

Customer Needs
Due to the current primary methods of secondary processing for structural steel being manual cutting and drilling, large components are mainly produced through plate assembly welding. In the process of welding and processing steel, after the cutting process, assembly is carried out. Therefore, the entire process is characterized by low efficiency, cumbersome manual operations, and poor precision. However, a new technology is coming to solve the problems.
Product Description
As specialized processing equipment for structural steel, this product is suitable for the three-dimensional cutting of various profiles in the steel structure industry (such as H-beams, channel steel, angle steel, and T-beams). It is widely used in the processing industry of steel components, such as various large-span industrial plants and prefabricated buildings in the steel structure industry, engineering machinery, the power industry, the shipbuilding (ship frame) industry, the iron and steel industry, the road and bridge industry, as well as warehousing and heavy equipment.
Adaptive position deviation and shape deviation of workpiece, good bevel consistency
The production line is connected to the front-end and back-end processes to achieve decelaration and stopping through roller conveyor. It does not require precise servo control and mechanical clamping positioning
Achieving efficient cutting of bevels and special shaped sections of various parts;
No need for offline programming or robot teaching;
It supports multi-industry drawing analysis, including dxf, step, gen and spd.
The system automatically matches workpiece and drawing information, and there is no need to adjust the order the order of workpieces and drawing while importing all the drawings.
Extended Functions





Industry Application
Intelligent equipment for laser cutting of structural steel is primarily applied in the steel structure industry, demonstrating excellent processing results for I-beams, H-beams, channel steel, and angle steel. It can achieve beveling, cutting, punching, and marking processing for the flange and web of H-beams, and can perform rootless cutting for overwelding holes or locked joints. Automated equipment can be integrated with assembly welding equipment to form an automatic steel processing line, reducing labor and significantly enhancing the efficiency of steel processing.

Case Study

| Project | Technical Parameters | |
| Basic Parameters | Laser Power | 6000-12000W |
| Focal Length | F250 with automatic focusing adjustment | |
| CNC System | FARLEY | |
| Display Screen | 23.6-inch touch screen (supporting mouse operation) | |
| Processed Profile Types | H-beams, channel steels, angle steels, etc. | |
| Functions | Special-shaped end cutting and bevel cutting | |
| System Composition | Robot System | Side-mounted Robot + Gantry 7th Axis |
| Positioning System | Structured Light Industrial 3D Camera | |
| Workpiece Conveyance | Roller Conveyor | |
| Waste Disposal | Automatic Slag Removal Machine | |
| Processing Capability | Profile Dimension for Steel Processing | Width H≤1000mm |
| Height B≤500mm | ||
| Length L≤12000mm | ||
| Cutting Thickness (Carbon Steel O2) | Maximum Vertical Cutting:20mm | |
| Bevel Cutting Range | 0-45° bevel | |
| Robot Parameters | FANUC Robot Arm Span | 1650mm |
| Robot Load Capacity | 10kg | |
| Seventh Axis Travel | 2500mm | |
| Robot Positioning Accuracy | 0.1mm | |
| Visual Positioning Accuracy | 0.1mm | |
| Linked Positioning Speed | 60m/min | |