The addition of a variety of metal and non-metal elements, including iron and steel, can result in a range of enhanced performance characteristics. However, the proportion of titanium is relatively low, at only 4%. The high melting point of 1690°C and the low proportion of titanium (4%) make this an expensive material to use. It is also prone to oxidation, which results in the loss of a significant amount of oxide on the surface of the liquid steel. The manufacturing process is complex and the monomer production cost is high. Therefore, it is not suitable to be directly added into liquid steel in the state of pure metal and non-metal monomer.
The production of seamless titanium iron wire involves grinding with titanium iron alloy powder and wrapping with a steel belt compacting. This process allows for deeper insertion into molten steel, enhancing the reflection of molten steel and improving recovery rates while reducing costs.
Seamless titanium wire can reduce the vapor pressure of calcium metal and gasification rate, increase the depth of seamless solid metal conductor insertion into steel liquid calcium packages, and reduce the boiling point of liquid steel. This allows the metal calcium to be absorbed by the molten steel in a shorter time. The calcium not only overcomes the existing joint solid package conductor inserted steel liquid boiling phenomenon, but also reduces the calcium powder package conductor hollow or core powder weight disparity phenomenon affecting thread feeding. Furthermore, the harmful elements (S, P, C, Si) in the powder calcium core-coated wire are avoided, which greatly improves the recovery rate and stability of calcium metal. Core-clad wire offers a number of advantages, including a uniform diameter, high tensile strength, good toughness and resistance to breakage. This makes it ideal for accurate control of wire feeding quantity. Compact core wire is tightly wrapped, ensuring longer storage life and optimal performance.
