China bright wolfram sheet tungsten sheet tungsten plate Manufacturer and Supplier

bright wolfram sheet tungsten sheet tungsten plate

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Tungsten sheets are used in a variety of industrial applications due to its superior properties, including high melting point, density and strength. These sheets are commonly used in aerospace, electronics and high temperature environments.

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Why is it called wolfram?

For historical and linguistic reasons, tungsten is known as "wolfram" in some areas. The name "tungsten" comes from wolframite, the primary ore of tungsten. The word "wolfram" originates from German, where the element was first discovered and studied.

The name "wolfram" has historically been used in several European countries and continues to be used as an alternative name for tungsten in some areas. In the fields of chemistry and materials science, it is not uncommon for different languages and regions to use different names for elements.

In summary, the name "wolfram" for tungsten has historical and linguistic roots, which reflect the early discovery and research of this element in certain areas.

Why is tungsten so hard to melt?

Tungsten has an extremely high melting point due to its strong metallic bonds and the arrangement of its atoms in a crystal lattice structure. Tungsten's high melting point is the result of strong interatomic forces, requiring large amounts of thermal energy to break chemical bonds and transform the material from solid to liquid. This property makes tungsten extremely difficult to melt, making it one of the elements with the highest melting point.

Tungsten's unique atomic structure, coupled with its high density and exceptional hardness, contributes to its resistance to melting, making it ideal for applications involving extreme temperatures, such as high-temperature furnaces, aerospace components and electrical contacts.

Can tungsten stop a tank bullet?

Tungsten, due to its exceptional density and hardness, is used in armor-piercing and kinetic energy-penetrating projectiles designed to penetrate armored vehicles, including tanks. Tungsten alloys are used in the production of armor-piercing projectiles due to their ability to withstand high-velocity impacts and penetrate hardened steel armor. While tungsten can effectively penetrate armor, the specific ability to stop a tank bullet will depend on a variety of factors, such as the type of ammunition, the thickness and composition of the armor, and the specific design of the projectile. It is worth noting that the effectiveness of armor-piercing rounds and the ability of armor to resist penetration is complex and depends on multiple variables.