vs. NMC/LTO).

Product details

LFP Lithium Iron Phosphate LiFePO4 NMC LMO LTO Powder Raw Material for Lithium Ion Battery Pack

LFP Lithium Iron Phosphate (LiFePO₄) powder is a high-performance raw material for lithium-ion battery packs, designed for applications requiring safety, longevity, and cost efficiency. This product is certified to meet CE, EPR Germany, and EPR France standards, ensuring compliance with global safety and environmental regulations.

Technical specifications

FeatureSpecificationBenefit
MaterialLiFePO₄ granular/powderHigh energy density, low cost, superior safety
ContainerGlass with reinforced plastic baseNon-reactive, transparent, stable pouring design
LabelingChemical formula (LiFePO₄) + safety iconsClear identification and regulatory compliance
CertificationsCE, EPR Germany Packing, EPR France PackingGuaranteed safety and environmental standards
ApplicationsElectric vehicles, grid storage, portable electronicsVersatile use in high-demand energy systems

Customization guide

Adjustable parameters include particle size (2–10 µm), packaging size (50g–50kg), and purity levels (≥99.5%) to meet specific requirements for electrode coating, specialty battery designs, or R&D testing.

Get inspired

Lithium iron phosphate (LiFePO₄) is ideal for applications demanding reliability. With its non-combustible nature, it ensures safe operation in electric vehicles. Its long cycle life (2,000+ cycles) makes it perfect for grid energy storage, while its cost-effectiveness suits mass production of consumer electronics.

Choose your model

ParameterBase ModelAdvanced ModelPro Model
Energy Density150 Wh/kg+15% (172.5 Wh/kg)+30% (195 Wh/kg)*
Cycle Life2,000 cycles2,300 cycles2,600 cycles
Safety RatingMeets IEC 62133+15% thermal stabilityTriple industry fire resistance

Supplier's note

  1. Three Breakthroughs:

    • High Energy Density (195 Wh/kg in Pro): Enables compact battery designs for EVs.
    • Enhanced Thermal Stability (+15% in Advanced): Reduces overheating risks in high-temperature environments.
    • Triple Fire Resistance (Pro): Meets UL 2580 standards, ensuring safe handling of flammable materials.
  2. Version Selection Guide:

    • Base Model: Ideal for general consumer electronics and low-power applications.
    • Advanced Model: Suitable for grid storage systems requiring extended cycle life and moderate energy density.
    • Pro Model: Best for EVs and industrial equipment needing peak performance and safety. With its triple fire resistance, the Pro version ensures safe operation even under extreme conditions.

*Pro Model outperforms industry benchmarks by 30% in energy density and safety metrics.

Frequently asked questions

  • Which LiFePO4 formulation is best suited for electric vehicle (EV) battery packs?

  • How should LiFePO4 powder be stored to maintain purity and safety?

  • What are the key differences between LiFePO4 and NMC (Nickel Manganese Cobalt) cathode materials?

  • Does your LiFePO4 powder meet EU environmental regulations for battery materials?

  • Can LiFePO4 powder be customized for grid-scale energy storage systems?

  • What safety certifications does your LFP raw material for lithium-ion batteries have?

  • How does LiFePO4 compare to LTO (Lithium Titanate) in battery performance?

  • Is your LiFePO4 powder compatible with existing lithium-ion battery manufacturing processes?

Product comparison

CategoryUsage ScenariosCharacteristicsAdvantagesDisadvantages
LiFePO₄ (LFP)Electric Vehicles, Grid Storage, E-Bikes2000+ cycles (IEC 62660-2), 130-140 Wh/kg (IEC 62660-2), CE/EPR certified▲ Safe, long lifespan, cost-effective, (500+ cycles vs NMC’s 1000-1500)Lower energy density, slower charging, (43 dBA noise level ▲ quieter than NMC)
NMC (Nickel Manganese Cobalt)High-Performance EVs, Consumer Electronics150-220 Wh/kg (▲ vs LFP), 1000-1500 cycles (UL 2580 certified)High energy density, better power output, (220 Wh/kg ▲ 60% denser than LFP)Thermal runaway risk, higher cost, cobalt dependency, (50°C max temp vs LFP’s 60°C)
LMO (Lithium Manganese Oxide)Power Tools, Medical Devices100-150 Wh/kg (IEC 62660-2), 500-1000 cycles (RoHS compliant)Stable at high temps, (80°C tolerance ▲ vs NMC’s 50°C)Short cycle life, lower energy density, (150 Wh/kg vs NMC’s 220 Wh/kg)
LTO (Lithium Titanate)Grid Storage, EV Charging Stations5000+ cycles (▲ longest lifespan), 50-70 Wh/kg (IEC 62660-2), IEC 62660-2 certifiedExtreme longevity, fast charging, (5 minutes to 80% charge ▲ vs LFP’s 1h)Lowest energy density, heavy, (70 Wh/kg vs LFP’s 140 Wh/kg)
LCO (Lithium Cobalt Oxide)Portable Electronics, Medical Devices150-200 Wh/kg (RoHS compliant), 300-500 cycles (IEC 62660-2)High energy density, stable, (200 Wh/kg ▲ 50% denser than LFP)High cost, limited cycles, cobalt scarcity, (300 cycles vs LFP’s 2000)
NCA (Nickel Cobalt Aluminum)Aerospace, High-Performance EVs180-250 Wh/kg (▲ highest energy density), 800-1200 cycles (UL 2580 certified)Best power-to-weight ratio, (250 Wh/kg ▲ 92% denser than LTO)Thermal instability, rare earth dependency, (80°C max temp vs LMO’s 80°C)

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The comparison data is based on manufacturer information and industry standards. Actual results may vary depending on individual use cases. It is advisable to verify details with the supplier for the most accurate information.