Metal Tube Processing Equipment
Automated Laser Scanning 3D Inspection Equipment
  • Automated Laser Scanning 3D Inspection Equipment
  • Automated Laser Scanning 3D Inspection Equipment

    • Automated Laser Scanning 3D Inspection Equipment

    High-speed 3D laser scanner with robotic arm for complex metal components in automotive and industrial applications

    3D laser scanning systems are used to capture the full surface geometry of metal parts with high accuracy. The 3D laser scanning and inspection system combines a laser scanner with a robotic arm and servo-driven motion, allowing complex parts to be scanned automatically as the robot follows a preset path. This setup enables continuous, real-time data capture, which is especially useful for checking shape accuracy and surface consistency on automotive and industrial components.

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    Features
    Parameter Standard Mode Detailed Mode
    Data acquisition rate 2,650,000 measurements/s 1,680,000 measurements/s
    Laser projection 22 blue laser lines + 1 deep-hole scanning line + 7 detail scanning lines 22 blue laser lines + 1 deep-hole scanning line + 7 detail scanning lines
    Laser safety class Class 2 (eye-safe) Class 2 (eye-safe)
    Resolution (point spacing) Up to 0.02 m Up to 0.02 m
    Accuracy Up to 0.02 mm /
    Volumetric accuracy 0.015 + 0.035 mm/m /
    Volumetric accuracy (with PhotoShot) 0.015 + 0.015 mm/m /
    Hole position accuracy Up to 0.03 mm /
    Hole position volumetric accuracy 0.025 + 0.035 mm/m /
    Maximum depth of field 550 mm 550 mm
    Scanner head weight 1 kg 1 kg
    Data interface USB 3.0 USB 3.0
    Operating temperature −20 to 40°C −20 to 40°C
    Maximum working range Ø 2605 mm Ø 2605 mm
    Metal Tube Processing Equipment

    To determine the bending speed, it's necessary to consider the tube diameter, material, hardness, and wall thickness. Softer or thin-walled tubes are normally bent at a slower speed, so the tube does not lose its shape during bending. Heavy or harder tubes are more stable and can be bent more quickly without losing their shape. In most cases, the number of axes on a tube bending machine is determined by the complexity of the tubes that need to be processed. For small-diameter tubes with simple bends, 3- or 4-axis machines are usually enough. If the tube diameter is larger or if the bending geometry is complex, such as side or inclined bends, 5-axis bending machines or higher configurations usually provide better control and help maintain both shape and strength.

    Planning an automated tube processing line starts with understanding the tube material, part geometry, and production volume. When planning a tube processing line, it is important to consider the process flow, equipment compatibility, automation level, and quality control. A good tube processing line has a suitable balance between flexibility and efficiency, focusing on what is actually needed for tube production instead of adding complexity that does not add real value.