Virgin Tungsten Carbide

Tungsten carbide strip (also called cemented carbide strip or hardmetal strip) is made by blending tungsten carbide powder with cobalt powder according to the required grade, then pressing and sintering it. It offers high hardness, excellent wear resistance and good transverse rupture strength. The strip has a rectangular cross-section and is supplied in sintered (unground), ground and h6 precision-ground condition, with thickness, width and length customized to customer drawings. It serves as a brazing or solid blank for downstream cutting tools, dies and wear parts. By adjusting the ratio of hard phase to binder, different hardness-to-toughness combinations are available in the same profile, covering applications from woodworking blade tips to cold-heading dies.

Tungsten carbide strip (also called cemented carbide strip or hardmetal strip) is made by blending tungsten carbide powder with cobalt powder according to the required grade, then pressing and sintering it. It offers high hardness, excellent wear resistance and good transverse rupture strength. The strip has a rectangular cross-section and is supplied in sintered (unground), ground and h6 precision-ground condition, with thickness, width and length customized to customer drawings. It serves as a brazing or solid blank for downstream cutting tools, dies and wear parts. By adjusting the ratio of hard phase to binder, different hardness-to-toughness combinations are available in the same profile, covering applications from woodworking blade tips to cold-heading dies.

Tungsten carbide strip (also called cemented carbide strip or hardmetal strip) is made by blending tungsten carbide powder with cobalt powder according to the required grade, then pressing and sintering it. It offers high hardness, excellent wear resistance and good transverse rupture strength. The strip has a rectangular cross-section and is supplied in sintered (unground), ground and h6 precision-ground condition, with thickness, width and length customized to customer drawings. It serves as a brazing or solid blank for downstream cutting tools, dies and wear parts. By adjusting the ratio of hard phase to binder, different hardness-to-toughness combinations are available in the same profile, covering applications from woodworking blade tips to cold-heading dies.

Our Cemented Carbide Terminals are precision-engineered using a Tungsten Carbide (WC) matrix with Cobalt (Co) or Nickel (Ni) binders, offering an optimal balance of high hardness (1600–2000 HV), exceptional wear resistance, and excellent electrical conductivity .

Our Tungsten Carbide Woodworking Knives are precision-engineered from premium cemented carbide, delivering exceptional wear resistance and a significantly extended service life compared to standard steel blades. Manufactured using advanced powder metallurgy, these inserts feature a high hardness rating (up to 92 HRA) and robust transverse rupture strength, making them ideal for high-speed machining in both manual and CNC applications

Solid carbide round bar 6mm×100mm, ground to h6 tolerance. High hardness & excellent wear‑resistance.

Solid carbide round bar 8mm×100mm, ground to h6 tolerance. High hardness & excellent wear‑resistance.

Solid carbide round bar 4mm×100mm, ground to h6 tolerance. High hardness & excellent wear‑resistance.

A rod-shaped material produced through powder metallurgy. With its extremely high hardness and wear resistance, it has become an indispensable base material in modern manufacturing, particularly in the field of precision machining.

Tungsten carbide round bars, or cemented carbide bars, are rod-shaped materials manufactured using powder metallurgy processes. With their extremely high hardness and wear resistance, they have become an indispensable basic material in modern manufacturing, particularly in the field of precision machining.

Widely used in precision stamping dies (such as connector terminal stamping) and high-performance electronic and electrical connections to ensure exceptional wear resistance and resistance to deformation under high-speed, high-pressure, and high-temperature operating conditions.