Showcase your capabilities
If you design, build or supply Laser Rangefinders, create a profile to showcase your capabilities and connect with visitors who have an active requirement for your solutions.
Suppliers: Laser Rangefinders
DAT-CON
Fully Integrated Security Solutions & Surveillance Systems for Counter-UAS Applications
Gold Partner
Analog Modules, Inc.
Laser Electronics & Sensor Modules for UAVs, Unmanned Platforms & Counter-UAS Systems
Gold Partner
ARK Electronics
Cutting-Edge Flight Controllers, Sensors, and Other Electronics Technologies for Drones & Robotics
Silver Partner
Products
Laser Rangefinders
Rangefinder Technology for Unmanned Systems
Laser rangefinders (LRFs) are used by drones and unmanned systems to determine the distance to a particular target or object of interest. They typically calculate distance via the time-of-flight principle, which measures the time taken for a pulse to be reflected from a distant object, or by measuring the phase shift of reflected light at multiple frequencies.
UAV rangefinders can be used for a variety of unmanned vehicle applications, and are often incorporated into drone gimbals along with cameras to aid in applications such as surveying, asset inspection and military reconnaissance. They may also be used in conjunction with thermal cameras to measure the distance to fires. Some rangefinders can be integrated with GNSS/GPS and GIS data capture for precise mapping.
Precision Flight & Navigation
In addition, LRF can also be used to aid unmanned vehicle flight and navigation. Altitude measurement by a downwards-pointing laser rangefinder is useful for precision takeoff and landing, as well as terrain-following and distance-keeping. Different surfaces and materials provide different levels of laser absorption and reflection, so laser rangefinders that measure the strength of the reflected beam can be used to determine when UAVs are flying over particular surfaces such as ice.
Rangefinder technology can also provide information for self-driving vehicles, as well as mapping systems that use SLAM (simultaneous localization and mapping) to navigate indoors and in GPS-denied environments such as underground caves and mines.
