
A 3D laser body scanner captures the full external geometry of a person or object by projecting a structured light pattern and recording the deformation with high‑resolution cameras. The resulting
Inquire NowA 3D laser body scanner captures the full external geometry of a person or object by projecting a structured light pattern and recording the deformation with high‑resolution cameras. The resulting point cloud provides millimeter‑level detail that can be used for ergonomic analysis, virtual fitting, or quality inspection without physical contact.
The scanner is built around a Class 2 laser line generator with a wavelength of 650 nm, delivering a scan width of up to 500 mm at a working distance of 800 mm. Frame rates reach 30 frames per second, enabling real‑time capture of dynamic poses while keeping power consumption below 15 W.
| Parameter | Typical Value |
|---|---|
| Laser Type | Class 2 line laser, 650 nm |
| Scan Width | Up to 500 mm |
| Working Distance | 800 mm ± 50 mm |
| Resolution (Z‑axis) | 0.2 mm |
| Frame Rate | 30 fps |
| Data Output | XYZ point cloud, PLY/OBJ format |
| Power Consumption | < 15 W |
| Operating Temperature | 0 °C – 40 °C |
The scanner uses a telecentric lens system that minimizes perspective error across the field of view, ensuring that dimensional accuracy remains consistent whether the subject is near the near or far edge of the scan volume.
Integrated motion compensation algorithms track subtle body movement during a scan, allowing the system to stitch frames without noticeable seams even when the subject sways slightly.
On‑board preprocessing reduces raw data volume by 70 % before transmission, lowering bandwidth requirements for connection to a standard gigabit Ethernet link.

In apparel manufacturing, the scanner provides a rapid method to capture torso and limb dimensions for creating size‑specific patterns, reducing the need for manual tape measurements and associated operator variability.
Ergonomics labs employ the device to quantify posture changes during simulated work tasks, delivering repeatable surface data that feeds directly into digital human models for risk assessment.
Quality control stations use the scanner to compare finished parts against CAD nominals, detecting surface deviations greater than 0.5 mm without the need for tactile probes that could mar soft materials.
The operator positions the subject within the marked scan zone, initiates capture via a foot‑switch or software trigger, and the laser line sweeps across the body while two synchronized cameras record the reflected pattern at 30 fps.
Each frame yields a depth map that is fused into a cohesive point cloud using iterative closest point registration; the entire process from start to usable mesh typically completes within 8 seconds for a full‑body scan.
The scanner ships with a SDK that provides C++ and Python APIs for real‑time stream access, enabling developers to embed measurement functions into existing MES or PLM platforms without licensing a separate middleware layer.
Output formats include ASCII PLY, binary OBJ, and a custom compressed binary stream; users can select the format that best matches their downstream processing pipeline via a simple configuration file.
Working distance can be adjusted by exchanging the front lens module; available alternatives shift the optimal range to 600 mm or 1000 mm while preserving the same laser power and resolution specifications.
Laser power settings are software‑configurable from 1 mW to 5 mW, allowing adaptation for highly reflective surfaces or environments with stringent eye‑safety requirements.
Enclosure materials include ABS‑based plastic for lightweight portable units or aluminum‑alloy for rugged industrial installations; both options provide IP54 protection against dust and moisture.
Each unit undergoes a factory acceptance test where a calibrated reference artifact with known geometry is scanned; the measured deviation must remain within ±0.1 mm across the full scan width before the device is cleared for shipment.
Firmware includes built‑in diagnostics that monitor laser stability, camera frame integrity, and temperature drift; any out‑of‑tolerance condition triggers a fault code visible in the software status bar.
Yes, the software allows definition of a rectangular region of interest; points outside this box are discarded during processing, which reduces file size and focuses computation on the relevant anatomy.
The scanner exports PLY and OBJ, both of which import directly into SolidWorks, Fusion 360, and CATIA via standard mesh‑to‑surface tools; additional converters for STL are available upon request.
The laser operates at Class 2 limits (< 1 mW visible output) and the beam is expanded into a line, reducing irradiance to levels that require only standard protective eyewear for prolonged exposure, in accordance with IEC 60825‑1.
If you have specific requirements for scan speed, enclosure type, or software integration, please reach out to our engineering team to explore a configuration that matches your production environment.
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