LA10471 Nano Lanthanum Oxide Powder, La2O3 Nanopowder 20-30 nm

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 20-30 nm Description

La2O3 nanopowder with a particle size range of 20-30 nm increases surface area and enhances catalytic activity. Its nanoscale form improves sintering behaviour in ceramic processing and functions effectively as a catalyst or catalyst support. The material's controlled synthesis and verified crystalline phase contribute to predictable thermal and structural characteristics, beneficial for applications requiring refined reactivity and stable performance in harsh processing conditions.

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 20-30 nm Applications

Industrial Catalysis
- Used as a catalyst support in chemical reactors to achieve high reaction rates by leveraging its nanoscale particle size.
- Applied as an active component in oxidation reactions to improve conversion efficiency by utilising its large surface area.

Ceramic Processing
- Employed as a sintering aid in ceramic formulations to attain enhanced densification by leveraging its thermal stability.
- Integrated in glass and ceramic coatings to modify optical properties by capitalising on its refractive characteristics.

Advanced Material Synthesis
- Used as a precursor in the fabrication of composite materials to improve microstructural uniformity by utilising controlled nanoparticle synthesis.
- Frequently applied in research for developing high-performance ceramics by providing a consistent fine powder distribution.

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 20-30 nm Packing

The powder is packaged in moisture-proof, sealed containers with an inert gas atmosphere to prevent oxidation and contamination. Anti-static packaging materials are used to shield against dust and mechanical agitation. The product should be stored under cool, dry conditions, and customised packaging options, including tamper-evident seals and specialised cushioning, are available to accommodate sensitive storage and transport requirements.

Frequently Asked Questions

Q1: What synthesis method is used to achieve the 20-30 nm particle size?
A1: The powder is produced using controlled precipitation followed by calcination, with particle size verified by electron microscopy. This process ensures a narrow size distribution critical for performance consistency in catalytic and ceramic applications.

Q2: How does the nanoscale dimension influence the material’s catalytic performance?
A2: The 20-30 nm particle size significantly increases the surface area, enhancing the reactive sites available for catalysis. This property improves the reaction kinetics and efficiency, which is essential for applications in chemical processing and material synthesis.

Q3: What storage conditions are recommended for maintaining the powder's properties?
A3: The material should be stored in sealed containers under cool, dry conditions. An inert atmosphere prevents moisture uptake and oxidation, ensuring the powder retains its nanoscale characteristics and reactivity over time.

Additional Information

Rare earth oxides like La2O3 play a significant role in the fabrication of advanced materials and catalysts. Their unique electronic structure and thermal properties make them integral in refining ceramic processes and facilitating high-efficiency catalytic reactions. Researchers utilise these compounds to enhance material performance in temperature-sensitive applications.

Understanding the synthesis and characteristics of nanopowders is essential for applications in modern material science. The ability to control particle size and morphology directly impacts the physical and chemical properties, paving the way for optimised processes in industries ranging from electronics to industrial catalysis.