MG10355 Magnesium Oxide Powder MgO Powder -325 mesh

Magnesium Oxide Powder MgO Powder -325 mesh Description

Magnesium Oxide (MgO) Powder with a -325 mesh specification features an average particle size below 44 micrometres, ensuring a high surface area vital for catalysis and ceramic processing. The powder is produced under controlled calcination conditions which maintain phase purity and uniform morphology. These characteristics support predictable reaction kinetics in catalytic formulations and enhance thermal stability during high-temperature ceramic processing.

Magnesium Oxide Powder MgO Powder -325 mesh Applications

Chemical Processing
- Used as a catalyst support in chemical reactors to achieve stable reaction kinetics by leveraging its high surface area.
- Applied as a desulphurisation agent in refining processes to neutralise acid gases through its inherent basicity.

Ceramic Formulations
- Serves as an additive in refractory ceramic formulations to enhance thermal stability by leveraging its high melting point.
- Used as a sintering aid in advanced ceramics to promote uniform grain growth and densification.

Catalytic Applications
- Employed as a base material in heterogeneous catalysis to achieve enhanced reaction rates by utilising its controlled particle size.
- Applied in the production of speciality catalysts to improve dispersion and reaction efficiency through its uniform morphology.

Magnesium Oxide Powder MgO Powder -325 mesh Packing

Magnesium Oxide Powder is packaged in moisture-resistant, sealed multilayer foil pouches and then placed in rigid cartons. The packaging design minimises mechanical impact and contamination while ensuring the product remains dry and uncontaminated during storage. Recommended storage conditions are cool and dry to maintain material integrity. Custom packaging options, including inert gas purging and specialised labelling, are available upon request.

Frequently Asked Questions

Q1: What methods verify the -325 mesh particle size distribution?
A1: Particle size distribution is confirmed using laser diffraction analysis and scanning electron microscopy. These techniques ensure that the powder maintains a consistent and controlled particle size range for optimal process performance.

Q2: How does the MgO powder perform under high-temperature conditions?
A2: The inherent stability of the MgO structure, with a melting point of 2852°C and controlled thermal conductivity, supports its performance in high-temperature applications. This makes it suitable for refractory environments where heat resistance is critical.

Q3: What quality control processes are employed during manufacturing?
A3: Quality control includes controlled calcination, particle size analysis via laser diffraction, and phase verification using X-ray diffraction. These procedures validate the uniformity and purity of the powder, ensuring its suitability for demanding industrial applications.

Additional Information

Magnesium oxide is a widely studied inorganic compound known for its refractory properties and basic chemical nature. Its high melting point and thermal stability make it a vital component in high-temperature industrial processes, including ceramics and catalyst formulations. The controlled processing methods allow researchers to manipulate its particle size and morphology, which can significantly affect the reactivity and performance in chemical applications.

In broader materials science, MgO serves as both a catalyst support and a structural additive, influencing thermal and mechanical properties of composites. Ongoing research continues to optimise its processing techniques to improve efficiency in applications ranging from energy production to environmental remediation.