The SCANLAB INTELLISCANDE III14-532NM is a high-precision galvanometer-based laser scan head optimized for 532 nm green laser applications. This compact scanning system integrates advanced iDRIVE control electronics and digital servo technology to deliver exceptional speed, accuracy, and stability for laser marking, cutting, welding, and micromachining.
The scan head features a 14 mm optical aperture with specially coated optics for 532 nm wavelength, ensuring high laser transmission and durability. The galvanometer drives utilize low-inertia mirrors and iDRIVE digital control algorithms, achieving step response times as low as 0.15 ms and tracking errors less than ±2 μm for precise beam positioning.
Operating at 532 nm with a maximum output power of 10 W, the system supports pulse repetition frequencies up to 100 kHz. The maximum scan speed reaches 8000 mm/s, with positioning accuracy better than 1 μm and repeatability of ±2 μm. The scan head accepts 24 V DC power, consuming less than 20 W, and operates within a temperature range of -20°C to +60°C.
Wavelength: 532 nm (green laser)
Aperture Size: 14 mm
Scan Angle: ±14° (max ±90° with optional optics)
Scan Speed: Up to 8000 mm/s (positioning speed: 5.0 m/s)
Resolution: 16-bit
Repeat Accuracy: ±2 μm (tracking error: < 0.15 ms)
Communication Protocols: EtherCAT, PROFINET, XY2-100 digital interface
Protection Rating: IP20

The INTELLISCANDE III14-532NM is ideal for laser marking, cutting, engraving, welding, and micromachining applications in electronics, automotive, medical device, and aerospace industries. It handles materials including metals, plastics, ceramics, and semiconductors, with high-speed dynamic performance suitable for high-volume production environments.
Built-in diagnostic functions monitor mirror position, velocity, drive current, supply voltage, and internal temperature in real time. Remote diagnostic capabilities allow querying of cumulative operating hours, serial numbers, and manufacturing dates via software, enabling predictive maintenance and minimizing unplanned downtime.



