PR10498 Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm

Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm Description

Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm comprises praseodymium oxide in the stoichiometric form Pr6O11 with an average particle size of 3 μm. This form of oxide benefits material processing by ensuring uniform distribution in mixtures and promoting enhanced sintering behaviour in ceramic formulations. Its chemical stability under moderate thermal conditions makes the powder applicable for reproducible studies in materials research. The controlled particle size facilitates improved reactivity and densification in processing environments typically encountered in research laboratories and industrial settings.

Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm Applications

Electronics and Semiconductor Applications
- Used as a dielectric component in capacitor formulations to achieve stable circuit performance by leveraging low leakage characteristics.

Industrial Ceramics
- Applied as a sintering aid in ceramic processing to enhance densification by leveraging the fine, 3 μm particle size.

Optical and Coating Applications
- Employed as a pigment in optical coatings to improve light scattering properties by leveraging its controlled oxide composition.

Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm Packing

Micro Praseodymium Oxide Powder, Pr6O11 Powder 3 μm is packaged in inert, moisture-resistant containers with an inner seal to protect from environmental contamination. The product is placed in anti-static bags within secondary packaging to minimise dust and physical damage during storage and transit. Packaging measures include options for controlled atmosphere shipping and custom container sizes to meet specific storage requirements.

Frequently Asked Questions

Q1: What analytical techniques are recommended to assess the phase composition of Pr6O11 powder?
A1: X-ray diffraction (XRD) and scanning electron microscopy (SEM) are typically used to evaluate the phase composition and particle morphology, ensuring the product meets research-grade specifications.

Q2: How does a 3 μm particle size impact the sintering process in ceramic applications?
A2: The 3 μm particle size allows for uniform dispersion in the ceramic matrix, which improves sintering kinetics and helps achieve homogeneous microstructure during the densification process.

Q3: What are the recommended storage conditions for this oxide powder?
A3: The powder should be stored in a low-humidity, temperature-controlled environment with sealed packaging to prevent moisture uptake and maintain its chemical stability over time.

Additional Information

Rare earth oxides such as praseodymium oxide are of significant interest in materials science due to their complex electronic structures and varied oxidation states. These materials are often studied for their optical and electrical properties as well as their role in high-temperature ceramics. Their behaviour in these environments provides insights into phase transitions and microstructural evolution.

Advances in powder synthesis have enabled precise control of particle size and morphology, critical parameters in sintering and coating applications. Researchers focus on optimising these properties to enhance the performance of components in electronics, ceramics, and optical devices, thereby broadening the scope of practical applications for these materials.