ÂÌñÏ×ÆÞ

My mind is easily distracted and consumed by the time-space continuum. Not the Star Trek kind, but the real-life kind. Fact is, I’m intrigued by the messy swirl of random events and direct human action that shapes our history — like the iceberg that floated in front of the Titanic and the helmsman who happened not to see it, or Hans von Pechmann, who in 1898 accidentally heated diazomethane to create what is now known as polyethylene. (Some people call this fate, but I’m not one of them — I’m more of a chaos guy.)

The problem with studying history, of course, is the unusual clarity provided by the retrospectroscope (as my dad calls it). Looking back across the landscape of time to the construction and sailing of the Titanic, we can easily see the fatal flaws in ship design and lifeboat outfitting that doomed those unfortunate passengers. And we assume, to a certain degree, that as soon as Pechmann discovered polyethylene, he rushed out and started molding airtight containers in which to store our leftover mashed potatoes (he didn’t — polyethylene wasn’t even commercialized until 1935).

Featured Content

Automated Composites Knowledge Center READ MORE

Tour NIAR at Carbon Fiber 2025 READ MORE

Troubleshooting thermoplastic composite stamp forming READ MORE

The real challenge in studying history, however, is better understanding the context of the event, because those living through historical events don’t have a retrospectroscope through which to look: They make decisions based on the information available at that time. Two of our features this month play on this theme in different ways.

The first, “Market Trends” (see “Related Content,” at left), looks back 15 years at an R&D effort that tried to prove to the aircraft industry the viability of a continuously wound aircraft fuselage. The idea was rejected. Looking back, with the carbon-intensive 787 Dreamliner rolling out early this month, this rejection is a head-scratcher. What was the hold-up? The fact is that aircraft manufacturers were not intellectually prepared to accept a continuously wound fuselage, and fiber placement technology was not sufficiently evolved to provide the laydown rates required. That rejection was probably a necessary step in the evolution that led to the development of the Dreamliner.

The second story is our “Focus on Design” (see “Related Content”), which explores the design and development of the carbon fiber engine subframe on the Lamborghini Roadster. It’s an interesting review of the material, fiber, and process combinations with which Lamborghini experimented to build this structural part. Parts like this are engineering marvels, but given that it’s on a vehicle that, at $328,000, costs more than an average American home, I can’t help but wonder if composites will forever nibble at the edge of the mainstream automotive industry.

Yet, if I fast-forward a decade, it seems possible to me that we’ll look back on these high-priced, high-end Lamborghini-like applications as the early, natural stages of the migration of structural composites into the automotive industry, like the first carbon fiber parts on fighter jets. In fact, this maturation might be much closer — we know that a sub-two-minute composites process for automotive application is tantalizingly close at hand.

And take a look at our two features on burgeoning composites use in wind energy applications (see “Related Content”). In some ways, putting composites use here into historical context is easier. Rising oil prices, a finite oil supply and China’s blooming demand for energy set a natural stage for a healthy, happy and growing wind energy industry that is heavily dependent on composites. Still, I wonder where all of this wind energy activity will be 10 years from now. We’ll let you know just as soon as we figure it out.