YB10665 Ytterbium(III) Acetate Tetrahydrate Powder

Ytterbium(III) Acetate Tetrahydrate Powder Description

Ytterbium(III) Acetate Tetrahydrate Powder, with a CAS number of 15280-58-7, is utilised in applications that demand precise rare earth chemistry. The material is synthesised to achieve a consistent stoichiometry and controlled hydration level. Its powder form facilitates accurate weighing and mixing during formulation. The compound's technical specifications support its role in research and development projects that focus on chemical synthesis and material studies.

Ytterbium(III) Acetate Tetrahydrate Powder Properties

The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Ytterbium(III) Acetate Tetrahydrate Powder Applications

1.       Chemistry Research and Synthesis
- Used as a precursor in the synthesis of ytterbium complexes to achieve targeted chemical reactions by leveraging its defined stoichiometry.
- Applied in experimental setups for rare earth compound synthesis to control reaction conditions and byproduct formation.

2.       Catalysis and Material Processing
- Serves as a component in catalysis systems within industrial reactors to affect reaction rates by capitalising on its controlled composition.
- Employed in material processing to adjust functional properties in ceramics, using its chemical consistency to achieve reproducible results.

Ytterbium(III) Acetate Tetrahydrate Powder Packing

The powder is packed in moisture-resistant, sealed containers with an inner lining to prevent contamination. Each package is labelled with batch information and storage instructions. The packaging protocol includes anti-static materials to avoid clumping and degradation. Custom packing options, including vacuum sealing and reinforced outer packaging, are available to meet specialised storage requirements.

Additional Information

Ytterbium compounds are vital in various research fields including materials science and coordination chemistry. Their unique electronic configuration supports studies in luminescence and magnetism. Understanding the behaviour of such compounds under different environmental conditions is crucial for developing new functional materials.

In addition, advances in process control and chemical analysis support improved reproducibility in synthesis. This progress enriches the scientific foundation, enabling refined applications in industrial research and academic laboratories.