PR10494 Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.9% 100 nm

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.9% 100 nm Description

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.9% 100 nm is a finely milled praseodymium oxide with the chemical formula Pr6O11. The powder exhibits a controlled particle size of 100 nm and a purity level of 99.9%, ensuring a high degree of uniformity for reproducible processing. It serves as a functional material in applications requiring nanoscale reactivity and enhanced surface interactions.

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.9% 100 nm Applications

Electronics
- Used as an additive in dielectric layers of thin film devices to achieve improved insulation by leveraging its nanoscale particle distribution.
- Applied as a functional component in sensor fabrication to enhance surface interactions, thereby improving signal modulation.

Catalysis
- Used as a catalyst support in chemical reactors to achieve intensified reaction kinetics by utilising its high surface area.
- Frequently used for oxidation reactions in environmental control systems, where the nanoscale particles increase contact efficiency with reactants.

Ceramics and Coatings
- Employed as a sintering aid in ceramic processing to reduce firing temperatures by promoting uniform grain growth.
- Applied in protective coatings to mitigate surface oxidation by utilising its chemical stability and controlled particle size.

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.9% 100 nm Packing

The nanopowder is sealed in moisture-resistant, anti-static containers with an inert lining to prevent contamination. It is stored under controlled temperature and humidity conditions to maintain particle dispersion. Custom packaging options, such as vacuum-sealed pouches and specific labelling, are available to match logistical or research requirements. Proper handling guidelines are provided to minimise environmental exposure.

Frequently Asked Questions

Q1: What special handling precautions apply to the nanopowder?
A1: Handle the nanopowder in a controlled environment, such as a glove box, while wearing appropriate personal protective equipment. Its fine particulate nature requires careful dispersion to avoid airborne contamination. Use designated tools to prevent aggregation and ensure user safety during processing.

Q2: How does the 100 nm particle size influence its performance in applications?
A2: The 100 nm particle size significantly increases the specific surface area, enhancing reaction kinetics and interface properties in electronic and catalytic applications. This uniform nanoscale dimension supports reproducible material behaviour and facilitates improved integration into composite formulations.

Q3: What quality control methods are employed during production?
A3: Stanford Advanced Materials (SAM) utilises electron microscopy and X-ray diffraction to validate particle size distribution and phase purity in every batch. These techniques ensure that the nanopowder consistently meets the specified 99.9% purity and maintains uniformity critical for precision industrial applications.

Additional Information

Rare earth oxide nanopowders play a crucial role in advancing material science, primarily due to their high surface area and unique reactivity profiles. These materials are integral in optimising processes in electronics, catalysis, and ceramics, where nanoscale properties often drive efficiency improvements.

Recent developments in nanomaterial synthesis have enabled tighter control over particle size distributions and phase compositions. This enhanced control supports more predictable behaviour in complex formulations and encourages broader adoption in research and industrial settings.