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Manganese Oxide Catalyst for Hydrogenation Reactions

Short Product Description

Manganese Oxide Catalyst for Hydrogenation Reactions is a high-purity MnO-based material designed for catalytic applications in chemical synthesis. It provides stable catalytic activity, controlled manganese content, and consistent performance in hydrogenation processes. Suitable for industrial reactors requiring reliable and repeatable reaction efficiency.

manganese monoxide

Technical Specifications

ParameterTypical Value
MnO Purity≥ 90–95%
Manganese (Mn) Content≥ 60%
Particle Size80–200 mesh
Moisture≤ 1.5%
Bulk Density1.0–1.5 g/cm³
Surface Area10–50 m²/g
Fe Content≤ 0.5%
Sulfur (S)≤ 0.1%
Loss on Ignition≤ 2.0%

Key Features

  • High manganese concentration ensures consistent catalytic activity in hydrogenation systems

  • Controlled impurity levels minimize catalyst poisoning and improve reaction selectivity

  • Stable particle size distribution supports uniform dispersion in catalyst beds

  • Optimized surface area enhances hydrogen adsorption and reaction efficiency

  • Manganese Oxide Catalyst for Hydrogenation Reactions provides reliable thermal and chemical stability

  • Suitable for continuous and batch hydrogenation processes

Applications

  • Hydrogenation of organic intermediates – facilitates reduction reactions in fine chemical synthesis

  • Petrochemical processing – supports hydrogenation steps in refining and downstream chemical production

  • Pharmaceutical intermediates – used in catalytic systems requiring controlled reduction conditions

  • Agrochemical synthesis – improves efficiency in hydrogenation of active ingredient precursors

  • Catalyst blending systems – Manganese Oxide Catalyst for Hydrogenation Reactions integrates with multi-component catalyst formulations

Problems This Product Solves

  • Catalyst deactivation due to impurities → low impurity profile improves catalyst lifespan

  • Inconsistent hydrogenation performance → stable Mn content ensures repeatable catalytic activity

  • Poor reaction efficiency → optimized surface area enhances hydrogen interaction and conversion rates

  • Thermal instability in reactors → robust MnO structure maintains performance under high temperatures

  • Uneven catalyst dispersion → controlled particle size improves packing and flow in reactor systems

Packaging & Supply

  • Standard packaging: 25 kg kraft paper bags with inner PE liner

  • Palletized export packaging for bulk shipment

  • Available in 20 ft and 40 ft container loads

  • Samples available for catalyst evaluation and process testing

Customization & Technical Support

  • Adjustable particle size distribution for fixed-bed or slurry reactors

  • Tailored manganese content and purity levels

  • Bulk supply for large-scale industrial catalytic applications

  • Technical support for catalyst system integration and process optimization

FAQ

What is the role of MnO in hydrogenation reactions?
MnO acts as a catalytic or promoter material, improving hydrogen activation and facilitating reduction reactions. It is often used in combination with other active metals to enhance selectivity and stability.

Is Manganese Oxide Catalyst for Hydrogenation Reactions suitable for high-temperature systems?
Yes, it exhibits good thermal stability and maintains catalytic performance under elevated temperatures. This makes it suitable for continuous industrial hydrogenation processes.

How does impurity control affect catalyst performance?
Low levels of iron, sulfur, and other impurities reduce the risk of catalyst poisoning. This ensures longer catalyst life and more consistent reaction outcomes.

Can this catalyst be used in multi-component catalyst systems?
Yes, MnO is commonly used as a support or promoter in composite catalysts. It enhances dispersion and contributes to improved catalytic efficiency.

What are the recommended storage conditions?
Store in a dry, well-ventilated environment to prevent moisture absorption. Proper storage maintains catalyst stability and prevents performance degradation over time.