Coaxial Multi-Laser Hybrid Technology
The coaxial multi-laser hybrid additive manufacturing system integrates six fully independent laser modules with an arc heat source, with six-channel powder/wire feeding systems. This achieves triple hybridization: multi-wavelength laser fusion, laser-arc synergy, and wire-powder combination. The system enables cutting-edge DED applications including functionally graded materials, in-situ alloying additive manufacturing, high-throughput material development, and microstructure control. It simultaneously addresses industrial requirements by enhancing material compatibility, deposition efficiency, part accuracy, performance, and geometric complexity in DED engineering applications.
| CML-Hybrid-1500DF-ARC | |||
| Rated Power Output | 1500W | Maximum wire heating current | undefined |
| Number of Lasers | 6, individually controlled | Deposition efficiency | undefined |
| Powder Feed Channels | 6, individually controlled | Deposition head dimensions | 210 x 262 x 730 mm |
| AM Process | CML/CML-Hybrid | Deposition head weight | undefined |
| Laser Wavelengths | 915 nm x 3 + 450 nm x 3 | Wire diameter | 0.8 - 2.0 mm |
| Spot Diameter | Φ 2 mm | Powder particle size | 20 - 300 μm |
01 Multi-Wavelength Coaxial Laser
• Fully independently controlled six laser modules enable multi-wavelength coaxial hybrid laser output.
• By combining typical wavelengths (e.g., red-blue hybrid), it broadens material compatibility, enhances absorption for reflective metals and remains cost-effective.
02 Laser-Arc Coaxial Hybrid
• Independently controlled laser-arc hybrid heat source enhances additive efficiency, component performance, and structural complexity.
• By alternating between the two processes, it combines laser precision with arc deposition efficiency, making it ideal for large-scale, geometrically complex metal additive manufacturing while ensuring high productivity and superior quality.
03 Wire-Powder Coaxial Hybrid
• The system combines wire feeding with six fully independent powder delivery channels to achieve independently controlled simultaneous wire-powder additive manufacturing.
• It enables highly flexible material ratio adjustment for rapid development of variable-composition gradient materials, nanoparticle-reinforced materials, and meets the high-throughput preparation requirements for new material development.
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