
Laser wire melting technology is a new material layer that uses a high-energy laser beam to precisely melt metal wire and deposit it on the surface of the workpiece. After rapid solidification, it forms a metallurgical bond on the surface of the workpiece. Compared with traditional processes such as fuse surfacing, laser fuse technology has significant advantages: Firstly, it effectively controls the deformation of the workpiece, and local heating reduces the heat-affected zone, ensuring dimensional accuracy. Meanwhile, rapid cooling refines the grain structure, enhancing the mechanical properties and wear resistance of the material. Second, it significantly enhances the bonding strength between the alloy layer and the substrate, achieving good metallurgical bonding and improving the overall strength and durability of the workpiece. Thirdly, high-precision deposition and shape control reduce the demand for later machining, improve material utilization rate and lower processing costs. Fourth, the laser filament process is clean and environmentally friendly, without generating harmful waste gas or residue, and meets the standards of green manufacturing.
In conclusion, Guosheng's laser fuse processing technology performs outstandingly in controlling deformation, refining grains, enhancing bonding strength, improving material utilization rate and environmental friendliness, making it the preferred technology for modern manufacturing.
Master the core technology of laser material thermal processing

Provide efficient laser fuse processing technical services nationwide

A database of laser additive manufacturing processes for various high-performance alloy materials has been exhausted

The cost of the fuse can be reduced to be comparable to that of hard chromium plating, offering a higher cost performance

Our professional process technology team can collaborate to develop and research new processes

Equipped with advanced facilities and a professional team, we can meet customers' delivery time requirements
Achieve a tight metallurgical bond between the cladding layer and the substrate
• Metallurgical Bonding:Utilize the high energy density of laser beams to achieve tight metallurgical bonding between the cladding layer and the substrate, ensuring the strength and durability of the repaired area.
• Precise Control:Precisely control the thickness, composition and shape of the cladding layer by adjusting laser parameters to meet complex repair requirements.
• Wear and Corrosion Resistance:The alloy elements of the cladding layer are optimized to significantly improve the wear and corrosion resistance of parts and extend their service life.
• High Efficiency and Environmental Protection:Fast heating and cooling rates result in high production efficiency, and the process is pollution-free, complying with the requirements of green manufacturing.
• Wide Applicability:It can be used for repairing parts with complex shapes, such as deep holes, grooves, etc., with a wide range of applications.
• Minimal Deformation:Low heat input leads to minimal workpiece deformation, ensuring the precision and dimensional stability of parts after repair.
• High Automation:High integration level makes it easy to realize automated production, reducing operational difficulty and improving production efficiency.

Meet customers' higher demands for advanced manufacturing technologies
Master the core technology of metal 3D printing additive manufacturing
Possessing profound R&D capabilities and rich application experience