Titanium alloy is a material with high strength, low density, high temperature resistance and good corrosion resistance. It is widely used in aerospace, medical, automotive and other industries. There are many ways to process titanium alloys. The following are the processing technologies we apply for titanium alloy products.
Metal injection molding is an advanced powder metallurgy technology that mixes metal powder and binder and then sinters it at high temperature. This method is suitable for the manufacture of small precision parts with complex shapes, such as:
watch accessories
medical gadgets
Electronic product parts
Selective laser melting is a 3D printing technology that uses a laser beam to melt metal powder layer by layer to build parts. SLM can produce almost completely dense structures and is suitable for the production of complex, high-performance titanium alloy parts, such as:
Aerospace structural parts
precision tools
High performance industrial components
CNC (Computer Numerical Control) machining is a precision machining technology that controls tool paths through preset programs and is used to process various materials, including titanium alloys. CNC machining of titanium alloys is often used to produce:
Aero engine parts
High-precision automotive parts
Custom medical implants
Titanium alloy surface treatment technology can improve the corrosion resistance, wear resistance and appearance of the material. Common methods include:
Plating (such as nickel, chromium or silver)
Anodizing
Heat treatment and carburizing
MIM technology can produce small precision parts with complex shapes, high precision and relatively low cost. It combines the high efficiency of plastic injection molding with the material versatility of traditional powder metallurgy.
Key challenges with SLM include low laser absorption when dealing with highly reflective materials such as titanium alloys, as well as stress and deformation that can occur during the manufacturing process.
Optimizing SLM process parameters includes adjusting laser power, scanning speed, powder layer thickness and scanning strategy. The optimal parameter combination can be found through experiments and simulations.
Choose high-speed steel or carbide tools and use a proper lubrication/cooling system to reduce tool wear and prevent overheating. Proper cutting speed, feed rate and depth of cut are key.
Using sharp tools and maintaining high cutting speeds can improve surface quality. At the same time, proper use of cutting fluid can effectively reduce surface roughness.
The uniformity and adhesion of the anodized layer can be a problem and are usually solved by adjusting the composition of the electrolyte and processing parameters.
Surface preparation before electroplating is key, including cleaning and pretreatment steps to ensure good adhesion and uniformity of the electroplated layer.
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