Our TruSense® S200 series sensors and Universal Laser Sensor (ULS) use eye-safe lidar pulses to gather accurate measurements and provide reliable target detection over long-ranges. Customizable programming and configuration options accommodate your application's needs.
Laser sensors bring advantages to several different fields.
By nature, non-contact measurement creates low maintenance benefits.
Contact-sensor alternatives invite exposure to various materials and often install at the bottom of large tanks. Meanwhile, non-contact sensors tend to be installed in easy-to-access areas that avoid material exposure.
Longer Device Lifespans
Avoiding contact with materials means that our sensors perform longer.
Less corrosion
LTI sensor installed at an easy-to-reach location.
Fewer build-ups/clogs
Easier to Keep Clean
Keeping a clean sensor is a best practice made easier by non-contact performance.
Less frequent cleaning required
Typically limited to removing some dust
Can often be completed via compressed air cans
Easier and Safer to Access
Contrary to contact sensors, our sensors are commonly located near or on a tank’s lid or hatch.
Thanks to the easier access that our sensors tend to create, some safety hazards can be eliminated.
Avoid workers coming into contact with materials
Remove the risk of injury from climbing into tanks, entering production machinery, etc.
High Accuracy
Integrators can expect high accuracies from all of LTI’s laser sensor options.
All of our non-contact, continuous measurement laser sensors offer high accuracy. In the general scope of applications, our Universal Laser Sensor’s (ULS) accuracy reigns supreme. However, our S300 series sensors are the better choice for industrial applications in liquid-level measurement, with typical accuracies of +/- 10 mm (.39 in) compared.
S200 Series typical Accuracy: 0.1 ft (4 cm) in short-range mode, 0.3 ft (8 cm) in medium-range mode, .5 ft (15 cm) in long-range mode
Laser Tech’s sensors offer considerable accuracy over long ranges
Laser Tech sensors for solids perform accurately within considerably wide ranges.
Longer ranges than alternatives make LTI sensors for solids advantageous for integration into aerial vehicle systems, extensive perimeter networks, and other applications expanding over large areas.
Reflective targets offer the highest max ranges for LTI laser sensors.
S200 Seriesmaximum range to reflective targets: 9,514 ft (2900 m) in low-accuracy mode, 4,921 ft (1500 m) in medium-accuracy mode
ULS maximum range to reflective targets: 5,249 ft (1600 m)
Non-reflective targets are still effective at significant ranges.
S200 Seriesmaximum range to non-reflective targets: 5,249 ft (1600 m) in low-accuracy mode, 2,953 ft (900 m) in medium-accuracy mode
ULS maximum range to non-reflective targets: 1,640 ft (500 m)
Lidar/Narrow Beams
The narrow beams created by lidar sensors have a few benefits to consider.
Lidar sensors can function in narrow environments
Our time-of-flight laser sensors use lidar. Some alternatives use radar, which casts a relatively wide and diffused energy beam.
Some applications may require a more focused beam to overcome structural obstacles.
Lidar beams grant the ability to shoot past/around physical obstructions
Narrow beams allow for more precise target assignment
Confined spaces are far more likely to avoid issues
The beam divergence tendencies of our different sensors are acute.
S200 seriesdivergence: 3 mrad (equal to 1 ft beam diameter @ 328 ft or 30 cm @ 100m)
ULSdivergence: 3 mrad (equal to 30 cm beam diameter @ 100 m (1 ft @ 328 ft)
Configuration Flexibility
Our engineers design LTI sensors to offer customizable and versatile programming.
LTI Laser sensors provide flexibility in configuring for all sorts of applications.
Different targeting modes available for both single and multiple targets
Our S200 series, S300 series, and Universal Laser Sensor (ULS) have their own targeting mode options.
Laser Tech’s sensors can be configured to your application’s needs
S200 series: First, strongest, last, first-second-third, last-second to last, first-strongest-last, first-second-third-strongest-last