NASA’s Dragonfly rotorcraft enters integration and testing phase for Titan mission

The nuclear-powered drone moves from its design phase to flight system assembly.
PUBLISHED 5 HOURS AGO
Artists' concept of the Dragonfly rotorcraft in a close up view. (Cover Image Source: NASA/Johns Hopkins APL)
Artists' concept of the Dragonfly rotorcraft in a close up view. (Cover Image Source: NASA/Johns Hopkins APL)

Engineers at NASA have now initiated the integration and testing phase for the Dragonfly mission’s rotorcraft lander. The radioisotope-powered spacecraft is scheduled to launch around 2028 on a six-year trip to the surface of Titan, Saturn’s largest moon. Now, NASA has announced that the Dragonfly spacecraft has moved from the design stage to setting up hardware. This includes assembling the flight system and making sure the components can withstand the harsh space environments that it’s about to travel through. The activities are currently underway at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland.

NASA engineers conduct power and functional testing on Dragonfly’s IEM and PSU at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland. (Image Source: NASA/Johns Hopkins APL/Ed Whitman)
NASA engineers conduct power and functional testing on Dragonfly’s IEM and PSU at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland. (Image Source: NASA/Johns Hopkins APL/Ed Whitman)

According to NASA, the early integration tests were targeted at two key components of the spacecraft — the Integrated Electronics Module (IEM), and the Power Switching Units (PSUs). Essentially, the IEM is the Dragonfly’s brain, being the central control system for core avionics like command and data handling, guidance and navigation, and communications. PSUs distribute and manage power throughout the spacecraft. In the first weeks of integration work, engineers conducted power and functional testing of the IEM and the PSUs, connected both to Dragonfly’s wiring system, and performed successful power-service checks.

Johns Hopkins APL engineers install and adjust the rotors on the full-scale test model of the Dragonfly lander at NASA’s Langley Research Center. (Image Source: NASA)
Johns Hopkins APL engineers install and adjust the rotors on the full-scale test model of the Dragonfly lander at NASA’s Langley Research Center. (Image Source: NASA)

Other major subsystems of the spacecraft are also undergoing assembly and testing elsewhere. Dragonfly’s aeroshell and cruise-stage assemblies are being integrated and tested at Lockheed Martin Space in Littleton, Colorado. At NASA’s Langley Research Center in Hampton, Virginia, the mission team finished aerodynamic testing in wind tunnels. The rotorcraft’s development is an international collaborative effort by APL and teams across government agencies and industry partners. The first-of-its-kind rotorcraft is roughly the size of a car and will use vertical takeoffs and landings (VTOL) to fly across Titan.

Dragonfly team members review the half-scale lander model after it underwent wind tunnel testing at NASA's Langley Research Center in Hampton, Virginia. (Image Source: NASA/Johns Hopkins APL/Ed Whitman)
Dragonfly team members review the half-scale lander model after it underwent wind tunnel testing at NASA's Langley Research Center in Hampton, Virginia. (Image Source: NASA/Johns Hopkins APL/Ed Whitman)

Engineers are testing a special foam insulation coating in the Titan Chamber at APL, simulating the moon’s extremely low temperatures. The Dragonfly mission’s science payload is also being assembled both in the United States and internationally. NASA confirms that the spacecraft’s flight radio system has already been delivered, with more hardware expected to undergo integration and testing over the next six months. Starting integration and testing itself is a huge milestone, according to Annette Dolbow, the Dragonfly integration and test lead at APL. “We’ve spent years designing and refining this amazing rotorcraft on computer screens and in laboratories,” she adds. “And now we get to bring all those elements together and transform Dragonfly into an actual flight system.”



The rotorcraft’s integration and testing phase, which has just begun, will go on until early 2027 at APL, following which it will be transferred to Lockheed Martin for system-level testing. After that, the lander will return to APL for final space-environment testing before moving to NASA’s Kennedy Space Center in Florida in spring 2028. Finally, Dragonfly will launch aboard a SpaceX Falcon Heavy rocket. More than just an attempt to detect life, the mission intends to study Titan’s chemistry, geology, and atmosphere, and advance our understanding of life’s chemical origins.

More on Starlust

NASA’s Dragonfly gears up to explore Titan’s secrets in search of signs of life

Saturn's largest moon, Titan, may have formed from the collision of two older moons, study finds

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