Surface Parts Additive Manufacturing
Additive manufacturing of flat parts
Additive manufacturing of shaft components
High material utilization rate and low overall cost; The dilution rate is extremely low, the coating composition is stable, and the performance does not deteriorate.
One click use, modular integration, intelligent industrial control full automation
Suitable for cladding processing of various materials including stainless steel, copper alloys, nickel-based alloys, cobalt-based alloys, and titanium alloys.
The low thermal input further reduces the deformation of the laser cladding process, which can be used for remanufacturing or new production of shaft, plane and curved parts
High melting efficiency, flexible and adjustable thickness and width in a single molding process, meeting the needs of ultra-thin layer precision coating and large-area rapid repair.
One click generation of processing paths, easy to operate, no need for professional programmers, quick to get started.
order number | unit type | parameter |
1 | Forming dimensions (mm) | 600×400*300(W x D x H) |
2 | Additive manufacturing method | LENS laser near-net-shape forming technology |
3 | Subtractive manufacturing method | AC CMM (CMM) Five-axis machining center (X, Y, Z, A, C) |
4 | Additive laser power (W) | 6000 |
5 | lift height | 0.1mm~2.0mm Continuous adjustment |
6 | Print Precision | 0.1mm |
7 | print out rate | 500-2000g/h |
8 | molding material | Various carbon steel, stainless steel, nickel-based, cobalt-based alloys, and aluminum alloy materials |
9 | Spindle cutting speed (r/min) | 12000 |
10 | Cut thickness (mm) | 0-100 Adjust according to material and thickness |
11 | Workbench load (kg) | 500 |
12 | navar | Self-developed ProAM 3D printing control system |
13 | Supplementary software | Self-developed ProLC automatic programming software |
14 | Total equipment weight (T) | ≈6 |
15 | Device transportation method | Forklift & truck handling |
16 | Device size (mm) | Approximately 2550*2400*2750 |
