Nickel Iron Manganese Copper Hydroxide Precursor Powder

COMMERCIAL GRADE · PRODUCTION

Product Overview

High-capacity material synthesis and advanced sodium-ion prototyping arrays demand rigid multi-element structural control, and this commercial-grade sodium ion battery precursor material supplies superior lot-to-lot chemical uniformity under precise molar configurations. Engineered to advance high-fidelity transition metal co precipitation layering mechanisms, this free-flowing powder acts as a premium calcination host to maximize active material density values. Its robust particulate alignment integrates cleanly alongside an inorganic solid electrolyte component matrix for all-solid-state secondary battery configurations. This multi-element material allows corporate advanced energy entities and university research cleanrooms to systematically prevent hydroxide oxidation degradation pathways, preserving uncompromised particle morphology borders and high thermal stability parameters across automated industrial validation workflows.

Technical Specifications

ANALYTICAL MATERIAL PARAMETER	TECHNICAL SPECIFICATION RATINGS
Physical Phase Form Factor	Agglomeration-Free Highly Pure Hydroxide Precursor Powder
Volumetric Tapped Density (TD)	1.12 g/cm³ Measured Bulk Frame
BET Specific Surface Area (SSA)	107.11 m²/g High Activity Surface Matrix
Particle Size Distribution Traces	D10: 3.731 μm \| D50: 5.246 μm \| D90: 7.545 μm (Laser Analyzer)
Stoichiometric Molar Composition	Nickel (Ni): 22.61 mol% \| Iron (Fe): 33.05 mol% \| Manganese (Mn): 33.43 mol% \| Copper (Cu): 10.91 mol%
Analytical Moisture Content	2000 ppm (Karl Fischer Multi-point Method Verification)
Aqueous Suspension Matrix pH	8.33 Baseline Index Value
Magnetic Element Contaminants	0 ppb Absolute Undetectable Limit (Summed Fe + Cr + Zn metallic fraction)
Alternative Catalog Items	Explore our extended sodium precursor inventory for pure manganese oxides, high-purity hard carbon negative substrates, customized transition metal ratios, or automated multi-channel battery testers.

Key Features & Advantages

Homogeneous Material Purity: Features an uncompromised structural matrix with highly uniform chemical distribution of Ni-Fe-Mn-Cu across every single batch.
Enhanced Operational Efficiency: Specifically engineered to demonstrate superior electrochemical kinetics, promoting ideal transition-metal layering during solid-state reactions.
Optimized Microstructure & PSD: The controlled particle metrics (D50: 5.246 μm) enable predictable crystalline contraction and excellent micro-sintering integration during cell fabrication.

APPLICATION SCOPE: High-performance sodium-ion battery cathode material R&D and co-precipitation testing platforms.

PACKAGING LOGISTICS: Vacuum-sealed research-grade standard protective bottles or customized secure containment systems. Supports customized institutional volume splits and scaling requirements.

OPERATIONAL COMPLIANCE NOTICE: This product is highly sensitive to moisture and ambient conditions. To satisfy how to prevent hydroxide oxidation degradation guidelines during mechanical sheet casting, keep containers tightly sealed or handle exclusively within an anhydrous inert gas environment to prevent oxidation or phase degradation before thermal validation. Fully traceable production under 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.

NiFeMnCu

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