Pure titanium is widely used in aerospace, medical, and chemical industries due to its excellent corrosion resistance, low density, and high strength. However, despite its outstanding advantages, pure titanium also has certain drawbacks. This article will provide a detailed analysis of the main disadvantages of pure titanium and explore its limitations in practical applications, focusing on products such as pure titanium rods, pure titanium plates, and pure titanium wires.
Pure titanium has high chemical reactivity and is prone to reacting with elements such as oxygen and nitrogen in the air during processing, forming hard and brittle oxide and nitride layers, which presents significant challenges. For example, when machining pure titanium rods, tool wear is severe, and processing efficiency is low. According to Metalworking Technology, pure titanium has a low elastic modulus, making it easy to deform during processing, leading to difficulty in controlling dimensional accuracy. For the forming of pure titanium plates, special techniques and equipment are required, increasing production costs and technical difficulty. In the wire drawing of pure titanium wires, the high stickiness of pure titanium can lead to wire breakage, affecting production efficiency and product quality.
Compared to materials such as stainless steel and aluminum alloys, the extraction and processing cost of pure titanium is higher. The refining process of titanium ore is complex and requires high-temperature reduction, resulting in higher prices for products like pure titanium wires. Especially in aerospace and medical fields, the large-scale use of titanium materials significantly increases the overall cost.
Although pure titanium has excellent corrosion resistance, its wear resistance is relatively poor. In high-friction environments, the surface of pure titanium plates and pure titanium rods is prone to wear. Therefore, in applications that require high wear resistance, such as the manufacturing of mechanical components or tools, special treatments such as oxidation, nitriding, or coating enhancement are often required for the titanium surface.
Pure titanium wire is mainly used in welding applications, but titanium materials are prone to reacting with elements such as oxygen, nitrogen, and hydrogen at high temperatures, which affects the welding quality. To ensure a good welding result, it is usually necessary to perform the process under the protection of inert gases (such as argon), which increases equipment and operational costs.
Although pure titanium has good ductility and toughness at room temperature, it may become brittle in extremely low-temperature environments. This means that pure titanium rods or pure titanium plates used in low-temperature applications (such as polar equipment or deep-sea exploration) require additional consideration of their material properties to avoid safety risks caused by material brittleness.
Although pure titanium has these drawbacks, continuous technological innovation and process improvements, such as optimizing processing techniques and developing new alloys, can mitigate its limitations to some extent, allowing it to better serve various industries. Baoji Aulister company is also continually investing in research and development, striving to enhance the performance and processing technology of pure titanium materials to meet the diversified needs of the market.