1. Material selection and heat treatment:
Select materials with high hardness and high wear resistance, such as TiNi60 alloy or other ceramic-based composite materials, to reduce heat and wear caused by friction.
The strength and hardness of the material are improved through heat treatment process to meet the needs of high-speed operation.
2. Structural design optimization:
Optimize the geometry and internal structure of the bearing, reduce stress concentration and vibration, and improve the running stability of the bearing.
Adopt advanced lubrication system design to ensure uniform distribution of lubricating oil and reduce friction and heat generation.
3. Lubrication system design:
Select suitable lubricating oil or grease, such as green and environmentally friendly castor oil, to ensure good lubrication performance during high-speed operation.
Design a reasonable lubrication system, such as oil spray lubrication or oil mist lubrication, to ensure that the bearing is fully lubricated during high-speed operation.
4. Heat dissipation design:
Add heat dissipation structures such as heat sinks and heat dissipation slots to increase the heat dissipation area of the bearing and improve heat dissipation efficiency.
Introduce cooling systems, such as using coolant or fans, to force cooling of bearings and reduce bearing temperature.
5. Dynamic balancing and vibration control:
Perform dynamic balancing tests on bearings to ensure that they have low vibration levels when running at high speeds.
Adopt vibration reduction and isolation measures, such as installing vibration dampers or vibration isolation pads, to further reduce the impact of vibration on bearing performance.
6. Intelligent monitoring and maintenance:
Introduce intelligent sensor technology to monitor and record key parameters such as bearing temperature and vibration in real time.
Establish an intelligent maintenance system to predict the life and performance changes of bearings based on monitoring data, and perform maintenance and replacement in advance.
7. Technological innovation and R&D:
Continuously research and develop new materials, new processes and new technologies to improve the performance and reliability of Ultra-high Speed Integrated Bearings.
Learn from advanced technologies in other fields, such as aerospace, automobiles, etc., to provide new ideas and methods for bearing performance optimization.