Processing method of titanium and titanium alloy wires

Abstract

The invention discloses a processing method of titanium and titanium alloy wires, which comprises the following steps: taking titanium and titanium alloy blanks, scalping by using a centerless turning mill to obtain bright titanium and titanium alloy wires without surface scales, trimming by using an angle grinder, annealing the titanium and titanium alloy wires in a vacuum furnace, taking out the titanium and titanium alloy wires, cold-rolling by using a roller die cold rolling mill, annealing the titanium and titanium alloy wires in the vacuum furnace, and rolling the titanium and titanium alloy wires by using the roller die cold rolling mill to obtain the titanium and titanium alloy wires with bright surfaces and without surface scales, wherein the diameters of the titanium and titanium alloy wires are Phi 1-3 mm. The processing method of titanium alloy wires in the invention realizes the production of titanium wires with high precision and high efficiency. The invention can be used for continuous production, thereby saving the prior acid and alkaline washing production technique, reducing a plurality of drawing steps, greatly enhancing the production efficiency and saving the production cost. The processing method can be used for producing high-precision titanium wire products which can not be produced in the prior art.

Description

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AI Technical Summary

Benefits of technology

This patented methods allow for efficient and precise manufacturing of highly accurate and strong materials such as Titanium or its alloys (Ti). By utilising this technique, it saves time, money, energy compared to older techniques like chemical etchings which require multiple steps. Additionally, these processes are environmentally friendly because they eliminate harmful waste from traditional ways used during their creation. Overall, these technical benefits make them more effective than previous technologies while minimizing environmental concerns associated therewith.

Problems solved by technology

Technological Problem: Current methods involve producing pure or very thin metallic materials like tantum (Ta) with better mechanical performance but limited ability to perform certain types of work due to their intrinsic characteristics. Existing techniques require multiple steps involving different machines, leading to increased costs associated therewith. Additionally, current methods result in nonuniform surfaces caused by variations during deposition overtime, making them challenged when trying to achieve precise dimensions needed for these applications.