CU10659 Copper(I) Acetate Powder

Copper(I) Acetate Powder Description

Copper(I) Acetate Powder (CuC2H3O2) is synthesised under controlled conditions to ensure uniform composition and consistent phase characteristics. The defined particle size of the powder facilitates homogeneous dispersion in chemical reactions, particularly in catalysis and material processing. Its inherent thermal stability and predictable decomposition behaviour make it suitable for applications requiring precise control over reaction kinetics and product consistency.

Copper(I) Acetate Powder Properties

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

Copper(I) Acetate Powder Applications

Chemical Synthesis
• Used as a precursor in homogeneous catalysis to achieve controlled organic transformations by utilising its consistent reactivity profile.
• Employed in the formation of organometallic compounds to facilitate predictable ligand exchange due to its stable decomposition characteristics.

Catalyst Applications
• Applied as a catalyst initiator in polymerisation systems to promote uniform chain initiation by utilising its steady catalytic performance.
• Used as a reagent in oxidation reactions to drive predictable electron transfer processes through its stable copper(I) state.

Copper(I) Acetate Powder Packing

The powder is packaged in nitrogen-flushed, moisture-barrier bags that are further enclosed in rigid, sealable cartons. An anti-static lining minimises particle agglomeration, and materials are selected to mitigate contamination. The packaging is designed for secure transit and long-term storage under cool, dry conditions. Custom packaging sizes and labelling options are available upon request.

Additional Information

Copper compounds such as Copper(I) Acetate play a pivotal role in catalysis and material development. Their chemical behaviour is of particular interest in industrial synthesis processes where precise reaction control is required. A detailed understanding of such materials aids in optimising reaction conditions and product performance.

Scientific advancements in material processing have demonstrated that controlled-phase copper compounds can significantly improve reaction kinetics and product uniformity. These insights are valuable in both research and industrial applications, where detailed characterisations guide the development of process-specific solutions.