Pure titanium hexagonal bar: Common grades are TA1, TA2, etc. TA1 has good plasticity and toughness, suitable for parts working at lower temperatures, such as chemical equipment in the tube, bar, wire, etc., as well as the electrode in the electronics industry, electrolytic cathode, etc. TA2 is based on TA1 to improve its requirements, such as lower impurity content, with enhanced corrosion resistance and mechanical properties. It is commonly used in the manufacture of chemical equipment, reactors, towers, pipes, and other parts. It exhibits better corrosion resistance and mechanical properties, and is commonly used in the manufacture of chemical equipment, such as reactors, towers, pipelines, and other components.

Titanium alloy hexagonal bar: Common grades are TC4, GR5, etc. TC4 is an α-β type titanium alloy with good overall mechanical properties, which can work for a long time at 400 ℃, widely used in aerospace, chemical, medical, and other fields, such as manufacturing aircraft engine parts, chemical equipment, shaft parts, implants in medical equipment, etc. GR5 is also an α-β type titanium alloy, which is a high-strength, strong corrosion alloy, suitable for the manufacture of chemical equipment, reactors, pipelines, and other parts. GR5 is also an α-β type titanium alloy with high strength and corrosion resistance, which is suitable for the manufacture of high-strength fasteners in the fields of aviation and aerospace.

● Low Density: Titanium has a density of approximately 4.5 g/cm³, significantly lower than steel. Therefore, titanium hexagonal bars are lightweight, making them advantageous in aerospace and other fields where reducing equipment weight is critical.

● High Strength: Titanium's strength is comparable to or even exceeds that of some high-strength alloy steels. For example, TC4 titanium alloy hexagonal bars can achieve tensile strengths of 900 MPa or higher, enabling them to withstand substantial loads.

● Excellent Corrosion Resistance: Titanium exhibits outstanding corrosion resistance in various media, such as seawater, nitric acid, and sulfuric acid. It forms a dense oxide film that prevents further corrosion. Consequently, titanium hexagonal bars are suitable for manufacturing corrosion-resistant components in chemical processing, marine engineering, and similar environments.

● High-Temperature Resistance: Titanium can operate long-term at temperatures between 400°C and 600°C. Certain titanium alloys, such as Grade 9 (Gr9), maintain high strength and stiffness even at 600°C, making them suitable for parts used in high-temperature environments.

● Good Machinability: Titanium hexagonal bars offer good machinability. They can be turned, milled, drilled, and processed using other methods to achieve the required shape and dimensions. However, machining requires attention to factors such as cutting parameter selection and tool material compatibility.

Forging Machining: Titanium ingots are tested first, then forged, then work-hardened and annealed, then machined, then stress-relief annealed, and finally machined on the inner and outer surfaces, tested for dimensions, tested for performance, etc., and marked for storage.

Hot Rolling Machining: The titanium ingot is tested and hot rolled, then work-hardened, annealed, then machined and stress relieved, and finally, the internal and external surfaces are machined, tested, and labeled for storage.

Aerospace: Titanium alloys are extensively used in critical aircraft components such as engine blades, discs, shafts, landing gear assemblies, wing spars, and fuselage frames. They are also essential for satellite structures and space shuttle components due to their high strength-to-weight ratio and excellent fatigue resistance.

Medical: The exceptional biocompatibility and corrosion resistance of titanium alloys make them the material of choice for medical implants. This includes artificial joints, dental implants, and orthopedic devices. Specifically, titanium alloy rods can be machined into components like fixation screws and bone plates for fracture stabilization.

Chemical Processing: Titanium alloys' outstanding resistance to corrosion by a wide range of acids, alkalis, and salts makes them indispensable in chemical processing equipment. Key applications include reactors, towers, piping systems, valves, pumps, and various instrumentation components.

Automotive: In the automotive industry, titanium alloys are utilized to manufacture high-performance engine components (e.g., connecting rods, crankshafts, valves) and structural parts within suspension and braking systems. This contributes to significant weight reduction while enhancing strength, corrosion resistance, and overall vehicle performance.

Marine Engineering: For marine applications, titanium alloys are employed in critical parts such as propellers, shafting systems, and seawater piping. Their excellent seawater corrosion resistance also makes them suitable for offshore platform structures, structural components, and fasteners.

Electronics: Titanium alloys (often commercially pure grades) offer valuable properties for electronics, including good electrical conductivity, thermal management capabilities, and electromagnetic interference (EMI) shielding. They are used in the fabrication of electronic device housings, brackets, heat sinks, and enclosures for products like computers and mobile phones