Large-format FDM 3D printing from a UK additive manufacturer — big, rigid, engineering-grade parts without the tooling bill. Rapid FDM 3D printing across the full volume ladder — prototyping, batch production and low-volume series production — in carbon- and glass-filled nylon and high-temperature polymers, printed up to 500 × 500 × 900 mm in one piece. No tooling, no minimum order, with next-day and express lead times available. Industrial 3D printing UK-wide, from our own ISO 9001 facility.
Prefer to talk it through? Call our engineers on 024 7736 0144.
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Two build envelopes, one process, ten engineering-grade polymers — shown to the same scale so you can see exactly what fits.
Large-format work runs on our LANDR machines, which give the full 500 × 500 × 900 mm envelope — the largest bed we run, and the reason a full-size duct, enclosure or bracket can be printed in one piece rather than split and bonded.
Alongside it sits a dedicated heated chamber at 340 × 320 × 340 mm for PPA-CF, PET-CF and PC-FR. Those grades need a hot, stable chamber to print without warping — which is also why they hold their dimensions once the part is in service.
| Platform | Envelope | Materials |
|---|---|---|
| LANDR large-format | 500 × 500 × 900 mm | PA6-CF, PA12-CF, PA6-GF, PA6/12-CF COPA, PETG-CF, ASA, ABS |
| Heated chamber | 340 × 320 × 340 mm | PPA-CF, PET-CF, PC-FR |
Fused Deposition Modelling (FDM), also called Fused Filament Fabrication (FFF), builds a part by melting an engineering thermoplastic filament and laying it down layer by layer. It’s the most direct route to big, load-path parts in real engineering polymers — carbon- and glass-filled nylons, high-temperature grades and flame-retardant polycarbonate — without paying for a mould.
Where FDM earns its place is size and material. Our large-format bed prints parts up to 900 mm tall in a single piece, and a dedicated heated chamber runs the high-temperature grades that would warp or creep on an open machine. Support structures are used where overhangs need them and removed in finishing.
Ten engineering-grade polymers — zero hobby plastic. Typical values; properties vary with geometry, wall count and build orientation, so treat these as a guide rather than a guarantee.
The workhorse grade. 20% carbon-fibre-reinforced PA6 for high stiffness and strength-to-weight. Also known as carbon fibre nylon, PA6 carbon, CF nylon.
Best for: load-path brackets, mounts, jigs and functional prototypes.
Carbon-fibre PA12 — dimensionally stable and low-moisture, with more ductility than PA6-CF. Also known as carbon fibre PA12, PA12 carbon.
Best for: stable, detailed functional parts and fixtures.
Glass-fibre-reinforced PA6 for rigidity and shape-stability under load and mild heat. Also known as glass fibre nylon, PA6 glass-filled.
Best for: rigid parts that must hold their shape under load and mild heat.
Tough carbon co-polyamide — impact resistance with low moisture pickup, trading a little stiffness for real toughness. Also known as COPA, carbon co-polyamide.
Best for: tough parts needing impact resistance alongside stiffness and stability.
High-performance carbon-fibre polyamide that holds strength and dimensions at elevated temperature. Also known as PPA carbon fibre, high-temp nylon.
Best for: heat-exposed brackets, fixtures and non-critical tooling.
Carbon-fibre PET — holds tolerance in heat and humidity, with nearly 3× the heat resistance of PETG-CF. Also known as carbon fibre PET.
Best for: weld fixtures and jigs that must hold tolerance in heat and humidity.
Flame-retardant polycarbonate for parts where ignition, not heat, is the constraint. Also known as flame retardant PC, UL94 polycarbonate.
Best for: protective casings and enclosures where flammability is the constraint.
The cost-effective workhorse for prototypes and fit-check models. Also known as acrylonitrile butadiene styrene.
Best for: cost-effective prototypes, fit-check and form models.
UV-stable, weatherable styrenic for outdoor parts that must not yellow or go brittle in sunlight. Also known as ASA weatherable.
Best for: UV-stable outdoor parts, enclosures and covers.
Carbon-fibre PETG — stiff and easy to print for technical brackets at ambient temperature. Also known as carbon fibre PETG.
Best for: stiff brackets and fixtures at ambient temperature — add heat and step up to PET-CF.
Printed, finished and inspected under one roof — so you don’t chase separate vendors for print, finish and QC.
Filled, primed and spray-painted to an A-class cosmetic finish — colour-matched for show models, visible enclosures and customer-facing parts.
Brass heat-set and press-fit inserts installed in-house, so your FDM parts take repeated bolting and assembly without stripping the thread.
Oversized models split, printed, bonded and inspected as a finished assembly — so part size never caps the design.
