Single Product

Fiber Laser Source
The core of the machine, producing a high-power laser beam. Popular brands include IPG, Raycus, MAX, and nLIGHT.

Cutting Head
Focuses the laser beam precisely on the metal surface. Often equipped with auto-focus for different material thicknesses.

CNC Control System
Controls cutting paths, speed, and parameters using CAD/CAM software.

Machine Bed / Frame
A rigid structure designed to minimize vibration and ensure cutting accuracy.

Motion System
Includes servo motors, linear guides, and rack-and-pinion drives for smooth and precise movement.

Cooling System (Chiller)
Maintains stable operating temperature for the laser source and cutting head.

Assist Gas System
Supplies oxygen, nitrogen, or compressed air to improve cut quality.

Materials That Can Be Cut

Fiber laser cutting machines are suitable for a wide range of metals, including:

• Carbon steel

• Stainless steel

• Aluminum and aluminum alloys

• Brass

• Copper

• Galvanized steel

• Titanium

  Key Features

  • High Precision and Accuracy
    Tolerances can reach ±0.02 mm, ideal for fine and complex designs.

  • High Cutting Speed
    Faster than CO₂ lasers, especially for thin and medium-thickness metals.

  • Low Operating Cost
    High electrical efficiency (up to 30–40%) and minimal maintenance.

  • Long Service Life
    Fiber laser sources typically last over 100,000 hours.

  • Automation Ready
    Can be integrated with automatic loading/unloading systems.                           Power Range and Cutting Capacity

    Fiber laser machines are available in various power levels:

    • 1 kW – 3 kW: Thin sheet metal cutting

    • 4 kW – 6 kW: Medium thickness industrial applications

    • 8 kW – 20 kW+: Thick plate cutting and heavy-duty manufacturing

    Higher power allows faster cutting and thicker materials but increases cost.

    Applications

    Fiber laser metal cutting machines are widely used in:

    • Automotive manufacturing

    • Aerospace industry

    • Electrical cabinets and enclosures

    • Metal furniture and kitchen equipment

    • Construction and structural fabrication

    • Advertising and decorative metalwork

       Advantages Over Traditional Cutting Methods

      • No physical tool contact (no tool wear)

      • Narrow kerf and minimal material waste

      • Smooth edges with little or no secondary processing

      • Environmentally friendly with reduced noise and emissions