LA10475 Nano Lanthanum Oxide Powder, La2O3 Nanopowder 100-200 nm

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 100-200 nm Description

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 100-200 nm is an advanced formulation of lanthanum oxide with particle sizes in the nanoscale range. The 100-200 nm particle dimension enhances effective surface area and promotes improved catalytic activity in material synthesis. The nanostructure, verified through electron microscopy, supports consistent dispersion in composite systems and facilitates uniform performance in diverse application environments.

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 100-200 nm Applications

Electronics Applications
- Used as a dielectric additive in capacitor formulations to achieve stable insulation performance by leveraging its controlled nanoparticle distribution.

Industrial Applications
- Applied as a catalyst support in chemical reactors to enhance surface reaction rates by utilising its high specific surface area.

Ceramics Applications
- Used as an additive in ceramic formulations to improve sintering behaviour by influencing grain growth with its nanoscale particles.

Nano Lanthanum Oxide Powder, La2O3 Nanopowder 100-200 nm Packing

Nano Lanthanum Oxide Powder is packaged in sealed, anti-static containers with internal cushioning to minimise exposure to moisture and mechanical stress. The packaging incorporates inert materials to prevent contamination during transit and storage. Users are advised to store the product in a dry, temperature-controlled environment. Custom packaging options, including secondary containment and specific labelling, are available upon request.

Frequently Asked Questions

Q1: What methods are employed to verify the 100-200 nm particle size range?
A1: Particle size distribution is confirmed using transmission electron microscopy (TEM) and dynamic light scattering, which provide detailed insights into the nanoscale range and help maintain a narrow, controlled distribution.

Q2: Is the nanopowder suitable for high-temperature catalytic applications?
A2: The inherent thermal stability of lanthanum oxide and its high melting point suggest suitability in elevated temperature environments. However, application-specific testing is recommended to ensure performance under actual operating conditions.

Q3: How does the nanoscale dimension affect dispersion in composite systems?
A3: The uniform 100-200 nm particle size enhances dispersion within matrices, leading to improved interaction at interfaces and more homogeneous composites. This facilitates better performance in end-use applications.

Additional Information

Rare earth oxides such as La2O3 play a critical role in various industrial processes. Their unique electronic configurations contribute to high dielectric permittivity and catalytic properties, making them valuable in catalyst systems and materials engineering. Research continues to enhance synthesis methods to further refine particle size and surface characteristics.

Nanomaterials offer increased surface area and reactivity, which are advantageous in both catalytic and structural applications. Advances in nanoparticle characterisation and processing have enabled more reliable integration of these compounds into electronic, ceramic, and composite formulations, expanding their utility across several commercial sectors.