AC10011 Alumina Catalyst Carrier, Alumina Support, Al2O3

Alumina Catalyst Carrier, Alumina Support Description

Alumina Catalyst Carrier, Alumina Support consists of high-purity Al2O3 processed into a customised granule form with a minimum purity of 94%. The material’s microstructural design promotes effective catalyst dispersion, ensuring optimum interaction between active sites and reactants. Its tailored dimensions facilitate integration into diverse reactor assemblies, while its inherent chemical and thermal stability supports sustained catalytic performance.

Alumina Catalyst Carrier, Alumina Support Applications

Industrial Catalysis
- Used as a catalyst support in reforming reactors to achieve improved reaction rates by leveraging its customised porosity and granule dimensions.
- Applied in emission control systems to enhance catalytic converter efficiency through optimised catalyst-host interactions.

Petrochemical Processing
- Frequently used as a substrate in hydrocracking units to support uniform catalyst distribution by utilising its customised granule structure, which enhances contact efficiency.

Chemical Processing
- Serves as a binder in fluidised bed reactors to promote steady catalyst dispersion by taking advantage of its stable thermal and mechanical properties.

Alumina Catalyst Carrier, Alumina Support Packing

The product is packed in sealed, inert-material pouches and secured within reinforced, foam-lined containers to mitigate mechanical impacts and contamination risks. It is recommended to store the material in a dry, temperature-controlled environment to preserve its physical and chemical integrity. Custom packaging options, including labelling and compartmentalisation, are available upon request.

Frequently Asked Questions

Q1: What analytical techniques are used to ensure granule consistency?
A1: Quality control employs XRD and SEM analyses to assess phase composition and surface morphology. These methods verify the consistency of the alumina granules and help maintain precise specifications across production batches.

Q2: How does the carrier's structure affect catalyst dispersion?
A2: The engineered porosity and controlled granule size optimise the exposure of active sites. This design improves catalyst dispersion, thereby enhancing the efficiency of reactions in catalytic processes.

Q3: Can the granule dimensions be customised for different reactor designs?
A3: Yes, the manufacturing process allows for customisation of granule size and shape. This flexibility supports optimal integration into various reactor configurations and improves the uniformity of catalyst distribution.

Additional Information

Alumina is widely studied in materials science due to its high thermal stability, chemical inertness, and capacity to support active catalytic components. Its properties make it a frequent choice as a catalyst carrier in many industrial chemical processes. Ongoing research focuses on refining microstructural characteristics to further enhance performance and durability.

The production of alumina catalyst carriers involves precise control over sintering and pelletising processes to achieve desired porosity and granule strength. Understanding these parameters is critical in developing substrates that not only support but also improve the functional efficiency of catalysts in demanding operating environments.