CATALYSTS
Zinc oxide is widely used in catalytic systems as a functional material, catalyst component or support in a wide range of chemical processes. Zinc oxide catalysts offer controlled surface activity, defined particle morphology and high thermal stability, enabling efficient reaction control and improved process performance. Its role in catalytic applications includes enhancing reaction efficiency, supporting active phases and ensuring stable behaviour under demanding process conditions. Zinc oxide catalysts are used in industrial chemical processes to improve reaction efficiency, stability and selectivity.
Key Requirements
Controlled Surface Area & Morphology
Zinc oxide catalysts require controlled surface area and particle morphology to ensure optimal active site distribution and efficient catalytic performance.
Ultra-Low Impurity Profile
Catalyst systems must withstand high operating temperatures. Zinc oxide provides thermal stability, maintaining structural integrity and consistent catalytic behaviour.. Strict control of impurity levels is essential to maintain catalyst activity, selectivity and operational stability.
Predictable Reactivity
ZnO must exhibit stable chemical behavior under reaction conditions, including elevated temperatures and reactive environments typical of catalytic processes. Zinc oxide supports controlled chemical reactivity, enabling efficient reaction pathways and improved selectivity in catalytic processes.
Batch-to-Batch Consistency
Consistent material quality ensures reproducible catalyst performance across production cycles and supports reliable large-scale chemical manufacturing.
Typical Properties
Zinc Oxide (typically ≥99% depending on the application), with controlled specific surface area, defined particle morphology and tightly monitored trace metal levels supports reliable catalytic activity, stable reaction behavior and consistent catalyst performance.
- Regulatory Sensitivity
- Non-regulated
