Bimetal hardfacing wear plates

Bimetal hardfacing wear plates are manufactured by bonding two different types of metals together, typically a low carbon steel base layer and a high carbon or high chromium alloy layer.

The low carbon steel base layer provides structural support and toughness, while the high carbon or high chromium alloy layer provides excellent wear resistance and hardness. The combination of these two metals creates a wear-resistant surface that can withstand high levels of abrasion, impact, and heat.

The bimetal hardfacing wear plates can be easily fabricated and shaped to fit different equipment surfaces, including chutes, hoppers, excavator buckets, and conveyor systems. They are commonly used in industries such as mining, cement, steel, power generation, and recycling.

Benefits of using bimetal hardfacing wear plates include

1. Extended equipment life: These plates significantly increase the lifespan and durability of machinery, reducing maintenance and downtime costs.
2. Superior wear resistance: The high carbon or high chromium alloy layer provides excellent resistance against abrasion, erosion, and impact.
3. Easy installation and replacement: The plates can be easily welded or bolted onto equipment surfaces, and damaged plates can be quickly replaced.
4. Versatility: Bimetal hardfacing wear plates can be customized to fit different shapes and sizes, making them suitable for a wide range of applications.
5. Cost-effective: The extended lifespan of equipment and reduced maintenance requirements translate into cost savings for businesses.

Overall, bimetal hardfacing wear plates are a reliable and effective solution for protecting equipment and machinery in high-wear environments, ensuring optimal performance and longevity.

What Is the Process of Making Wear-Resistant Steel Plates?

• Quenching is the technique of rapidly cooling a substance or workpiece in water.
• Tempering, the process of heating the material to a higher temperature in air, is then used to treat it.
• The formation of crystalline structures in the material occurs when a piece is heated and quenched, and this is what improves the hardness of the metal.
• The reheating process breaks up the structures and the crystals that have formed, making the material malleable.
• It's the repetition that makes it hard, tough and difficult to break.
  

Key features

Placas Bimetalicas Antidesgaste

Placas bimetalicas al alto cromo (Cr)

Placas bimetalicas al cromo niobio (CrNb)

Placas bimetalicas al cromo niobio, vanadio, tungsteno (CrNbVW)

Placas ultraligeras tipo CCMAX de alta dureza y resistencia a abrasión/erosión