Aurora Flight Sciences to design high-speed, vertical lift X-plane
Program leverages more than 30 years of investment in novel VTOL and blended wing body platforms, targets first demonstrator flights within 42 months.
Artist’s concept of the X-plane demonstrator. Photo Credit: Aurora Flight Sciences
Aurora Flight Sciences (Bridgeport, W.Va.), a Boeing Company, has been selected for phase 1 of the Defense Advanced Research Projects Agency (DARPA) SPeed and Runway INdependent Technologies (SPRINT) X-Plane Demonstration Project. This project aims to design, build and fly an X-plane to demonstrate technologies and integrated concepts necessary for a transformational combination of aircraft speed and runway independence. This initial award funds work to reach a conceptual design review and includes an executable option to continue work through preliminary design review.
Under this award, Aurora is designing a high-lift, low-drag fan-in-wing (FIW) demonstrator aircraft that integrates a blended wing body platform, with embedded engines and moderate sweep, with a vertical flight design comprised of embedded lift fans linked to the engines via mechanical drives. The aircraft could deliver game-changing air mobility capability by combining cruise at more than 450 knots true airspeed (KTAS) with vertical takeoff and landing (VTOL) in a single platform.
The combined Aurora and Boeing team brings deep experience in agile vehicle prototyping, vertical lift and cruise transition technology, and blended wing body aeroperformance. The program will build on past flight programs like the Boeing X-48 blended wing body aircraft and the Aurora Excalibur UAS that combined jet-borne vertical lift with three electric, louvered lift fans that would retract into the wing in forward flight.
Design work will take place at Aurora and Boeing facilities across multiple states including Virginia, Massachusetts and Pennsylvania. The program is targeting first flight of the X-plane demonstrator within 42 months.
Related Content
-
Otto Aviation launches Phantom 3500 business jet with all-composite airframe from Leonardo
Promising 60% less fuel burn and 90% less emissions using SAF, the super-laminar flow design with windowless fuselage will be built using RTM in Florida facility with certification slated for 2030.
-
Development of a composite liquid hydrogen tank for commercial aircraft
Netherlands consortium advances cryogenic composites testing, tank designs and manufacturing including AFP, hybrid winding, welding of tank components and integrated SHM and H2 sensors for demonstrators in 2025.
-
Ceramic matrix composites: Faster, cheaper, higher temperature
New players proliferate, increasing CMC materials and manufacturing capacity, novel processes and automation to meet demand for higher part volumes and performance.