Precision Board Urethane Tooling Board
Published

Is the market ready for another widebody aircraft?

This past week, the Airshow China 2016 event was held, from November 1 – 6 in Zhuhai, China. A notable outcome from the show, reported in several media outlets, was that Russia’s United Aircraft Corp. (UAC) and the Commercial Aircraft Corporation of China (COMAC) have advanced their plans for their collaborative twin-aisle widebody aircraft.

Share

This photo from Ooyuz Web site shows the model of a UAC/COMAC joint venture widebody aircraft, at the Airshow China 2016 in Zhuhai.

This past week, the Airshow China 2016 event was held, from November 1 – 6 in Zhuhai, China. A notable outcome from the show, reported in several media outlets, was that Russia’s United Aircraft Corp. (UAC) and the Commercial Aircraft Corporation of China (COMAC) have advanced their plans for their collaborative twin-aisle widebody aircraft, so far referred to as Long-Range Wide-Body Commercial Aircraft (LRWBCA). A mockup of the new aircraft was on display at the show, showing 280 seats and 9-abreast economy seating.

An agreement was initially signed in 2012 between UAC and COMAC to study the feasibility of a widebody to compete with Boeing and Airbus. At the China air show event last week, COMAC released a document saying that it and UAC have progressed to a joint venture, to be based in Shanghai, which will start operations this year, presumably on initial designs and supplier agreements, says a Reuters market news story dated Nov. 1 by Brenda Goh and Kenneth Maxwell.

According to a Nov. 4 Aviation Week & Space Technology article by Bradley Perrett and Maxim Pyadushkin, UAC will build the aircraft’s composite wing, using the technology developed by AeroComposit (Moscow, Russia) for the Irkut MS-21 single-aisle commercial transport (see our story on that composite wing technology involving dry layup and infusion here: http://www.compositesworld.com/articles/resin-infused-ms-21-wings-and-wingbox). COMAC will make the fuselage, using both aluminum and composite, with final assembly to occur in Shanghai, according to the article.  Power will be provided by Rolls-Royce or General Electric engines, with a possible Russian engine to be developed by 2030. Projected entry into service will be 2027, say the authors.

The joint venture is apparently focused on replacing the Airbus 330, as that aircraft ages over the next decade, and the Perrett and Pyadushkin article says that UAC and COMAC are claiming a 10% advantage in operating costs over competing models. Recent acquisitions of aircraft manufacturing technology and equipment companies by Chinese entities, including Brotje Automation (Rastede, Germany), Kuka Aerospace (Clinton Township, MI, US) and Aritex (Barcelona, Spain), indicate that COMAC will likely have access to experienced worldwide suppliers for high-tech assembly.

So will a new Chinese/Russian market entrant succeed, especially one with a composites-intensive design? Only time will tell as the new aircraft’s design progresses. Is the demand there for a new widebody aircraft in the current market? Another Aviation Week article dated Nov. 4 by Joe Anselmo cites a maintenance, repair and overhaul (MRO) market survey that shows weak demand for current wide-body aircraft (e.g., Boeing 777, 747, Airbus A380), with no sign of improvement. On the other hand, Airbus’ 2016 – 2035 Global Market Forecast report claims that China will need nearly 6,000 new passenger aircraft and freighters during that time period. The forecast projects 4,230 single aisle planes and 1,740 widebody planes for China, to meet what Airbus says will be the fastest-growing air passenger market, well above the rest of the world. 

Janicki employees laying up a carbon fiber part
Wickert Hydraulic Presses
Park Aerospace Corp.
ViRTEK IRIS 3D
Precision Board Urethane Tooling Board
Composites One
Compression Molding
CompositesWorld
KraussMaffei Metering Systems
industrial CNC routers
Carbon Fiber 2024
Thermwood Corp.

Related Content

Natural Fibers

Sulapac introduces Sulapac Flow 1.7 to replace PLA, ABS and PP in FDM, FGF

Available as filament and granules for extrusion, new wood composite matches properties yet is compostable, eliminates microplastics and reduces carbon footprint.

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
Mass Transit

Materials & Processes: Fabrication methods

There are numerous methods for fabricating composite components. Selection of a method for a particular part, therefore, will depend on the materials, the part design and end-use or application. Here's a guide to selection.

Read More
Glass Fibers

Price, performance, protection: EV battery enclosures, Part 1

Composite technologies are growing in use as suppliers continue efforts to meet more demanding requirements for EV battery enclosures.  

Read More

Read Next

Pressure Vessels

Composites end markets: Energy (2024)

Composites are used widely in oil/gas, wind and other renewable energy applications. Despite market challenges, growth potential and innovation for composites continue.

Read More
Trends

CW’s 2024 Top Shops survey offers new approach to benchmarking

Respondents that complete the survey by April 30, 2024, have the chance to be recognized as an honoree.

Read More
Thermoplastics

From the CW Archives: The tale of the thermoplastic cryotank

In 2006, guest columnist Bob Hartunian related the story of his efforts two decades prior, while at McDonnell Douglas, to develop a thermoplastic composite crytank for hydrogen storage. He learned a lot of lessons.

Read More
Precision Board Urethane Tooling Board