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HANGAR TALK UNMANNED News relating to unmanned aerial systems


rapid deployment and launch (in less than one minute) from any combat vehicle, transforming it into an effective intelligence gathering platform.


The Magni system includes a thermal payload, a communications suite (dual S band or LTE), an automatic coordinate tracking capability, as well as a built-in interface with battle management systems (BMS). Carrying up to 350 grams of payloads, it offers a range of up to 3 kilometers, a maximum operational altitude of 4,000 feet, and 30 minutes of endurance.


Elbit Systems Introduces Magni, a Vehicle-Launched Multi- Rotor Micro-Drone


Elbit Systems recently launched Magni, a fully autonomous and robust multi-rotor vertical takeoff and landing (VTOL) unmanned aerial system (UAS) that is designed to significantly enhance the situational awareness capabilities of mobile forces. Compact and lightweight (5.5 pounds/2.5 kilograms), Magni enables


Operated by a single user, Magni enables vehicle-mounted forces to generate beyond-the-hill visual intelligence during day and night, and seamlessly feed target information to command and control systems. Its unique size, weight and power (SWaP) parameters make Magni well suited for squad, platoon, and company levels. MAGNI is the third multi-rotor VTOL UAS offered by Elbit Systems, which also includes the 10 kilogram Thor multi-rotor VTOL mini- UAS and the 5 kilogram Nox VTOL micro-UAS.


“To operate autonomously you need several capabilities, especially in the UAS domain,” said Swee Balachandran, research engineer. “You need to be able to make decisions to avoid other intruders in the airspace, stay clear from no-fly zones, or inside a no-fly zone the UAV should know how to get out of it, and to reroute itself around obstacles and no-fly areas.”


NASA Starts Using FLARM for Drone UTM


NASA’s Langley Research Center has started using FLARM in its Pathfinder drone UTM project. The goal of Pathfinder is to take separate urban traffic management (UTM) projects and combine them into a single autonomous vehicle, then have that vehicle fly and communicate with other autonomous vehicles in the airspace.


“Pathfinder was conceived as a way to perform a graduation exercise for a lot of the UTM projects we developed over the years,” said Lou Glaab, assistant branch head for the Aeronautic Systems Engineering Branch in Langley’s Engineering Directorate and Pathfinder project manager.


Part of that graduation exercise is the Independent Configurable Architecture for Reliable Operations of Unmanned Systems (ICAROUS).


“We’re testing things like ICAROUS, which is an autonomous sense-and-avoid flight management system for unmanned systems, as well as Safe-2-Ditch, which is an autonomous safe landing or autonomous crash management system,” said Glaab.


FLARM is being used as part of ICAROUS to avoid manned aircraft and other drones.


42 Jan/Feb 2020 WATCH VIDEO NOW


Balachandran also said that these functionalities are essential to operate autonomously without human intervention. That’s where ICAROUS comes in.


One of the key things in the development of ICAROUS was formal verification.


“Every algorithm that you develop goes through a rigorous mathematical process and we have certain properties, and we ensure the algorithms satisfy those properties so that it is safety- critical and you don’t see unwanted behaviors in flight,” said Balachandran.


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