Our TZM alloy, composed of 0.50% Titanium, 0.08% Zirconium, 0.02% Carbon, and the balance Molybdenum, is designed for exceptional strength and high-temperature applications, especially above 1000°C. Compared to pure molybdenum, TZM alloy offers a higher recrystallization temperature, greater strength, and hardness, along with better ductility and weldability.
We use advanced manufacturing techniques, including P/M and Arc Cast technologies, for consistent, high-quality production. Our low-oxygen TZM alloy, with less than 50 ppm oxygen content, provides superior creep resistance and high-temperature strength. our TZM alloy is ideal for demanding applications like rocket nozzles, furnace components, and forging dies.
Choosing our TZM alloy means opting for a solution that excels in performance and durability. In addition to product excellence, we pride ourselves on exceptional customer support and service.
Formula: | Mo-Ti-Zr |
Purity: | ≥99% or ≥99.5% |
Appearance: | Metallic solid in various forms (rod, sheet, plates) |
Melting Point: | 2610℃ |
Boiling Point: | 5560℃ |
Main Components: Ti: 0.4-0.55%, Zr: 0.06-0.12%, C: 0.01-0.04%
Others | O | Al | Fe | Mg | Ni | Si | N | Mo |
---|---|---|---|---|---|---|---|---|
Content (wt, %) | ≤0.03 | ≤0.01 | ≤0.002 | ≤0.002 | ≤0.002 | ≤0.002 | ≤0.002 | Bal. |
Specification: (0.1-40)mm x (50-600)mm x (100-1500)mm.
Standard: ASTM B386 364
Density: ≥10.1g/cm3.
Tensile strength: ≥830MPa.
Yield strength: ≥690MPa.
Elongation: ≥10%.
Specification: Ф(15-100)mm x (200-1500)mm.
Standard: ASTM B387 364
Density: ≥10.05g/cm3.
Tensile strength: ≥735MPa.
Yield strength: ≥685MPa.
Elongation: ≥10%.
Our team's expertise in molybdenum alloy manufacturing is backed by over 15 years of experience. We provide you with personalized support and technical guidance.
The quality of an alloy begins with its raw materials. We carefully select high-grade molybdenum for our alloys. We prioritize selecting fine-grained, high-purity raw materials to guarantee the superior quality of our TZM alloy.
Our manufacturing process combines traditional craftsmanship with modern technology. This approach allows us to produce alloys that meet specific requirements. We use a high-quality method to make our TZM alloy. By using several steps in forging and rolling, we ensure our alloy is strong and better mechanical properties.
Our manufacturing setup is designed for high production capacities. This allows us to fulfill large orders efficiently without compromising on quality.
Recognizing the diverse needs of our clients, we specialize in application-specific solutions, tailoring our TZM alloy to your unique requirements.
We believe in offering our high-quality product at competitive prices. Our TZM alloy is not just about superior performance; it's also about providing value to our customers. This approach makes our product an excellent choice for businesses looking for both quality and affordability.
Each product is crafted to align with rigorous international standards, boasting both ISO certification and adherence to ASTM guidelines.
TZM alloy's high resistance to heat and corrosion makes it ideal for aerospace applications, including jet engines and critical components.
Used in heating elements and insulation screens for high-temperature vacuum furnaces, TZM alloy ensures reliable performance in extreme conditions.
TZM alloy is excellent for molds used in die casting, extrusion, and isothermal forging of light alloys and steel billets.
TZM alloy is essential in electronics for electron tube cathodes, grids, high-voltage rectifiers, and semiconductor thin-film integrated circuits.
Mix ultra-fine molybdenum powder and other powders in the required proportions, then blend the mixture evenly in a drum-type mixer to obtain a uniform mixed powder.
The pressing process compresses powder using isostatic pressing equipment to form billets, ensuring uniform density. We utilize a full range of billet-making molds and equipment for high-volume production.
In powder metallurgy, metal powders are pressed into billets using isostatic pressing and then heated, a process called sintering. Sintering creates a dense, polycrystalline material and significantly influences grain size, pore size, and the distribution of grain boundaries in the microstructure, playing a critical role in powder metallurgy.
Melt the rough ingots multiple times using a vacuum electron beam furnace or vacuum arc furnace to produce alloy ingots.
Place the alloy ingot blanks in a high-frequency furnace, heat and forge multiple times, and process the surface oxide layer to produce finished ingots.
