PR10493 Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.5% 50 nm

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.5% 50 nm Description

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.5% 50 nm, with the chemical formula Pr6O11, is produced using controlled calcination and milling techniques to achieve an average particle size of 50 nm. The product's 99.5% purity is confirmed through spectroscopic and diffraction analyses, ensuring a consistent phase and minimal impurity content. Its defined particle dimensions facilitate integration into formulations for optical ceramics, catalysis, and other advanced material processes.

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.5% 50 nm Applications

1.       Electronics and Optoelectronics
- Used as a doping agent in optical ceramics to achieve enhanced light absorption by utilising its uniform nanoparticle size.

2.       Ceramic Processing
- Applied as a sintering aid in ceramic formulations to lower densification temperatures by improving particle packing and reactivity.

3.       Catalysis
- Serves as a catalyst support in chemical reactors to facilitate oxidation-reduction reactions by providing a high surface area.

Nano Praseodymium Oxide Powder, Pr6O11 Nanopowder 99.5% 50 nm Packing

This nanopowder is packaged in sealed containers under an inert atmosphere and lined with anti-static materials to prevent contamination. Storage under controlled humidity and temperature minimises moisture absorption and particle agglomeration. The packaging includes secondary containment for additional protection during transport. Custom packaging options are available for bulk orders and specialised storage requirements.

Frequently Asked Questions

Q1: What analytical techniques confirm the 50 nm particle size distribution?
A1: Techniques such as dynamic light scattering (DLS) and transmission electron microscopy (TEM) are used. These methods ensure that the nanoparticle size distribution is maintained within the targeted 50 nm range, confirming consistency for technical applications.

Q2: How is phase purity maintained during the synthesis process?
A2: Phase purity is ensured through controlled calcination and verified by X-ray diffraction (XRD) analysis. This process minimises secondary phase formation and confirms the exclusive presence of the Pr6O11 phase.

Q3: Is additional surface treatment required when incorporating this nanopowder into ceramic formulations?
A3: The nanopowder is engineered for direct integration into ceramic matrices. However, a preliminary dispersion step might be recommended to achieve a uniform distribution in the specific ceramic processing environment.

Additional Information

Rare earth oxides like Praseodymium Oxide play a significant role in advanced material applications due to their unique electronic configurations and catalytic properties. The controlled synthesis of these materials enables precise manipulation of surface properties, which is critical for applications in optics, ceramics, and catalysis.

Understanding the synthesis and behaviour of nanomaterials is essential for optimising their integration into functional systems. Characterisation techniques such as XRD, TEM, and spectroscopic analyses provide insights into phase stability and morphology, ensuring that these materials perform effectively in industrial applications.