Products Description
Copper bushings are wear-resistant and friction-reducing components based on copper or copper alloys. They combine excellent thermal conductivity, corrosion resistance, and self-lubricating properties, reducing friction loss and extending equipment life without additional lubrication. Marine shaft copper bushings are suitable for ship shafting. The copper alloy's resistance to seawater corrosion ensures long-term stable operation and protects against marine environmental erosion. Copper flange pap bushings are typically cylindrical in shape, with an inner bore that mates with the shaft and an outer diameter that fits the housing. They are suitable for high-speed and heavy-load applications and are particularly well-suited for operation in media such as water and oil.
Product Features
1. Excellent Corrosion Resistance:
Copper bushings are made of copper alloy, especially for marine shaft copper bushings used in marine environments. They effectively resist seawater erosion, ensuring long-term stable operation in equipment such as ship shafting, reducing equipment failures and replacement frequency due to corrosion.
2. Excellent Wear Resistance:
Copper bushings exhibit excellent wear resistance, reducing friction loss between the bushing and the shaft even under high load and high speed conditions, extending the service life of the bushing and its associated shaft components. For example, copper flange pap bushings maintain long-term stable operation in mechanical transmissions.
3. High Load Capacity:
They can withstand large radial and axial loads, making them suitable for applications requiring high power transmission and providing reliable support for the stable operation of mechanical equipment.
4. Reasonable Structural Design:
Some products, such as copper flange babbitt bushings, utilize a copper flange structure to enhance the connection stability between components. Furthermore, the babbitt alloy lining further enhances friction reduction and anti-seizure capabilities, making them suitable for complex mechanical stress environments.
