3-axis Galvo Scan Head

Features of Hans Scanner's 3-Axis Galvo Scan Heads

• Dynamic Z-Axis Focusing: Unlike standard Galvo scan heads, these systems boast an additional Z-axis for dynamic focusing, enabling precise laser control across a large, three-dimensional field of view.

• Dynamic Focusing Technology: These Galvo scan heads replace f-theta lenses with a translating focusing element. This allows for continuous adjustment of the focal point during scanning with a Galvo scan head, ensuring a consistently flat beam across the entire work area.

• Large Field Sizes & Small Spot Sizes: Perfect for applications demanding both broad coverage and intricate detail, Hans Scanner's 3-axis galvo scanner heads can achieve expansive fields up to 1000 x 1000 mm² while maintaining the ability to focus the laser down to a tiny Ø22 µm spot size.

• Manual & Motorized Control: Galvo scanner heads provide flexibility for setting working distance and fine-tuning focus during scanning.

• Laser Compatibility: Available with mirrors optimized for Nd: YAG (1064 nm) or CO2 (10.6 µm) lasers.

• Compact Design Options: The Galvo scanner head integrates well into space-limited environments like workstations and assembly lines.

Hansscanner 3-Axis Galvo Scan Heads – For Laser Application

SLM 3D printing technology is gradually penetrating into the aerospace, automotive and mold industries, etc. For large-size workpiece, it is urgent to solve the problems of large size and processing efficiency. Customized double-head large-format 3D metal printing system is an ideal solution.  Integrated two sets of full digital grating galvanometer, high precision, small drift, maximum withstand 1500W laser power, built-in water cooling, to ensure stability.  The laser input is integrated with a high power protection mirror to prevent dust and moisture, and prevent the risk of damage to the high power mirror.

What Are The Differences Between 3-Axis

The 3d dynamic scanning focusing technology is the core part of the galvanometer scanning laser marking control system. A dynamic focusing mirror is added in front of the common focusing lens, and the front and back positions of the dynamic focusing mirror are changed with the different scanning positions. The focus compensation is realized by fine-tuning the distance between the dynamic focusing mirror and the focusing mirror.  The spot diameter of the laser beam far away from the origin is the same as that of the origin again to ensure the accuracy of focusing on the scanning plane, and then focus on the workpiece to be marked after scanning by X and Y galvanometer.  By using X, Y galvanometers and Z lens to form three-dimensional focusing technology, the problem that the focal spot on the marking plane becomes larger and the marking line width is different is solved because the focal plane of the laser beam passing through the focusing mirror is spherical while the workpiece surface is planar.