AC10015 Alumina Catalyst Carrier Gear Sphere

Alumina Catalyst Carrier Gear Sphere Description

Alumina Catalyst Carrier Gear Sphere consists of sintered Al2O3 particles with a purity of at least 94% and sphere dimensions ranging from 1.5 to 8 mm. The gear sphere form promotes consistent load distribution and enhanced surface area for catalyst immobilisation. Its inert chemical nature and thermal resilience facilitate stable performance in high-temperature catalytic reactions. The controlled microstructure assists in maintaining optimal flow and reaction kinetics within industrial reactors.

Alumina Catalyst Carrier Gear Sphere Applications

Chemical Processing
- Applied as catalyst support in petrochemical reactors to maintain stable reaction kinetics by ensuring optimal dispersion of active phases.
Industrial Catalysts
- Used as a support in oxidation and reduction systems to control reaction pathways by offering consistent surface characteristics and thermal stability.
Environmental Control
- Employed in emission control modules to enhance catalytic conversion of pollutants by providing uniform flow dynamics and chemical inertness.

Alumina Catalyst Carrier Gear Sphere Packing

The product is packaged in sealed, moisture-resistant containers with foam inserts to mitigate mechanical shock and contamination. Anti-static measures are incorporated to safeguard the material’s integrity during transit. The packing design supports safe storage in a dry, temperature-controlled environment. Custom packaging configurations, including specialised labelling and compartmentalisation, are available upon request to meet specific handling and storage requirements.

Frequently Asked Questions

Q1: What factors influence the performance of the Alumina Catalyst Carrier Gear Sphere in catalytic systems?
A1: The performance is influenced by particle uniformity, precise gear sphere geometry, and a minimum 94% purity. These factors ensure consistent dispersion of catalytic agents and stabilise thermal behaviour during reactions.

Q2: How does the sintering process affect the structural properties of the sphere?
A2: The sintering process enhances densification and grain growth, which improves mechanical strength and minimises porosity. This controlled process results in consistent particle geometry that supports effective catalyst dispersion.

Q3: Is it possible to modify the dimension range of the spheres?
A3: The standard dimension range is set from 1.5 to 8 mm. However, customisation may be feasible based on specific technical requirements. Consultation with Stanford Advanced Materials’s technical team is recommended for tailored solutions.

Additional Information

Alumina-based materials are renowned in industrial applications for their high thermal stability, chemical inertness, and wear resistance. The unique properties of alumina make it a critical component in applications where consistent heat management and chemical resistance are required.

Sintering techniques play a vital role in defining the microstructural features of alumina ceramics. A thorough understanding of these processing methods and their impact on material characteristics is essential for optimising catalyst support systems and ensuring stable performance in diverse chemical environments.