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Hans Weber receives SPE award for 3D printed automotive component

Hans-Weber-BMW-SPE-speaward2024_bmw_mittelkonsolentraeger
The end use component for serial manufacturing was developed in collaboration with BMW and LFAM printed using composite Akromid.

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A 3D printed automotive center console carrier component received the top SPE Automotive Award, highlighting numerous innovations and a clear trend toward sustainability. With this center console carrier for a BMW small-series project, a 3D printed component, made using robotic LFAM technology from Hans Weber, received the Grand Award of the renowned SPE Automotive Award for the first time in history.

The high-strength, large, and highly integrated 3D printed component was made from recycled carbon fiber and Akromid, a polymer derived from renewable raw materials. It replaces seven conventional parts and significantly reduces the vehicle’s carbon footprint by 70 kg.

For the 22nd time, the Society of Plastics Engineers (SPE) Central Europe awarded the Automotive Award for the most innovative plastic parts in vehicle construction. For the first time, a 3D printed component scored the highest points in the extensive evaluation process: the overall winner of the 2024 Automotive Award and the Grand Award was a 3D-printed center console carrier from BMW.

A comparison between the 3D printed component and the traditional manufactured one. The 3D printed piece replaces seven conventional parts and significantly reduces the vehicle’s carbon footprint by 70 kg.

The German automaker has been investing significantly for over a decade to increase the utilization of AM in its production processes (via custom tools) and to directly manufacture final parts, across many of its plants. At the “Additive Manufacturing Campus” in Oberschleißheim, the BMW Group’s central hub for production, research and training in 3D printing, more than 300,000 parts were “printed” in 2023. Furthermore, over 100,000 printed parts were produced per year across all the plants that form the global production network, from Spartanburg and the German plants to sites in Asia.

For its production, Hans Weber Maschinenfabrik used robot-based LFAM for an automotive series project for the first time. A major advantage of this process is that highly filled fiber-reinforced injection molding granulate can also be processed. A

dditionally, an intelligent component design reduced the number of parts from seven to one and integrated additional functions into the center console carrier. Not only the load-bearing structure but also integrated air channels for the rear passenger compartment’s climate control were printed in one process step. As another key highlight, the material—an Akromid from Akro-Plastic with 40% recycled carbon fiber—is based on renewable raw materials, reducing the CO2 footprint by an impressive 70 kg per component.

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