FREE SHIPPING with $59 or More. New Customer? Inquire for Major Discount & Free Samples! Online Payments & POs Accepted.

Black ATOMFAIR® LFP powder sealed inside a clear egg-shaped glass display bottle on a white background.

Carbon-Coated Nano LFP Cathode Powder 161 mAh/g Battery Grade

Price range: $240.00 through $450.00

Institutional Procurement & Supply Compliance: As a verified US supplier, Atomfair accepts formal institutional Purchase Orders (POs), contract billing schedules, and custom procurement loops for university and national laboratories, and corporate R&D departments globally.

Research-grade LFP cathode powder with 3nm carbon coating, 161 mAh/g (0.1C), tap density 0.82 g/cm³, pellet density 2.34 g/cm³. Ideal for high-density EV cell prototyping. In stock.

SKU: AAEMLFP000A0A0-1
Category:
Tags: ,
Brands:

Description

Lithium Iron Phosphate Cathode Powder (3nm Carbon Wrapped Grade)

COMMERCIAL GRADE · PRODUCTION

Product Overview
High-capacity lithium extraction matrices and automotive prototyping validation blocks require exceptional volumetric structural efficiency, and this premium high conductivity polyanionic cathode material supplies excellent electrochemical cycle consistency under demanding current draw profiles. Engineered with an in-situ carbon encapsulated spinel-like 3nm shell layer, this olivine active black powder addresses core charge-transfer limits while securing highly competitive institutional lithium iron phosphate active material price allocations for advanced energy groups. The sub-micron aggregate architecture guarantees uniform paste wetness kinetics during planetary slurry processing, preventing microstructural peeling flaws on continuous doctor blade coater lines. Due to its rigid lattice alignment parameters, it functions perfectly alongside an inorganic solid electrolyte component grid for all-solid-state configurations. This highly engineered baseline material ensures corporate developers can systematically prevent lithium iron phosphate moisture degradation pathways, preserving stable phase boundaries across large-scale multi-cell prototyping lines.

Technical Specifications
ANALYTICAL MATERIAL PARAMETER TECHNICAL SPECIFICATION RATINGS
Core Chemical Lattice Formula LiFePO&sub4; (Pure Olivine-Phase Crystals with 3nm Core-Shell Carbon Wrapping)
0.1C Specific Discharge Capacity 161.3 mAh/g Reversible Target Output (Standard Boundary Limit: > 161 mAh/g)
1.0C Specific Discharge Capacity 142.0 mAh/g High-Rate Transfer Path (Standard Boundary Limit: > 142 mAh/g)
Compacted Powder Pellet Density 2.34 g/cm³ Press Packing Frame (Standard Control Window: 2.30 – 2.37 g/cm³)
Volumetric Tapped Density (TD) 0.82 g/cm³ (Standard Quality Requirement Baseline: ≥ 0.7 g/cm³)
BET Specific Surface Area (SSA) 10.3 m²/g Gas Adsorption Core (Standard Target Range: 9.5 – 12.5 m²/g)
Total Carbon Wrapping Fraction 1.36 wt% Uniform Matrix Layer (Standard Control Range: 1.1 – 1.5 wt%)
Granulometric Size Boundaries D10: 0.38 μm (0.3 – 0.5 μm) | D50: 0.78 μm (0.6 – 1.0 μm) | D90: 2.60 μm (≤ 4.5 μm)
Alternative Catalog Items Explore our extended polyanionic database for manganese-doped LMFP architectures, high-conductivity hard carbon negative substrates, polyimide current collectors, or automated battery testers.

Key Features & Advantages
  • Elite 3nm Conductive Wrapping: Engineered with a highly precise, ultra-thin 3nm carbon-coated shell layer to comprehensively boost absolute electronic conductivity networks across particle fields.
  • High Compaction Pellet Density: Features an optimized sub-micron particle morphology layout (D50: 0.78 μm) achieving an outstanding compacted pellet density profile of 2.34 g/cm³ for superior electrode volumetric capabilities.
  • Exceptional Low-Temperature & Safety Profile: Delivers uncompromised thermodynamic framework stability and enhanced safety characteristics, ideal for demanding automotive x-EV validation testing.

APPLICATION SCOPE: Automotive large-scale power battery prototyping, high-compaction olivine phase benchmarking, fast-charging lithium iron phosphate validation, and long-lifecycle grid energy storage research.
PACKAGING LOGISTICS: Sealed hermetically inside high-barrier protective environmental containers to avoid atmospheric humidity penetration and defend particle surfaces. Supports customized volume counts.
OPERATIONAL COMPLIANCE NOTICE: Microcrystalline phosphate active matrices possess an extreme affinity to ambient room humidity. To successfully satisfy how to prevent lithium iron phosphate moisture degradation guidelines during mechanical sheet casting, keep all packaging completely sealed and operate exclusively inside dry, anhydrous inert-gas glovebox spaces to suppress phase modification or moisture degradation before validation testing workflows. Processed under strict RoHS compliant standard conditions.

