CU9744 High-Precision Brass Strip (C28000)

High-Precision Brass Strip (C28000) Description

High-Precision Brass Strip (C28000) is a copper-zinc alloy strip produced through rigorous rolling and annealing processes to achieve a uniform microstructure. The material exhibits tailored ductility and effective electrical conduction, making it suitable for manufacturing connector components and related hardware. Its precise dimensional tolerances ensure compatibility with standard industrial equipment while reducing the risk of particulate contamination during assembly.

High-Precision Brass Strip (C28000) Applications

Electronics
- Used as contact connectors in circuit assemblies to achieve improved signal transmission by utilising controlled annealed microstructure.
- Applied as bridging components in PCB mounting systems to resolve intermittent connections by utilising inherent ductility.

Industrial
- Used as conductive strips in automation control panels to ensure stable electrical performance by harnessing a uniform grain structure.
- Employed as grounding elements in industrial machinery to address short-circuit risks by relying on efficient Cu-Zn conductivity.

High-Precision Brass Strip (C28000) Packing

High-Precision Brass Strip (C28000) is securely packaged within anti-corrosive, padded wrapping materials to mitigate mechanical damage and environmental exposure during transit. The strips are enclosed in moisture barrier bags and stored in temperature-controlled containers to prevent oxidation. Custom packaging options, including labelled compartmentalised configurations, are available upon request, ensuring the material remains under controlled storage conditions until deployment.

Frequently Asked Questions

Q1: How does the controlled annealing process affect the strip's microstructure and performance characteristics?
A1: The controlled annealing process refines the grain structure, enhancing ductility and electrical conduction. Rigorous temperature and time monitoring during the process minimises dimensional variations, which is crucial for performance in applications requiring precise electrical connectivity.

Q2: What measures are taken to minimise contamination during production and packaging?
A2: Stanford Advanced Materials employs in-line microstructural inspection and cleanroom protocols during production. The strip is then packaged in anti-corrosive and moisture barrier materials to inhibit particulate contamination and oxidation during storage and transit.

Q3: How does the product's composition contribute to its behaviour in high-current applications?
A3: The Cu-Zn composition facilitates efficient electrical conduction while maintaining structural integrity under elevated current loads. The uniform microstructure achieved through controlled processing minimises localised heating, ensuring stable operation in high-current circuits.

Additional Information

Copper alloys are extensively used in both structural and electrical applications due to their balanced properties. The combination of copper and zinc yields a material with enhanced ductility and effective conductivity, making it suitable for intricate connector parts and load-bearing components. Advances in rolling and annealing techniques have allowed for tighter control over microstructural characteristics, which directly impact performance in industrial settings.

Recent developments in metallurgical processing have further refined the consistency of copper alloys. Detailed characterisation methods, such as microstructural analysis and precision dimensional inspection, aid in optimising the alloy properties for specialised applications. This ongoing process improvement supports the integration of copper alloys into increasingly demanding electrical and mechanical systems.