FLEET
we using best on the market aircraft
Long Range Fixed Wing UAV
The Albatross UAV can fly for up to four hours, has an MTOW of 10kg, and is flexible enough for us to add the appropriate equipment, making it perfect for network surveillance when towers are spread out.
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With the help of an integrated laser altimeter, this fixed-wing drone is completely self-contained from takeoff until landing. Because its software is open source, we have complete control over it.
We use a critical feature to attach network surveillance equipment and LiDAR on the platform, which is compatible with most commercially available payloads and sensors.
The Albatross is a fully autonomous electric fixed wing drone that features a modular design with interchangeable payload trays. It is completely customizable for all possible needs, with the ability to easily swap out avionics, sensors and other payloads as technologies advance or requirements change.
The easy-to-use system is designed to be launched as quickly as possible, with completely autonomous operation from takeoff to landing. Entirely battery-powered, the Albatross can travel over 100 miles with a top speed of 90 mph and features a flight endurance of up to five hours.
Wingspan
MTOW
Endurance
Range
Cruise Speed
Max Level Speed
3 m (9.8 ft)
10 kg (22 lbs)
up to 5 hours
100 km (62 miles)
18 m/s (40 mph)
40 m/s (90 mph)
TECHNOLOGY
LiDAR
LiDAR stands for ‘Light Detection and Ranging’ and is a type of active remote sensing technology. An active system is one that generates its own energy—in this example, light—in order to measure objects on the ground. Light is emitted from a rapidly firing laser in the LiDAR system. Imagine light strobing rapidly from a laser light source. This light travels to the earth, where it is reflected by structures and tree branches. The reflected light energy is subsequently collected and recorded by the LiDAR sensor. READ MORE
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Spectrum Analyzer
A spectrum analyzer shows the range of signal amplitudes at various frequencies. The most common application is to determine the strength of a spectrum of known and unknown signals. Given the difficulty of describing the behavior of today's RF devices, understanding how frequency, amplitude, and modulation parameters react across short and long-time intervals is essential. READ MORE
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Prediction
Using our automated system, we are able to analyze historic and current data for accurate forecasting of potential physical obstructions that will impact telecommunications.
Our system gathers data using its LiDAR on a regular (i.e., monthly) basis for further analysis and forecasting within our proprietary software. We identify possible physical barriers (e.g., trees) and assign them a risk rating based on their potential to disrupt or block internet signal in the near future
The Albatross’ highly aerodynamic fuselage has been designed not only for maximum usable space but also for highly efficient cooling, creating a pressure differential that pulls air through the structure. The wings consist of an optimized foil and a forward swept planform designed to ensure low stall speeds, high max efficiency and a large cruise window. Two built-in component bays allow for adequate separation of receivers, transmitters and GPS units. The inverted-V tail improves efficiency, decreases drag and is also naturally more stable in banked and coordinated turns.
Composite Airframe:
The Albatross UAV has a stylish and long-lasting composite frame made of carbon fiber and fiberglass.
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Four-hour Flight Time:
Albatross has the most efficient airframe of its kind.
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Modular Payloads:
The greatest mapping, surveillance, and NDVI cameras on the market are supported by the dedicated payload compartment and extremely adjustable setup.
