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Ultra-Low Iron Manganese Carbonate for High-Purity Mn Salts

Short Product Description

Ultra-Low Iron Manganese Carbonate is a high-purity MnCO₃ material with controlled Fe content at ppm levels and Mn ≥44%. It is designed for the production of high-purity manganese salts and chemical intermediates. Suitable for applications requiring strict impurity control and consistent reaction performance.

manganese carbonate

Technical Specifications

ParameterTypical Value
MnCO₃ Purity≥ 99.0%
Manganese (Mn) Content≥ 44.0%
Particle Size80–200 mesh
Moisture≤ 0.5%
Bulk Density0.8–1.1 g/cm³
Solubility in Dilute Acid≥ 98%
Iron (Fe)≤ 0.001–0.01%
Calcium (Ca)≤ 0.01%
Magnesium (Mg)≤ 0.01%
Lead (Pb)≤ 5–10 ppm
Arsenic (As)≤ 5 ppm
Cadmium (Cd)≤ 5 ppm

Note: High-purity MnCO₃ grades can reduce Fe to <10 ppm through advanced purification processes, improving downstream product quality

Key Features

  • Ultra-low iron content improves purity of downstream manganese salts
  • High manganese stability ensures consistent chemical conversion
  • Controlled Ca and Mg levels minimize impurity carryover in synthesis
  • Low heavy metals (Pb, Cd, As) support regulatory compliance
  • Uniform particle size ensures stable reaction kinetics and filtration performance
  • Ultra-Low Iron Manganese Carbonate supports high-purity salt production processes

Applications

  • Manganese sulfate production – low Fe reduces contamination in battery-grade or industrial MnSO₄
  • High-purity manganese salts – ensures minimal trace metal interference in chemical synthesis
  • Catalyst precursor materials – controlled impurities improve catalytic performance stability
  • Electronic and specialty chemicals – suitable for applications requiring ppm-level impurity control
  • Chemical intermediates – Ultra-Low Iron Manganese Carbonate ensures consistent reaction yield and purity

Problems This Product Solves

  • Excess iron contamination in manganese salts → ultra-low Fe improves product purity
  • Ca and Mg impurities affecting crystallization → controlled levels enhance process control
  • Heavy metal contamination risks → low Pb, Cd, As supports compliance and safety
  • Inconsistent reaction performance → stable particle size and purity improve conversion efficiency
  • Impurity accumulation in downstream processes → ppm-level control reduces defect risks

Packaging & Supply

  • 25 kg kraft paper bags with PE liner
  • Palletized export packaging
  • Available in 20GP / 40HQ container shipments
  • Samples available for laboratory testing and validation

Customization & Technical Support

  • Adjustable Mn content based on application requirements
  • Ultra-low Fe customized grades available
  • Controlled particle size distribution (PSD)
  • Technical support for manganese salt production processes

FAQ

Q1: Why is low iron important in manganese carbonate for high-purity salts?
Iron impurities can carry through into manganese sulfate or other salts, affecting purity and downstream applications. Ultra-low Fe MnCO₃ ensures higher-grade final products and reduces purification costs.

Q2: What Fe level is considered “ultra-low iron” in MnCO₃?
Ultra-low iron typically refers to Fe levels below 0.01%, and in high-purity grades even below 10 ppm. These levels are achieved through advanced purification processes such as solvent extraction and ion exchange

Q3: How do Ca and Mg impurities affect manganese salt production?
Calcium and magnesium can co-precipitate during salt formation, impacting crystallization and purity. Controlling these impurities improves consistency and reduces filtration issues.

Q4: Is Ultra-Low Iron Manganese Carbonate suitable for battery-grade manganese sulfate?
Yes, it is commonly used as a precursor due to its low impurity profile, which helps meet strict battery material specifications and improves electrochemical performance.

Q5: How should this product be stored?
Store in a dry, sealed environment to prevent moisture absorption and oxidation. Proper packaging helps maintain purity and particle stability during storage and transport.