High Wear Resistance: The inclusion of titanium carbide (TiC) or titanium nitride (TiN) in the cermet mix provides exceptional resistance to wear and abrasion. This is crucial for bushings and shaft sleeves that are in constant contact with rotating or sliding parts.
High Mechanical Strength: Ti-based cermets offer a balance of hardness and toughness, which is essential for withstanding the mechanical stresses that occur in dynamic systems without fracturing.
Thermal Stability: These materials maintain their mechanical properties at high temperatures, making them suitable for applications involving high-speed operation that generates significant heat.
Corrosion Resistance: The chemical inertness of titanium and its compounds allows these bushings and shaft sleeves to resist corrosion from fluids, gases, and other environmental factors, which is particularly valuable in chemical processing or outdoor applications.
Automotive and Aerospace: In engines, pumps, and transmission systems where high performance and reliability are required under extreme conditions.
Industrial Machinery: In heavy machinery and production equipment, particularly where abrasion and high load are factors.
Chemical Processing: In pumps, mixers, and valves that handle corrosive substances.
Energy Sector: In turbines, generators, and other components of power generation systems exposed to high temperatures and pressures.
Durability: Their superior wear resistance significantly extends the service life of both the bushings/shaft sleeves and the components they protect, reducing downtime and maintenance costs.
Performance: These components ensure smooth operation by reducing friction and wear, which are critical for maintaining the efficiency and reliability of mechanical systems.
Safety and Reliability: The robustness of Ti-based cermets helps prevent component failure, which can be critical in applications where operational integrity is a safety concern.
Manufacturing Process: Ti-based cermet bushings and shaft sleeves are typically produced using powder metallurgy techniques. This process involves blending titanium and ceramic powders, compacting them into the desired shape, and then sintering at high temperatures to achieve the desired properties.
Machining: Due to their hardness, these components require advanced machining techniques such as diamond grinding or EDM for final shaping and finishing.
Regular Inspection: It is essential to regularly inspect these components for signs of wear or damage, particularly in applications involving high loads or corrosive environments.
Proper Installation: Correct installation is crucial to ensure that bushings and shaft sleeves function properly without causing undue stress or misalignment.
Lubrication: Depending on the application, appropriate lubrication should be maintained to minimize friction and wear. However, the specific lubrication requirements can vary based on the design of the mechanical system and operating conditions.