LSE Series
Quantity
Laser Scanners
The LSE series utilizes time-of-flight (ToF) method using infrared lasers to accurately detect object presence within a 5.6 m x 5.6 m detection area (90˚). The scanners offer 4 separate laser beam channels which can be activated individually or simultaneously depending on detection requirements. The units can also set concentrated monitoring areas and non-detection areas for flexible application in diverse environments. The LSE series can be configured and monitored on PCs using the dedicated software, atLidar. Users can also configure and manage the units using the provided infrared remote control.
Main features
The LSE series utilizes time-of-flight (ToF) method using infrared lasers to accurately detect object presence within a 5.6 m x 5.6 m detection area (90˚). The scanners offer 4 separate laser beam channels which can be activated individually or simultaneously depending on detection requirements. The units can also set concentrated monitoring areas and non-detection areas for flexible application in diverse environments. The LSE series can be configured and monitored on PCs using the dedicated software, atLidar. Users can also configure and manage the units using the provided infrared remote control.
Main features
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Activate multiple operation channels from channel 1 to channel 4
- Set detection area for each channel: from 0.3 m x 0.3 m to 5.6 m x 5.6 m
- Set concentrated monitoring area for each channel - Set minimum detection target size (size for each W x H x L: 5/10/15/20 cm)
- Parameter setting and real-time monitoring with ''atLidar'' laser scanner management software (Ethernet connection)
- Easy parameter settings using remote control(RMC-LS, sold separately)
- Laser property: Class 1, infrared laser (905 nm), max. output power: 75 W
- Compact size for easy installation (W 125 x H 80.3 x L 88 mm)
- IP67 protection structure (IEC standard)
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Korean Railway Standard compliant
* Korea patent pending: 10-2017-0086042, Korea patent: 10-1674062, China patent pending: 201680065367.9, Germany patent pending: 112016004753.3
