Every part below shipped on a real programme. Not concept models or marketing renders — production parts fitted to vehicles on the road, from a full show-car body to 350 car-sets of HVAC ducting delivered while a tool was being cut. PPAP 1–4 approved, 25 vehicle programmes, 2.5m+ components in service.
3D printing case studies UK · additive manufacturing case studies · automotive 3D printing projects · 024 7736 0144

Four programmes, four different problems. A show-car body that could not be tooled. A hypercar needing hundreds of parts per car across three processes. A line about to stop because a tool was not ready. And a 700-car restomod run of heat-tolerant ducting that had to be repeatable, batch after batch.
What connects them is not the technology. It is that in each case moulding could not make the commercial or the calendar case, and the part still had to exist. That is the job additive does properly — and these are the receipts.
Reviewed by the RYSE 3D engineering team · August 2026.

An entire show-car exterior, with no tooling and no bodyshop in the chain. The body was printed in large-format FDM sections, bonded into a single shell, then taken through the full A-class paint stack in-house — filled, primed, based, cleared, flatted and polished to a defect-free finish.
Why it mattered
Tooling a one-off show car is not a conversation worth having. Printing it meant the design could stay fluid far later than a moulded body would have allowed, and the whole job — print, bond, paint, inspect — stayed under one roof and one point of accountability.

Across the Valkyrie’s full production volume we supplied hundreds of parts per car, including temperature-stable brake ducting that holds varying wall thicknesses without losing quality — geometry that is difficult to mould and expensive to tool for a run this size.
Why three processes
Nobody orders “an SLS part”. Each component went onto whichever process suited its job — MJF for repeatable end-use volume, SLS for complex unsupported geometry, FDM where size or stiffness led. Running all four in one building is what makes that possible without splitting the programme across suppliers.
Vehicle image © Aston Martin.

Bridge production of HVAC ducting for the long-wheelbase Range Rover, keeping vehicles shipping while the injection tool came good. Parts were tested at 80°C for 96 hours and crush-matched to the original HDPE component, so the printed duct behaved like the moulded one it was standing in for.
Why it mattered
This is the clearest case for additive there is. The alternative was not a cheaper duct — it was a stopped line. 350 car-sets delivered inside three months, dimensionally inspected, on a process with no tooling to wait for.

For a restomod manufacturer we produced turbo intakes, clean-air manifolds and engine-bay ducting across a 700-car programme — heat-tolerant, repeatable and ready to fit, run after run.
Why it mattered
700 cars is the awkward middle. Too many to hand-make, too few to justify tooling a family of intake and ducting parts. Additive covers exactly that band, and the engine bay adds a real constraint: the grade has to hold up against the duty cycle, not just the peak number on a datasheet.
Much of our work sits under NDA and cannot be shown. Across 25 vehicle programmes we have made most of the polymer parts on a car that are not load-path critical — ducting, cooling, housings, intakes, centre consoles, trim and ESD-safe parts. If it is polymer and it is not holding the car together, chances are we have made one.
Printed, finished, painted and inspected under one UK roof — from a single awkward part to a full vehicle programme.
Our own ISO 9001 facility in Shipston-on-Stour, Warwickshire. Mon–Thurs 8am–4pm, Fri 8am–2pm, visits by appointment. Call 024 7736 0144 or email hello@ryse3d.com.