TAILORED SOLUTIONS FOR RESEARCH
Contact our engineering team for technical support or official institutional quotations.
EMAIL: INQUIRY@ATOMFAIR.COM
Manufacturer: PRODUCTION DIVISION · ADVANCED ENERGY STORAGE DIVISION
Brand: INDUSTRIAL TESTING HARDWARE
Specifications are representative and subject to change without notice. For the latest version and compliance certificates, contact official sales channel.

This material exhibits specific surface area, tap density, pellet density, carbon content, and discharge capacity constraints that ensure consistent electrochemical performance. Adherence to these parameter ranges is critical for reproducibility in battery research applications.

  • Specific Surface Area Constraint: The specific surface area (BET) must remain within 9.5 to 12.5 m²/g to maintain specified electrolyte interaction and ionic transport characteristics.
  • Tap Density Constraint: The tap density must be at least 0.7 g/cm³ to ensure adequate powder packing for electrode fabrication.
  • Pellet Density Constraint: The pellet density must fall within 2.30 to 2.37 g/cm³ to achieve the required volumetric energy density in compacted electrodes.
  • Carbon Coating Content Constraint: The total carbon coating content must be between 1.1 and 1.5 wt% to provide sufficient electronic conductivity without diluting active material.
  • Discharge Capacity Constraint: The 0.1C discharge specific capacity must exceed 161 mAh/g to meet the targeted energy storage performance benchmark.

How does the 0.1C specific capacity of 161.3 mAh/g compare to the 1C rate performance, and what trade-off does this represent for high-power EV cell designs?

The material delivers 161.3 mAh/g at 0.1C but decreases to 142.0 mAh/g at 1C, a 12% reduction typical for high-density LFP optimized for volumetric energy rather than ultra-high rate. The 3nm carbon coating at 1.36 wt% mitigates conductivity losses, but the pellet density of 2.34 g/cm³ indicates a trade-off favoring energy density over rate capability.

Is this LFP cathode powder compatible with graphite anodes for full-cell evaluation, or is lithium metal required for accurate capacity measurements?

This LFP cathode powder is tested using lithium metal half-cell foils for accurate capacity validation at 0.1C and 1C, but it is also specified for compatibility with graphite anode systems for full-cell development. The 161.3 mAh/g and 142.0 mAh/g capacities were measured against lithium metal, while full-cell performance depends on anode matching and electrode engineering.

How does the sub-micron particle size distribution (D50 0.78 μm) affect the powder flowability and handling requirements for electrode slurry preparation?

The sub-micron particle size distribution, with a D50 of 0.78 μm and D90 of 2.60 μm, combined with a high BET surface area of 10.3 m²/g, indicates reduced flowability and potential agglomeration during handling. Electrode slurry preparation should account for these characteristics, possibly requiring extended mixing or dispersant use to achieve homogeneous coatings.

This LFP cathode powder offers a high pellet density of 2.34 g/cm³ and a 3nm uniform carbon coating for enhanced conductivity, but requires careful slurry control due to its narrow BET surface area range and handling precautions for sub-micron particles.

Positive

  • High pellet density for volumetric energy: Pellet density of 2.34 g/cm³ enables high volumetric energy density in electrode fabrication, maximizing capacity per unit volume.
  • 3nm uniform conductive carbon coating: The 3nm nano-carbon wrapping shell ensures uniform electronic conductivity across active particles, reducing internal resistance.

Trade-offs

  • Narrow specific surface area specification: BET surface area of 10.3 m²/g must remain within 9.5–12.5 m²/g range, requiring tight process control and consistent slurry formulation.
  • Sub-micron particle size handling: D50 of 0.78 μm and D10 of 0.38 μm create fine powder that may require specialized handling, such as closed transfer and anti-static measures, to avoid airborne dispersion and agglomeration.

Every advanced material, component, equipment, and instrument in our catalog is backed by rigorous testing. We maintain strict internal quality management frameworks and align with CE conformity metrics to deliver transparent, reproducible performance data via our public open-science repository.

To request raw batch performance data, submit formal vendor registration paperwork, or execute a fast-turnaround R&D manufacturing loop, contact us at inquiry@atomfair.com.

Item is dispatched under the Atomfair Shipping & Delivery Framework (Free worldwide shipping on orders over $59 USD). Return is governed by the Atomfair Return & Refund Policy (7-day technical return window).

Additional information

Weignt

200g, 1000g

Related products