Composites One
Published

The NCC collaborates with Airbus to optimize eXtra wing aerodynamics

In a bid to decarbonize the aviation industry, NCC engineers are looking to design and manufacture primary components for the eXtra Performance Wing “wing box” structure.  

Share

eXtra Performance Wing computer rendering. Photo Credit: Airbus S.A.S.

Engineers at the National Composites Centre (NCC, Bristol, U.K.), the U.K.’s R&D center for advanced composites, are working with Airbus (Toulouse, France) on its “eXtra Performance Wing” demonstrator program designed to accelerate technologies in wing aerodynamics that improve performance and reduce environmental impact.

The eXtra Performance Wing program is reported to be developing and validating breakthrough active control technologies that can adapt the wing shape and area to the particular weight, speed and altitude of the aircraft to suit fight conditions. This includes pop-up spoilers, multifunctional trailing edges on flaps that can dynamically change the surface of the wing in flight and a semi-aeroelastic hinge that controls a moving folding tip. Compatible with any propulsion system, the active control technologies will be integrated into the wing structure to improve performance and ultimately reduce emissions.

The design phase is expected to be complete summer 2022, followed by the full-scale demonstrator wing manufacturing stage.

Longer, thinner and lighter, the eXtra composite wing design takes its inspiration from nature. Just as an eagle uses its wing and longer tailing feathers to control its flight, the new active control technologies embedded in the wing enables it to adapt its shape, span and surface for increased flight efficiency.

The NCC is working with Airbus to design the demonstrator wing which, being longer than standard, is more flexible, and therefore more susceptible to turbulence. The NCC will look to manufacture primary components of the “wing box” structure to host the new active control technologies, comprising the upper and lower skin cover, and the leading edge and trailing edge spars.

The design phase is expected to be complete summer 2022, followed by the full-scale demonstrator wing manufacturing stage, with the first flight of the demonstrator aircraft following modification of the aircraft with the new wings. The project team is adapting a Cessna Citation VII aircraft for flight tests.

“Composites deliver the strength and flexibility of design that the eXtra Performance Wing demands. Together with Airbus, we’re building on the NCC’s aerospace knowledge and experience, pushing advances in industrial design for composites and the use of novel manufacturing technologies in the pursuit of zero emission aircraft,” Paul Clarke, head of aerospace at the NCC, says. “Following our recent AS9100 quality management standards accreditation, we are well positioned to support the wider U.K. composites supply chain in the development of aerospace technology through to industrial application, potentially opening new opportunities for non-aerospace companies to access this market.”

The design phase of the program is a partnership between Expleo (Paris, France), the University of Bristol (U.K.), the NCC and Airbus and is partly funded through a grant from the Aerospace Technology Institute (ATI, Cranfield, U.K.).

In April 2022, Airbus completed wind-tunnel testing of a scaled-down partly 3D-printed model of the aircraft incorporating the eXtra Performance Wing, to validate the concepts prior to flight tests.

The NCC says it has a long-standing partnership with Airbus, working on major innovation program including the Wing of Tomorrow, which is exploring radical new approaches to the design and manufacture of aircraft wings.

Park Aerospace Corp.
pro-set epoxy laminate infusion tool assembly
Compression Molding
Composites One
Janicki employees laying up a carbon fiber part
Airtech
Composites product design
CompositesWorld
MITO® Material Solutions
CAMX 2024
CompositesWorld
Release agents and process chemical specialties

Related Content

Automotive

Cryo-compressed hydrogen, the best solution for storage and refueling stations?

Cryomotive’s CRYOGAS solution claims the highest storage density, lowest refueling cost and widest operating range without H2 losses while using one-fifth the carbon fiber required in compressed gas tanks.

Read More
Aerospace

One-piece, one-shot, 17-meter wing spar for high-rate aircraft manufacture

GKN Aerospace has spent the last five years developing materials strategies and resin transfer molding (RTM) for an aircraft trailing edge wing spar for the Airbus Wing of Tomorrow program.

Read More
Glass Fibers

Materials & Processes: Fibers for composites

The structural properties of composite materials are derived primarily from the fiber reinforcement. Fiber types, their manufacture, their uses and the end-market applications in which they find most use are described.

Read More
Aerospace

PEEK vs. PEKK vs. PAEK and continuous compression molding

Suppliers of thermoplastics and carbon fiber chime in regarding PEEK vs. PEKK, and now PAEK, as well as in-situ consolidation — the supply chain for thermoplastic tape composites continues to evolve.

Read More

Read Next

Thermoplastics

Wing of Tomorrow ribs: One-shot, thermoplastic, OOA consolidation

GKN Aerospace’s carbon fiber thermoplastic aircraft rib design accomplishes 45-minute cycle times, reduced weight and competitive costs via a customized press system.

Read More
Aerospace

Airbus X-Wing will test flapping wing tips, multifunctional trailing edges for future aircraft

Demonstrator will test 30%-scale version of 52-meter composite wing with electrically-powered actuating hinged wing tip for improved efficiency and decarbonization in flight.

Read More
Aerospace

The next-generation single-aisle: Implications for the composites industry

While the world continues to wait for new single-aisle program announcements from Airbus and Boeing, it’s clear composites will play a role in their fabrication. But in what ways, and what capacity?

Read More
Composites One