Ford
Ford F-150

Design Insights: Living in a Material World; Carbon Fiber Takes Another Turn

May 5, 2021
A review of the day’s top trending stories from Machine Design editors.

Living in a Material World

While energy management is a top-of-mind issue for most design and manufacturing professionals, one overlooked area is making equipment lighter and strong to drive such efficiencies.

A recent Machine Design article talked about the advances in such material use. Because their end products use fuel as direct propulsion, aviation and automotive have led the charge in the use of lighter-weight materials. A McKinsey report cited in that article stated that aviation has about 80% of the lightweight material market share today, while automotive is poised to reach 70% by 2030. 

Automobiles have a mix of materials, from steel to carbon fiber to aluminum. Steel’s once-dominant use in automotive has been replaced by, as the article notes, “materials that can reduce weight, improve fuel efficiency, provide better performance, lower tooling costs and lower environmental costs.”

Yet it is not carbon fiber or additive manufacturing that is driving the change in vehicles. “Aluminum, viewed as the fastest growing automotive material, is expected to grow to 514 pounds per vehicle by 2026, a growth of 12% from 2020 levels, according to a DuckerFrontier survey cited in the article.

When Ford switched its F-150 to an aluminum body in 2015, engineers decreased the use of high-strength steel in the frame to 77% from 23%, which resulted in a stronger, more durable and structurally more rigid structure while saving up to 60 lb. of vehicle weight.

Carbon Fiber Takes Another Turn

Shifting focus to another material challenge, the use of fiberglass blades for wind turbines is far more cost-effective than the carbon-fiber alternative. Machine Design recently reported on an innovative and lower-cost carbon fiber option that could provide greater material strength and lower cost than the fiberglass alternative.

Researchers found “the new fiber material had 56% more compressive strength per dollar than commercially available carbon fiber, the industry baseline. Typically, manufacturers compensate for lower compressive strength by using more material, which increases costs and the weight of the blade. The team estimates that the new material would cut about 40% from the material costs for a spar cap compared to commercial carbon fibers.”

Expanding this from a scholarly exercise to a commercially viable one is another issue. As the article notes, “the wind and carbon fiber industries do not currently overlap. The wind industry designs wind turbine blades using only commercially available materials, and the carbon fiber manufacturers face a hurdle to innovation due to high capital costs associated with introducing a new production line for the wind industry.”

Sponsored Recommendations

How BASF turns data into savings

May 7, 2024
BASF continuously monitors the health of 63 substation assets — with Schneider’s Service Bureau and EcoStruxure™ Asset Advisor. ►Learn More: https://www.schn...

Agile design thinking: A key to operation-level digital transformation acceleration

May 7, 2024
Digital transformation, aided by agile design thinking, can reduce obstacles to change. Learn about 3 steps that can guide success.

Can new digital medium voltage circuit breakers help facilities reduce their carbon footprint?

May 7, 2024
Find out how facility managers can easily monitor energy usage to create a sustainable, decarbonized environment using digital MV circuit breakers.

The Digital Thread: End-to-End Data-Driven Manufacturing

May 1, 2024
Creating a Digital Thread by harnessing end-to-end manufacturing data is providing unprecedented opportunities to create efficiencies in the world of manufacturing.

Voice your opinion!

To join the conversation, and become an exclusive member of Machine Design, create an account today!