The forging process enhances material density, improves mechanical properties, and strengthens the surface. Accurate control of processing rates and forging temperatures is crucial for achieving superior performance in our TZM alloy.
Rolling processes subject metal materials to continuous plastic deformation under the pressure of rotating rolls, achieving desired shapes and properties. AEM Metal employs advanced cold and hot rolling technologies and equipment to ensure superior metal properties.
After forging and rolling processes, materials undergo heat treatment to completely relieve internal stresses, optimizing their performance and enhancing machinability.
After heat treatment, the materials are machined using processes like turning, milling, cutting, and grinding to fit specific sizes for customers. This ensures strong, smooth materials that meet different needs.
TZM (Titanium-Zirconium-Molybdenum) alloy is a high-strength, high-temperature molybdenum-based alloy. It consists primarily of molybdenum (Mo), with small additions of titanium (Ti), zirconium (Zr), and carbon (C), enhancing its mechanical properties and making it suitable for high-stress, high-temperature applications.
We transform molybdenum into TZM using small quantities of ultra-fine carbides, making it stronger than pure molybdenum.
It exhibits superior resistance to corrosion, even in aggressive chemical environments, ensuring longevity and durability.
TZM has a higher recrystallization temperature and better creep resistance than pure molybdenum.
TZM is less brittle at room temperature and resists sagging better at high temperatures.
TZM is perfect for high-temperature applications with demanding mechanical loads, such as forging tools or rotating anodes in X-ray tubes.
The recommended operating temperatures for TZM are between 700°C and 1400°C.
Making sure TZM alloy is of top quality is very important because it's used for important jobs in many industries. Quality checks and tests are a big part of making the alloy. Let's look at the main ways we test and control the quality of TZM alloy:
Surface Check: Each product is visually inspected for any surface imperfections such as scratches, pits, or irregularities. Dimensional Accuracy: The thickness, width, and length of the alloy are measured to ensure they meet specified tolerances.
Purity Testing: To confirm the chemical composition and purity of the alloy, tests like X-ray fluorescence (XRF) and inductively coupled plasma (ICP) are conducted. Trace Elements Analysis: Identifying trace elements is crucial to ensure the alloy's suitability for sensitive applications, especially in electronics and medical fields.
Tensile Strength Test: Determines the alloy's strength by measuring its resistance to breaking under tension. Elongation Measurement: Assesses the ductility of the alloy, or how much it can stretch before breaking.
Ultrasonic Testing: Ultrasonic waves are used to detect internal flaws or inhomogeneities. Radiographic Testing: X-rays or gamma rays are used to inspect the internal structure of the tubes, identifying any internal defects.
The product is exposed to various corrosive agents to ensure its resistance, a key property for its use in chemical processing and medical devices.
Using micrometers or other precise instruments, the exact thickness of the product is verified, as it is a critical factor in many applications.
After passing all tests, the product is certified. A report is provided to the buyer detailing the tests conducted and their results, ensuring traceability and quality assurance.
Mechanical Property Testing
Non-Destructive Testing (NDT)
TZM alloy is known for its excellent high-temperature strength, creep resistance, and high recrystallization temperature. It also offers good thermal conductivity and low thermal expansion, making it ideal for applications that require stability and performance at elevated temperatures.
The addition of titanium and zirconium to molybdenum increases the alloy's high-temperature strength and improves its creep resistance. These elements form stable carbides that inhibit grain growth at elevated temperatures, enhancing the alloy's overall mechanical properties and performance.
We offer TZM alloy in various forms, including rods, sheets, plates, and custom machined components. Sizes can be customized to meet specific requirements, ensuring that our clients receive the exact dimensions needed for their applications.
TZM alloy is widely used in industries such as aerospace, defense, and manufacturing for components that experience high temperatures and stress. Common applications include:
Compared to pure molybdenum, TZM alloy offers significantly improved properties, including:
Yes, we offer customization services to tailor TZM alloy to specific application requirements. Our team works closely with clients to understand their needs and provide solutions.
Yes, we offer competitive pricing, including discounts on large volume orders.
Ordering is simple. Start by sending us an inquiry. We'll respond with an official quote. If our products and prices meet your needs, issue a PO or we'll send a PI for your purchase.
It usually takes 3-4 weeks. Lead times can vary based on the order size and customization requirements.
Request an TZM Alloy Quote for Your Projects Now
Request a Free Quote
Send us a message if you have any questions or request a quote. We will be back to you ASAP!