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Suppliers: LWIR Cameras
Trakka Systems
Multi-Sensor Imaging Gimbals, Searchlights and VMS Software for Air, Land & Maritime Platforms
Platinum Partner
Trillium Engineering
UAV Gimbal Payloads - EO & EO/IR Drone Camera Gimbals for Tactical UAS
Platinum Partner
DAT-CON
Fully Integrated Security Solutions & Surveillance Systems for Counter-UAS Applications
Gold Partner
Sentera Sensors & Drones
High-Performance Remote Sensing Solutions for Delivering Accurate Aerial Insights
Gold Partner
Redwire
Long-Endurance Fixed-Wing & Hybrid VTOL UAVs | UAV Payload Camera Systems | Power Systems
Gold Partner
CACI International
Software-Enabled Gyro-Stabilized Gimbal Systems for UAVs, Unmanned Systems, & Counter-Drone Applications
Gold Partner
Noxant
High-Performance Infrared Cameras & Cores for Surveillance & Monitoring with Drones & Robotics
Gold Partner
Velox by Nanomotion
Miniature Two-Axis Gyro-Stabilized EO/IR Payloads for Commercial & Defense Applications
Gold Partner
Blitz Technology
UAV Gimbal Payloads & Video Processing Solutions – Multi-Sensor EO/IR Drone Camera Solutions
Gold Partner
Leonardo DRS
Cutting-Edge Electro-Optical & Infrared Imaging Gimbals for Advanced UAV ISR & Targeting
Silver Partner
Overwatch Imaging
Advanced Imaging & Sensor Autonomy for Time-Critical Airborne Intelligence Missions
Silver Partner
Products
LWIR Cameras & Long-Wave Infrared Sensors for UAVs
LWIR (long-wave infrared) cameras are thermal imaging devices that function within the 8 to 14-micron wavelength band of the electromagnetic spectrum, and detect infrared radiation naturally emitted by objects, rather than reflected light. This capability enables precise thermal visualization under total darkness, dense smoke, or environmental obstructions such as fog and dust, conditions that regularly compromise the performance of visible-spectrum cameras.
NoxCam-Pola Infrared Camera by Noxant
A wide variety of unmanned systems applications utilize the capabilities of long wave infrared cameras to achieve enhanced situational awareness. Whether used in small tactical drones, long-endurance ISR (intelligence, surveillance, and reconnaissance) UAVs, UGVs, or USVs (unmanned surface vessels), LWIR imaging plays a central role in navigation, targeting, threat detection, and environmental analysis.
Applications of LWIR Cameras for Drones & Robotics
LWIR cameras extend the operational capabilities of drones and robotics far beyond what is possible with traditional visible-spectrum imaging. Their ability to identify thermal signatures allows unmanned systems to operate effectively in degraded visual environments, expanding mission scope and survivability. For drone and UAV operations, these thermal sensors support tasks such as infrastructure inspection, search and rescue, perimeter monitoring, wildfire response, and industrial safety.
UAVs
TrakkaBeam TLXc by Trakka Systems
For unmanned aerial systems, LWIR sensors are integrated into EO/IR gimbals, fixed forward-looking installations, or modular payload bays. Tactical drones employ these cameras for surveillance, reconnaissance, and threat monitoring, providing real-time thermal data to operators or onboard computing systems. In ISR missions, cooled LWIR cameras are favored for their ability to detect distant heat signatures, making them vital for border patrol, early-warning systems, and counter-insurgency operations.
Smaller multirotor drones often use uncooled LWIR modules for rapid thermal mapping, rooftop inspections, fire monitoring, and life-sign detection in disaster zones. These lightweight sensors enable compact UAVs to conduct detailed surveys of energy infrastructure, locate survivors in SAR (search and rescue) operations, and support first responders in challenging urban or forested environments.
UGVs
In unmanned ground vehicles, long wave infrared cameras enhance terrain navigation and obstacle detection, particularly in night-time or GPS-denied conditions. They are commonly mounted as forward-looking sensors or perimeter monitors on robotic platforms used for perimeter security, route clearance, and mine detection. Cooled LWIR systems assist in identifying thermal anomalies beneath surfaces or behind barriers, capabilities essential for EOD (explosive ordnance disposal) and counter-IED (improvised explosive device) tasks.
Smaller UGVs and robotic sentries equipped with uncooled LWIR sensors support persistent surveillance, facility monitoring, and patrol functions without the need for artificial illumination, minimizing detectability and power consumption.
Maritime Platforms
For maritime systems such as USVs operating in coastal or low-visibility maritime environments, LWIR cameras provide critical imaging capabilities in situations where moisture, low light, and variable temperatures may challenge standard sensors. Thermal imaging allows for detection of human presence in water, identification of heat-emitting vessels, and monitoring of infrastructure such as offshore platforms and undersea pipelines.
Cooled vs Uncooled LWIR Cameras
LWIR sensors are broadly divided into cooled and uncooled technologies, each suited to different mission requirements. Cooled LWIR cameras use cryogenic detectors such as mercury cadmium telluride (MCT) or indium antimonide (InSb) to minimize thermal noise, enabling extremely high sensitivity and long-range detection. This performance makes them ideal for high-altitude surveillance, defense, and scientific imaging, though their refrigeration systems increase size, cost, and maintenance requirements.
Uncooled LWIR cameras use microbolometer sensors made from vanadium oxide (VOx) or amorphous silicon (a-Si). These sensors operate without active cooling, enabling compact, rugged, and lower-power systems suited to drones, autonomous robots, inspection platforms, and long-duration unmanned missions.
Technical Innovations and System Integration
Recent advances in LWIR sensor design have enabled lighter, more compact units with enhanced onboard processing, increased frame rates, and smart analytics. These improvements facilitate seamless integration into UAV autopilots, robotic navigation suites, and multi-sensor payloads. Real-time image stabilization, object recognition, and thermal tracking algorithms allow autonomous platforms to classify targets, adjust paths dynamically, and operate safely in congested or hostile environments.
Interface compatibility with Gigabit Ethernet, MIPI CSI-2, or USB 3.0 ensures fast data throughput, while robust environmental housings protect optics from the levels of vibration and shock and extreme temperature fluctuations found in many environments.
