recycle carbon fiber
Published

Where is the automotive composites supply chain?

Long-time composites industry observer Dale Brosius, now a consultant and the president of Dayton, Ohio-based Quickstep Composites, the U.S. subsidiary of Australia-based Quickstep Technologies (Bankstown Airport, New South Wales), asks some hard questions about the composites industry's readiness to supply the auto industry with the materials and processes necessary to meet coming lightweighting challenges.

Dale Brosius , Contributing Writer, Institute for Advanced Composites Manufacturing Innovation (IACMI)

Share

Having spent more than half my life in the composites industry, I have been fortunate to have been exposed to many materials, processes and end-use markets around the world. While I continue to be a strong proponent of composites, I also have developed a healthy dose of skepticism when it comes to predicting the growth rate of the industry. Although I remain optimistic, my aim here is to be provocative in describing the challenges that must be overcome.

Back in 1984, I came to Detroit with Dow Chemical Co. (Midland, Mich.) and was tasked with selling epoxy and vinyl ester resins to the auto industry. At my first meeting with Chrysler in Highland Park, an engineering manager told me that “by the end of 1985, Lee Iacocca” — remember him? — “will drive an all-composite vehicle off the assembly line.” I immediately envisioned a modern-day River Rouge plant, with trainloads of resin and fiberglass, instead of iron ore, coming in one end, and shiny, lightweight composite cars rolling out the other. The fallacy here was that the automotive OEMs thought the composites industry knew all about designing and manufacturing car parts in high volumes, and frankly, we assumed the same about the OEMs. The truth was, nobody did. A supply chain did not exist.

Chrysler left Highland Park many years ago, and Lee Iacocca left Chrysler, but the lack of a viable supply chain for large-volume composite vehicles is a problem that is still with us.

In 1987 a senior engineer at Ford told me they would not make the investment required to produce 30,000 to 50,000 composite vehicles annually, and clearly none of the existing molders of sheet molding compound (SMC) had the wherewithal to do so either, especially because the likely technology for the body-in-white would be resin transfer molding (RTM), which was still relatively nascent. And we were still talking about glass fiber — industrial-grade carbon fibers were some years away.

There is no shortage of challenges to making composite vehicles commonplace. However, today we have materials that can deliver lightweight structures, processing times are dropping rapidly and predictive analytical software is reducing development costs. The biggest impediment to widespread adoption is the enormous investment required in people and capital equipment. None of the existing molders of automotive plastics have pockets deep enough to underwrite such a cost. Becoming a supplier to the automotive industry isn’t easy; carbon fiber molders from other industries found this out a decade ago with small-volume vehicle programs. It is one thing to keep up with production rates of 10 to 20 aircraft per month, but it’s another thing entirely when volumes jump tenfold. Today the automotive market is looking for the capacity to support 1,000 to 3,000 composites-intensive vehicles per month, if not more. It is up to the OEMs to lead the way.

BMW has taken on this challenge and created a full chain for carbon fiber supply, weaving and, finally, molding the structures and assembling the vehicles. Outside companies manufacture the raw materials, but the biggest investments in molding equipment and assembly processes have been made by BMW, rather than its suppliers. The whole industry will be watching to see how BMW’s i3 and i8 succeed in the market, but even if the estimates of 30,000 carbon fiber vehicles per year is attained, this still represents less than 3 percent of BMW’s annual vehicle production. As big a deal as this is, it is still a long way from significant market penetration.

The key will be to see who, if anyone, follows BMW’s lead. If other OEMs, especially in Japan and North America, step up and do the same, then the rosy forecasts for automotive composites might, indeed, be correct. If not, then composites are clearly destined to remain a niche solution for improving emissions and fuel economy.

Quickstep Composites LLC

Quickstep Holdings Ltd.

Adhesives for Composite Materials
Toray Advanced Composites hi-temperature materials
Wabash
ELFOAM rigid foam products
NewStar Adhesives - Nautical Adhesives
ColorForm multi-component injection
Eliminate Quality Escapes  With LASERVISION AI
HEATCON Composite Systems

Related Content

Automotive chassis components lighten up with composites

Composite and hybrid components reduce mass, increase functionality on electric and conventional passenger vehicles.

Read More
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
Automotive

TPI manufactures all-composite Kenworth SuperTruck 2 cab

Class 8 diesel truck, now with a 20% lighter cab, achieves 136% freight efficiency improvement.

Read More
Carbon Fibers

SMC composites progress BinC solar electric vehicles

In an interview with one of Aptera’s co-founders, CW sheds light on the inspiration behind the crowd-funded solar electric vehicle, its body in carbon (BinC) and how composite materials are playing a role in its design.  

Read More

Read Next

Compression Molding

VIDEO: High-volume processing for fiberglass components

Cannon Ergos, a company specializing in high-ton presses and equipment for composites fabrication and plastics processing, displayed automotive and industrial components at CAMX 2024.

Read More
RTM

All-recycled, needle-punched nonwoven CFRP slashes carbon footprint of Formula 2 seat

Dallara and Tenowo collaborate to produce a race-ready Formula 2 seat using recycled carbon fiber, reducing CO2 emissions by 97.5% compared to virgin materials.

Read More
Sustainability

Plant tour: Daher Shap’in TechCenter and composites production plant, Saint-Aignan-de-Grandlieu, France

Co-located R&D and production advance OOA thermosets, thermoplastics, welding, recycling and digital technologies for faster processing and certification of lighter, more sustainable composites.

Read More
CompositesWorld