Parts up to 900 mm printed in a single build — no redesigning a part just to fit a smaller bed.
Carbon- and glass-filled nylons, high-temperature grades and flame-retardant PC — not shelf-grade plastic.
Rigid, load-path parts without the mould, the minimum order or the weeks of tooling lead time.
Rapid FDM 3D printing from a single fit-check prototype to batch production, low-volume series production and bridge parts that hold up in service — the same process the whole way up.
Where FDM earns its place.
Large ducting, intake components, brackets and interior parts in carbon-fibre nylon — full-size in one piece.
Load-path brackets, UAV airframe parts and heat-exposed fixtures in PPA-CF and PET-CF.
Jigs, fixtures, weld fixtures and end-of-arm tooling that hold tolerance in heat and humidity.
Large end effectors, guards and frames consolidated into single printed parts.
Protective casings in flame-retardant PC-FR and UV-stable ASA for indoor and outdoor use.
Ducts, housings, guards and low-volume bridge parts ahead of tooling.
Automotive 3D printing at RYSE 3D — the entire exterior body of the Longbow Speedster driving demonstrator, large-format FDM 3D printed and A-class painted in-house.
Longbow, the British “featherweight” electric sports-car maker, hand-builds sub-1,000 kg cars in the UK. For the Longbow Speedster driving demonstrator — the car it took to public reveal — RYSE 3D 3D printed the entire exterior body using large-format FDM, then finished the body panels in-house to an A-class painted standard: filled, primed and colour-matched to the deep metallic green you see here. It’s automotive 3D printing at full vehicle scale.
A full 3D printed car body, additively manufactured — no body tooling, no minimum, no waiting on moulds. Printed, painted and inspected under one roof, on the prototype demonstrator’s timeline. It’s the clearest proof of what large-format FDM 3D printing and in-house A-class finishing can do together: bodywork good enough for a show stand.
Full car body panels 3D printed by large-format FDM in engineering-grade polymer.
Filled, primed and colour-matched in-house to a show-stand cosmetic finish.
Straight from CAD to painted bodywork — right for a one-off demonstrator.
Print, paint and inspection in-house, delivered to the build timeline.
FDM is a genuine route to big, load-path parts without the tooling bill — no mould to pay for, no minimum order, no penalty for changing the design between batches. A full-size bracket, duct or enclosure can be in your hands in 1–3 working days rather than the weeks a mould or a machined billet takes.
Injection moulding still wins on unit cost at very high volumes on a frozen design, and machining still wins where you need metal tolerances. Everywhere else — large parts, fibre-reinforced engineering polymers, prototyping, tooling, jigs, fixtures and batch or low-volume series production — FDM is usually faster and cheaper all-in, printed full-size in one piece up to 900 mm.
Not sure FDM is the right call? Send us the CAD and we’ll confirm it fits — or point you straight to SLS, SLA or MJF. No sales call, no obligation.
Redesign the part just to fit a smaller bed. Wait weeks — and thousands — for tooling. Settle for brittle, prototype-grade plastic. Chase separate vendors for print, finish and inspection.
Print it full-size — up to 900 mm, in one piece. No tooling, no minimum order, no wait. Real carbon- & glass-filled engineering nylons. One team prints, finishes and inspects it.
CAD to confirmed order, mostly online. Engineers step in exactly where a part needs them.
Send a STEP or STL. We confirm it fits, flag anything for design review, and advise on splitting if it’s bigger than the bed.
Pick the grade — or tell us the load, heat and environment and we’ll spec it free with your quote.
Printed on the large-format or heated machine, then painted and fitted with threaded inserts as ordered.
Dimensional inspection, then the part or bonded assembly ships across the UK.
If you specify FDM parts regularly — repeat tooling, a growing BOM or a bridge-production run — a trade account gives you a named engineer who knows your parts, not a queue.
One named contact who knows your programme, your tolerances and your deadlines.
Your part history sits on the account — reorder a proven batch without re-specifying.
Unit price falls as quantity rises, reviewed with you as your volumes grow.
DfAM review, material selection and first-article inspection from the engineers who run the machines.
Full property tables for all ten grades, both build envelopes, finishing options and design guidance — the reference our own engineers work from.
Datasheets only tell you so much. Our free sample pack puts real printed parts and finishes in your hand — so you can judge surface, stiffness and detail before you commit a run.
Upload your part for instant FDM pricing, or send us the files and we’ll quote it back. Large-format, engineering-grade, printed and finished in the UK.
Printed, finished and inspected at our own ISO 9001 facility in Shipston-on-Stour, Warwickshire. Over 2 million parts produced since 2017. Call us on 024 7736 0144.