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High Purity Manganese Sulfate for Battery & Energy Storage Applications

Short Product Description

High purity manganese sulfate products for battery and energy storage applications. Includes monohydrate, low-impurity, crystalline, and spherical forms with stable Mn content. Ideal for NCM, LMFP, and high-nickel cathode material production.

manganese sulfate supplier in China

Technical Specifications

ProductMn ContentPurityMoistureParticle SizeFePbCuZnNotes
High Purity Battery Grade MnSO₄·H₂O32–33%≥99%≤0.5%100–200 mesh≤0.005%≤1 ppm≤1 ppm≤1 ppmMonohydrate for cathode precursors
MnSO₄ (32%) for NCM Ternary Precursors32%≥98.5%≤0.5%100–200 mesh≤0.01%≤5 ppm≤5 ppm≤5 ppmStable Mn for NCM cathodes
Low Impurity MnSO₄ for LMFP31–32%≥98%≤0.5%100–200 mesh≤0.005%≤2 ppm≤2 ppm≤2 ppmOptimized for LMFP cathode synthesis
Crystalline MnSO₄ for High-Nickel Cathodes32%≥99%≤0.3%200–325 mesh≤0.01%≤1 ppm≤1 ppm≤1 ppmHigh-purity crystals for high-Ni cathodes
Spherical MnSO₄ for Advanced Battery Tech32%≥99%≤0.4%50–150 μm≤0.01%≤1 ppm≤1 ppm≤1 ppmSpherical shape for uniform precursor blending

Notes:

  • Low Fe, Pb, Cu, Zn critical to battery material performance.
  • Particle size and morphology designed for homogenous mixing in precursors.
  • Moisture control ensures stability during storage and processing.

Key Features

  • High-purity manganese sulfate variants for battery-grade applications
  • Stable Mn content for NCM, LMFP, and high-nickel cathode synthesis
  • Low Fe, Pb, Cu, Zn for compliance with energy storage material standards
  • Controlled particle size and morphology (crystalline/spherical) for uniform precursor mixing
  • Technical support for custom Mn content, particle size, and impurity levels

Applications

  • NCM cathode production – Stable Mn for ternary precursor synthesis
  • LMFP cathode production – Low-impurity MnSO₄ for efficient Li-Mn-Fe-P processing
  • High-Nickel cathode materials – Crystalline MnSO₄ ensures high-purity Ni-rich cathodes
  • Advanced battery technologies – Spherical MnSO₄ for uniform precursor blending
  • Solid-state battery R&D – Supports research and industrial-scale production

Problems This Product Solves

  • Mn source inconsistency → stable Mn content across all products
  • Impurity interference → low Fe, Pb, Cu, Zn variants for sensitive cathode materials
  • Particle size variation → crystalline and spherical forms ensure homogeneity
  • Moisture-induced degradation → ≤0.5% moisture for stable storage
  • Heavy metal contamination → meets battery-grade material standards

Packaging & Supply

  • 25 kg kraft paper bags with PE liner
  • Palletized export packaging for 20GP / 40HQ containers
  • Sample availability for testing

Customization & Technical Support

  • Adjustable Mn content for NCM, LMFP, and Ni-rich cathodes
  • Controlled impurity grades for sensitive applications
  • Custom particle size (mesh, μm, spherical/crystalline)
  • Premix or industrial formulation support for battery materials

FAQ

Q1: What distinguishes battery-grade MnSO₄ from feed or fertilizer grade?
A1: Battery-grade MnSO₄ has ultra-low impurities (Fe, Pb, Cu, Zn) and stable Mn content, critical for cathode material performance. Feed/fertilizer grades have higher allowable impurity levels.

Q2: Can the same MnSO₄ product be used for NCM and LMFP cathodes?
A2: Yes, but LMFP requires lower Fe/Pb impurities. We provide low-impurity versions optimized for LMFP while standard high-purity MnSO₄ suits NCM precursors.

Q3: Why use spherical MnSO₄ for advanced batteries?
A3: Spherical particles improve precursor mixing uniformity, leading to better cathode material consistency and performance.

Q4: How stable are these products during storage?
A4: With moisture ≤0.5% and sealed packaging, all manganese sulfate variants remain stable without caking or degradation.

Q5: Can particle size and Mn content be customized?
A5: Yes, we offer adjustable Mn content, particle size, and morphology to meet specific battery precursor requirements.