High Purity Electrolytic Iron Flakes are manufactured using an advanced electrolytic deposition process that produces iron with extremely low impurity levels and high metallic purity. This refined production method ensures superior chemical stability, consistent particle structure, and excellent performance across demanding industrial applications.These iron flakes are characterized by their high iron content, uniform flake morphology, and enhanced surface activity, making them ideal for powder metallurgy, magnetic materials, welding electrode coatings, chemical processing, diamond tool manufacturing, and specialized construction material applications. Their controlled particle size distribution improves sintering efficiency, bonding strength, and overall product quality.High Purity Electrolytic Iron Flakes provide excellent oxidation resistance, high compressibility, and superior metallurgical properties, enabling efficient processing and reliable results in precision manufacturing environments. They are widely trusted for applications requiring consistent composition, high purity standards, and dependable mechanical performance.

Material Type: Electrolytically Refined Iron

 Chemical Composition (Typical)

• Iron (Fe): ≥ 99.5% – 99.9%
• Carbon (C): ≤ 0.01%
• Sulfur (S): ≤ 0.005%
• Phosphorus (P): ≤ 0.01%
• Oxygen (O): Very Low Content
• Nitrogen (N): Trace Level

Electrolytic refining removes most impurities, producing one of the purest commercial forms of iron.

 Physical Properties

• Appearance: Metallic Grey Iron Flakes
• Shape: Irregular flakes / chips
• Particle Size: Customizable (Fine to Coarse)
• Density: ~7.8 g/cm³
• Purity Level: High Purity Grade
• Surface Finish: Smooth & Clean
• Magnetic Property: Strongly Magnetic

 Manufacturing Process

• Produced by Electrolytic Deposition Process
• Electrochemical refining ensures:
  • Uniform composition
  • Low gas content
  • Minimal impurities
  • Consistent particle size distribution

 Key Features

• Ultra-high purity iron material
• Excellent metallurgical performance
• Low carbon & sulfur content
• High chemical stability
• Easy melting and alloying
• Superior conductivity & magnetic response
• Reliable quality for critical industrial use

 Applications

• Specialty steels & alloy production
• Powder metallurgy components
• Welding electrodes
• Magnetic materials manufacturing
• Aerospace & nuclear engineering materials
• Metal additives in construction and engineering industries