Laser Cladding Powders Alloy Powder Thermal Spay Powder Stainless Steel

Alloy powder for laser cladding is generally used for powder welding of smaller parts with good corrosion resistance and excellent mechanical properties, good welding performance, widely used in daily necessities, aviation, aerospace, precision molds and other industrial fields. Our powder can help you produce a smooth and precise surface when welding. Use our reliable laser cladding powder to improve your productivity.

Laser Cladding Powders Alloy Powder Thermal Spay Powder Stainless Steel

Specification

Material	Melting hardness	General laser/high-speed laser	Performance Profile
2209	HRC20	53-150um/15-53um	Duplex stainless steel for surface corrosion protection coating
304L	HRC15-18	53-150um/15-53um	Austenitic stainless steel for surface coating for corrosion protection
316L	HRC15-18	53-150um/15-53um	Austenitic stainless steel for surface coating for corrosion protection
310S	HRC15-18	53-150um/15-53um	For anticorrosive coating of surfaces
420	HRC45-50	53-150um/15-53um	Wear-resistant and corrosion-resistant, salt spray-resistant 1000H, used for piston rods, cylinders, hydraulic rods restoration
430	HRC48-53	53-150um/15-53um	Hydrogen sulfide gas corrosion resistant shafts
440	HRC53-57	53-150um/15-53um	Hydrogen sulfide gas corrosion resistant shafts
KTL105	HRC50-55	53-150um/15-53um	Wear-resistant and corrosion-resistant, used for piston rods, cylinders, hydraulic rods restoration
KTL108	HRC50-55	53-150um/15-53um	Wear-resistant and corrosion-resistant, used for piston rods, cylinders, hydraulic rods restoration
17-4PH	HRC38-40	53-150um/15-53um	Martensitic stainless steel, corrosion resistance with 304, 430
15-5PH	HRC38-40	53-150um/15-53um	Martensitic stainless steel, corrosion resistance with 304, 430

What is Laser Cladding?

Laser Cladding is an advanced surface modification technology, widely used in aerospace, automotive, energy and mold industries. During the laser cladding process, the high energy provided by the laser beam rapidly melts the powder and deposits it onto the substrate surface, forming a strong bond with the substrate. This creates a high-quality protective or repair layer. The advantages of this surface treatment method include achieving thinner, more uniform coatings and reducing the thermal impact on the substrate. It is well-suited for enhancing component performance and extending service life.

Advantages

1. Strong corrosion resistance, preventing corrosion and degradation of materials.

2. High hardness and abrasion resistance, which can extend the life of parts and reduce maintenance costs

3. Reduced heat-affected zone, which maintains the original properties and strength of the substrate.

4. Thin layer coating and uniformity, obtaining thinner and more uniform coating

5. High adhesion, preventing the coating from peeling off or stripping, ensuring long-term stability of performance.

6. Simple and effective for smaller parts

7. Environmentally friendly, replacing traditional surface treatment methods, reducing waste and pollutant emissions.

Applications

Energy Industry: Repair and protect oil, gas, and power equipment.
Mold Manufacturing: Reduces wear and enhances surface hardness and durability.
Automotive Manufacturing: Surface repair and modification for transmission systems and engine components.
Aerospace: Improves wear resistance and corrosion resistance of aircraft components.
Metallurgy: Enhances the ability of metallurgical equipment to resist high temperatures and corrosion.
Chemical Industry: Increases the capability of chemical equipment to withstand harsh chemical environments.
Mechanical Processing: Repairs and modifies the surfaces of mechanical components, improving processing precision and durability.