Completed Materials & Manufacturing Clean Energy

Functional Lattices for Automotive Components (FLAC)

In plain English

AI plain-English summary

A car door, a suspension arm, or a brake caliper could soon be printed as a single, hollow metal lattice instead of being stamped or cast from solid metal. The problem is straightforward: cutting vehicle weight is the single most effective way to improve fuel efficiency and reduce CO₂ emissions, regardless of whether the car runs on petrol, diesel, or a battery. But lightweight parts must still be strong, and conventional manufacturing limits how much material you can remove. This project tackles that gap by combining three advances: a new design methodology that treats a component’s internal structure as a functional lattice, novel aluminium alloys formulated for selective laser melting (SLM), and the SLM process itself—a form of 3D printing that builds metal parts layer by layer from a powder bed. If successful, the FLAC project could make SLM a viable manufacturing route for automotive components. That would let engineers place material only where it is mechanically needed, producing parts that are lighter, stronger, and more efficient than today’s equivalents. The impact would be felt quietly across supply chains: fewer kilograms of metal shipped, less energy used in production, and lower tailpipe emissions over each vehicle’s lifetime.

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Vehicle efficiency, regardless of the powertrain type, can be increased through several strategies, including reducing weight, aerodynamic drag, reduction in rolling resistance and powertrain efficiency. Out of all, weight reduction is considered to have the greatest potential to increase vehicle efficiency and thus to reduce the CO2 emissions. The objective of the FLAC project is to progressively develop and demonstrate a portfolio lightweight automotive components with increased efficiency and functionality utilising an integrated SLM design methodology, a novel class of lattices, new aluminium alloys for SLM and demonstrate the viability of selective laser melting as a manufacturing route.

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