OX0095 Molybdenum Trioxide Powder (MoO3 Powder) (CAS No. 1313-27-5)

Molybdenum Trioxide Powder Description

Molybdenum Trioxide Powder (MoO₃, CAS 1313-27-5) is a processed metal oxide employed in various chemical applications. The powder's controlled particle size influences its surface area and, consequently, its reactivity in catalysis. Its chemical stability supports oxidation processes in experimental and production environments. The defined composition and structure allow consistent integration into systems requiring precise catalytic behaviour and predictable chemical interactions.

Molybdenum Trioxide Powder Specifications

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Molybdenum Trioxide Powder Applications

Industrial Catalysis
- Used as a catalyst in oxidation reactors to achieve improved conversion efficiency by leveraging its controlled particle size distribution.
- Applied as a catalyst support in petrochemical processes to achieve stable reaction conditions by utilising its consistent chemical composition.

Ceramic Manufacturing
- Used as an additive in ceramic glaze formulations to achieve uniform colour development by utilising its stable oxide structure.

Molybdenum Trioxide Powder Packing

The powder is sealed in inert gas-filled, moisture-proof pouches located within shock-resistant containers to prevent contamination. It should be stored in a dry, temperature-controlled environment to limit moisture uptake and chemical degradation. The packaging design minimises exposure to ambient conditions and offers customisation options, including specialised container sizes and labelling for specific transport and storage needs.

Frequently Asked Questions

Q1: What is the impact of particle size variation on catalytic performance?
A1: The particle size influences the available active surface area. A narrower distribution improves reaction rates by optimising contact between the catalyst and reactants, whereas broader sizes may suit less sensitive processes. Users should confirm the range against specific process requirements.

Q2: How does material purity affect its integration in chemical processes?
A2: High purity minimises interference in catalytic reactions by reducing contaminants. This ensures that MoO₃ reacts consistently with target compounds, which is crucial for achieving predictable outcomes in controlled chemical environments.

Q3: What storage conditions are recommended for maintaining product integrity?
A3: Store the powder in a dry, low-humidity space with controlled temperature. Utilising sealed, inert containers helps prevent moisture absorption and maintains the chemical stability required for both laboratory and industrial applications.

Additional Information

Molybdenum trioxide (MoO₃) plays a significant role in materials science due to its defined oxide structure and chemical reactivity. It is frequently studied for its behaviour under varied thermal conditions and its suitability as a catalytic component in oxidation reactions.

In research environments, understanding the interplay between particle size and surface area is essential. Scientists continually refine processing techniques to enhance performance, contributing to improved efficiency in both catalytic applications and ceramic processing.