Subheader Icon 877-412-3651
Request a quote
Article This Is What the Next-Gen Aircraft Engine Blades Will Be Like Image
Aircraft Blades
Image by Michael Schwarzenberger from Pixabay

Aircraft manufacturers and turbine developers are constantly on the look for new ways to squeeze more performance and better fuel economy out of their designs. With the rise of a plethora of technological innovations, especially in software-assisted simulation and the science of materials, new doors for opportunities open up all the time, sometimes unlocking optimizations on things that have remained stagnant for a long time now.

Take engine fan blades for example, that have already reached their optimal shapes and are made of a metal alloy that is considered ideal for the purpose. Now, engineers working on the EU-funded project ‘MORPHO’ have come up with an innovative proposal, to embed printed and fiber optical sensors in the fan blades, making each of them “smart” in a sense.

These next-gen blades will feature a 3D-woven composite core with the leading edge that needs more strength being made of titanium. This would reduce inertia and weight while still retaining high levels of strength and resistance to fractures.

Thanks to the embedded sensors in each blade, if one is hit by a foreign object and suffers a fracture, service technicians or even pilots in the cockpit would get an alert about it. The MORPHO team also points out that the benefits of these “cognitive abilities” for the next-gen blades can be reaped as soon as they leave the manufacturing line, as their design, shape, and material quality can be easily validated.

And finally, there’s the aspect of recycling and the impact that manufacturing aircraft engines has to the environment. MORPHO’s proposal takes care of that part too, presenting laser-induced disassembly combined with pyrolysis to recycle the parts that have reached their end of service life, and then use the raw materials to build new fan blades.

The project will continue to refine its technological proposal until September 2024 when it is scheduled to end, but until then, stakeholders in aerospace engineering will hopefully be engaged and convinced to adopt some novelties from MORPHO’s proposal for the safety of the passengers and the environment.

Related Articles

Latest ORNL PM-HIP Breakthrough Targets Larger Critical Metal Parts Image
Industry News

ORNL PM-HIP Breakthrough Targets Larger Critical Metal Parts

Oak Ridge National Laboratory has developed a manufacturing method that could make large critical metal parts faster to produce, easier to customize, and less dependent on conventional casting and forging supply chains. The U.S. Department of Energy laboratory announced on May 14 that its researchers used additive manufacturing to fabricate custom canisters for powder metallurgical hot isostati

Latest Best Materials for High-Temperature Aerospace Applications Image
Aerospace

Best Materials for High-Temperature Aerospace Applications

Every turbine blade, exhaust duct, and fastener in an aircraft engine faces a punishing combination of heat, stress, and corrosive gas. And the high-temperature aerospace materials that survive those conditions aren't interchangeable. If you pick the wrong alloy, the part can distort, crack, or fails mid-flight. Choosing the best materials for high-temperature aerospace applications starts with un

Latest DOE Awards $94M to Speed Small Modular Reactor Deployment Image
Construction

DOE Awards $94M to Speed Small Modular Reactor Deployment

The U.S. Department of Energy has awarded more than $94 million to eight American companies to accelerate small modular reactor deployment. A move that gives the nuclear sector a fresh push as power demand rises across manufacturing, data centers, and industrial infrastructure. Announced on May 14, the cost-shared funding will support advanced light-water small modular reactors, known as Gen II

Latest NAVAIR Contract Pushes Metal Additive Manufacturing Toward Airworthy Production Image
Aerospace

NAVAIR Contract Pushes Metal Additive Manufacturing Toward Airworthy Production

A new Naval Air Systems Command contract is set to push metal additive manufacturing deeper into certified aerospace production, with direct implications for U.S. defense suppliers, specialty alloy producers, and precision fabrication teams. Colibrium Additive, a GE Aerospace company, announced on April 22 that it received a $31 million NAVAIR contract supporting the Navy’s Additive Manufacturi