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READ MOREComposite Bearings, also known as composite bearings, are bearings made from a combination of two or more different materials. This combination is designed to optimize the overall performance of the bearing by complementing the properties of the different materials.
Compared with traditional bearings, Composite Bearings have the following advantages:
Excellent wear resistance: Composite bearings usually use materials with high wear resistance, such as carbon graphite, ceramics or other special alloys, which enable the bearings to maintain good performance under long-term high-load operation.
Lower friction coefficient: By optimizing the material combination and structural design, composite bearings can achieve a lower friction coefficient, thereby reducing energy loss, improving operating efficiency, and reducing heat generation.
Good corrosion resistance: The material selection of composite bearings often takes corrosion resistance into consideration, and is especially suitable for environments working in humid and corrosive media.
Higher load-carrying capacity: Due to the use of high-strength and high-rigidity materials, composite bearings generally have higher load-carrying capacities and can handle larger loads and impacts.
Longer service life: Due to their excellent wear and corrosion resistance, composite bearings generally have a longer service life, reducing the frequency of maintenance and replacement.
Lower Maintenance Costs: Due to their superior performance, composite bearings generally have lower maintenance and replacement costs. At the same time, some composite bearings also have self-lubricating functions, further reducing maintenance costs.
Design flexibility: Composite bearings can be custom designed according to specific application needs to meet specific performance requirements, such as high temperature, high speed, vacuum and other environments.
Choosing the right Composite Bearings requires considering the following key factors:
working environment:
First, consider what kind of environment the bearing will work in, such as temperature, humidity, corrosive media, etc.
Different working environments have different requirements for bearing materials, sealing properties, lubrication methods, etc.
Load and speed:
How much radial load, axial load and torque will the bearing bear?
What is the working speed?
Depending on the load and speed, the size, type and required stiffness of the bearing can be determined.
Accuracy requirements:
How much impact does the rotation accuracy and positioning accuracy of bearings have on system performance?
Bearings with corresponding accuracy classes need to be selected.
Installation and maintenance:
Consider how the bearing is installed, how easy it is to remove, and maintenance requirements.
Choose a bearing type that is easy to install, remove and maintain.
cost:
Consider the purchase cost, installation cost and maintenance cost of the bearing.
On the premise of meeting performance requirements, try to choose bearings with high cost performance.
Materials and Lubrication:
Choose appropriate bearing materials according to the working environment, such as stainless steel, ceramics, plastics, etc.
Consider how the bearings are lubricated, such as oil lubrication, grease lubrication or dry running.
Suppliers and Brands:
Choose suppliers and brands with good reputation and after-sales service.
Ensure that the quality and performance of the bearings are guaranteed.
Dimensions and tolerances:
Select appropriate bearing sizes and tolerances based on system requirements.
Ensure the matching of bearings and other components.
Lifespan and reliability:
Select the appropriate bearing life based on the reliability requirements of the system.
Consider the fatigue life and wear life of the bearing.
Dynamic performance:
If the bearing needs to work in a dynamic environment (such as vibration, impact, etc.), its dynamic performance, such as damping characteristics, natural frequency, etc., need to be considered.