Wholesale Laser Body Scanner
A laser body scanner captures the three‑dimensional shape of an object by projecting a laser line or pattern and measuring the deformation of that pattern with a camera system. The resulting point
Inquire NowWholesale Laser Body Scanner
A laser body scanner captures the three‑dimensional shape of an object by projecting a laser line or pattern and measuring the deformation of that pattern with a camera system. The resulting point cloud provides dimensional data for inspection, reverse engineering, or robotic guidance without physical contact.
Operating Principle
The scanner utilizes laser triangulation: a laser diode emits a narrow stripe onto the target, while a CMOS sensor positioned at a known angle records the stripe’s displacement. By knowing the baseline between emitter and sensor and the lens focal length, the system calculates depth for each pixel, generating a dense mesh of points.
Typical scan rates range from 10 kHz to 100 kHz depending on resolution and laser power, allowing real‑time monitoring of moving parts on a production line. The working distance can be adjusted from 100 mm to 2000 mm by changing lens optics, and the field of view scales proportionally.
Key Technical Specifications
| Parameter | Typical Value / Range |
|---|---|
| Laser wavelength | 650 nm (red) or 850 nm (IR) – selectable |
| Scan rate | 10 kHz – 100 kHz (configurable) |
| Resolution (Z) | 0.02 mm – 0.2 mm depending on distance and optics |
| Working distance | 100 mm – 2000 mm (lens interchangeable) |
| Field of view (at 500 mm) | 50 mm × 50 mm – 200 mm × 200 mm (lens dependent) |
| Interface | GigE Vision, USB3.0, or Ethernet/IP |
| Enclosure rating | IP65 (dust‑tight, low‑pressure water jets) |
| Power consumption | 5 W – 15 W (depending on laser class) |
Typical Applications
In automotive body‑in‑white assembly, the scanner verifies panel gaps and flushness before welding, reducing rework caused by misaligned stampings. The non‑contact nature prevents surface damage on painted or coated panels.
For aerospace composite layup, the device maps contour deviations of large skin sections, enabling automated fiber placement heads to adjust tape tension in real time, which improves laminate quality and reduces void formation.
In heavy‑equipment manufacturing, laser body scanners inspect large castings for dimensional stability after heat treatment, providing quantitative data for straightening presses and minimizing scrap rates.
Design and Construction
The housing is extruded aluminum with anodized finish, providing rigidity while keeping mass under 2 kg for easy mounting on robotic arms or gantries. Optical components are sealed with O‑rings and housed in a nitrogen‑purged chamber to prevent condensation during temperature cycling.
Electronic boards conform to IPC‑Class 2 standards, with conformal coating to resist humidity and particulate ingress. Cable glands meet IP65 specifications, and the unit includes M12‑type connectors for power and data, facilitating quick disconnect in harsh environments.
Customization Options
- Laser power class (Class 2, Class 3R) adjusted for safety zone requirements
- Interchangeable lenses to modify working distance and field of view
- Optional integrated lighting for low‑reflectivity surfaces
- Choice of output protocols: GigE Vision, USB3.0, PROFINET, EtherCAT
- Firmware presets for specific inspection routines (gap, flush, radius)
Quality Assurance
Each scanner undergoes a three‑step verification: first, laser power and wavelength are measured with a calibrated power meter; second, triangulation accuracy is tested against a certified gauge block array at multiple distances; third, environmental sealing is confirmed via IP65 spray and dust chamber tests.
Traceability is maintained by recording serial numbers, test data, and operator IDs in a Manufacturing Execution System, allowing retrieval of calibration history for audit purposes.
Frequently Asked Questions
Yes, the scanner’s firmware allows software‑based adjustment of line frequency and exposure time within the laser’s safety limits.
We need the target material reflectivity, desired working distance, required resolution, and any integration constraints such as mounting interface or environmental exposure.
Lenses are mounted in a threaded barrel and can be swapped in the field using the supplied wrench; recalibration is advised after each change.
Each unit receives a random sample test of 1 % of lot size, measuring Z‑accuracy against a traceable artifact; results are logged and available upon request.
Units are placed in anti‑static bags, then secured in double‑wall corrugated boxes with foam inserts; shock indicators are included to detect mishandling.
Ready to Discuss Your Requirements?
If you need a laser body scanner configured for a specific inspection task, please reach out with your application details. Our engineering team will review the parameters and provide a tailored quotation, including lead time and optional accessories.
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