HIGH PURITY METALS

High-purity copper refers to copper metal with a purity level of 4N（Cu≥99.99％） or higher, where "N" represents the purity of copper, and a higher number preceding "N" indicates a higher level of copper purity. As an emerging material, high-purity copper finds extensive applications.They exhibit excellent electrical conductivity, ensuring efficient transmission of electrical signals. Additionally, these tubes possess superior thermal conductivity, enabling efficient heat transfer and optimal performance in cooling systems. Their corrosion resistance makes them reliable in harsh environments, while their flexibility and formability allow for easy installation and adaptation to complex designs. High-purity copper tubes also exhibit compatibility with various components and systems, ensuring secure connections, and they have low impurity content, contributing to improved reliability and long-term durability.

High purity titanium powder plays a crucial role in various industries, ranging from sustainable manufacturing to aerospace and additive manufacturing. This article provides an in-depth understanding of how high purity titanium powder is made and explores its diverse applications in different sectors.

Titanium is a metal chemical element, chemical symbol Ti, atomic number 22, located in the fourth period, IVB group in the periodic table of chemical elements. It is a silver-white transition metal characterized by light weight, high strength, metallic luster, and resistance to wet chlorine corrosio

1. Gregor (Reverend William Gregor, 1762-1817): In 1791, titanium was discovered in the form of titanium-containing minerals in Cornwall, England. The discoverer was the English amateur mineralogist Gregor ( Reverend William Gregor, who was working as a priest in charge of the parish of Creed in Co

Titanium has metallic luster and ductility. The density is 4.5 g/cm3. Melting point is 1660±10℃. The boiling point is 3287°C. Valence +2, +3 and +4. The ionization energy is 6.82 electron volts. The main characteristics of titanium are low density, high mechanical strength and easy processing. The p

In 1940, Luxembourg scientist W.J.Kroll used magnesium to reduce TiCl4 to obtain High Purity Titanium. Since then, the magnesium reduction method (also known as the Kraul method) and the sodium reduction method (also known as the Hunter method) have become industrial methods for producing sponge tit