Sockets · Braces · Componentry · Prototypes · Low-volume

Prosthetics & Orthopaedics 3D Printing

Prosthetic and orthopaedic devices — launch-ready, without the tooling wait. For the socket that’s gating your fitting and the low-volume brace run that can’t justify a mould. We serve non-implantable, patient-worn devices only — we hold ISO 9001, not ISO 13485.

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3D printed prosthetics UK · prosthetic socket 3D printing · orthotic brace manufacturing · low-volume device componentry

Overview

It usually starts with one awkward part

A socket is gating a patient’s fitting and the tool is weeks out. A clinic needs a low-volume brace run that injection moulding cannot justify. A terminal device needs three design iterations before sign-off. Different parts, same problem — it is patient-worn devices and componentry, it is holding up the fitting, and it is not implantable.

That is the call we take every day. RYSE 3D is a UK polymer additive manufacturer — FDM, SLS, SLA, MJF — that makes the part, finishes it, inspects it and ships it: one roof, one team you can hold to account. To be clear on scope: we serve the non-implantable side of prosthetics and orthopaedics — sockets, braces, componentry and prototypes worn by the patient, not implanted or otherwise patient-contact-critical inside the body. Two King’s Awards, ISO 9001, and the parts that get devices to fitting.

3D printed prosthetic socket, orthotic ankle brace and componentry on a bench at the RYSE 3D facility in Shipston-on-Stour

● On-site finishing & A-class paint — vapour smoothing, bead blasting, polishing, dyeing, coatings and paint, all in-house.
● Inspection & 3D scanning on-site — parts verified to tolerance before they ship.
● Patient-worn materials — plant-based PA11 for parts worn against the body, TPU 90A for flexible cushioning and liners, carbon-fibre-reinforced PA where a part must be light and rigid.
● Bespoke pellet-fed printers, built in-house for true production output.

Facility	8,000 sq ft, Warwickshire, UK
Production printers	100+ machines
Production programmes delivered	25+
Express lead time	1–3 days (SLS, FDM and SLA)
Components in service	2.5m+
Quality process	PPAP 1–4 approved
Scope	Non-implantable, patient-worn devices only — ISO 9001, not ISO 13485

What we run for prosthetics & orthopaedics teams

The device parts that get you to fitting

These are the jobs we run for prosthetics and orthopaedics teams every week — non-implantable sockets, braces and parts on the processes that suit each one. Send us yours and we will spec it the same way.

3D printed prosthetic socket with a perforated lattice wall, produced in nylon by RYSE 3D

Prosthetic sockets & liners

SLS / MJF PA12 · TPU 90A · dimensionally inspected in-house · finished

Durable functional sockets and cushioning liners in nylon and TPU — strong, dimensionally stable and finished, ready to fit to the patient.

3D printed orthotic ankle brace worn by a patient, manufactured in high-detail resin by RYSE 3D

Orthotic braces & supports

SLA · high detail · smooth finish

Visible braces and cosmetic supports where surface finish and tight tolerances lead — smooth SLA detail, ready for paint or coating.

Prosthetic componentry

SLS / MJF · repeatable · low-volume end-use

Rigid, load-bearing and functional parts for prosthetic and orthotic devices — repeatable batches without the cost of injection tooling.

3D printed prosthetic socket prototype being fitted to a patient, made in nylon by RYSE 3D

Functional prototypes

SLA / SLS / MJF · mirrors final device

Form, fit and function prototypes that mirror the final device — iterate the socket and the ergonomics before committing to tooling.

We serve the non-implantable side of prosthetics and orthopaedics — sockets, braces, componentry and prototypes worn by the patient, not implanted or otherwise patient-contact-critical inside the body. We hold ISO 9001, not ISO 13485, so we position firmly around non-regulated, patient-worn devices, and say so upfront. Tell us what is gating your fitting, and we will tell you the process and the lead time.

The two we run most

Most device work lands on SLS or SLA

We run all four processes, but the majority of what we print for prosthetics and orthopaedics teams goes on one of these two. They solve opposite halves of the same problem: SLS gives you the toughness and repeatability a socket or a component needs in daily wear, and SLA gives you the surface and the detail a visible brace or cosmetic cover needs.

SLS — sockets, componentry and grips

Sockets · componentry · terminal devices · low-volume end-use

● Parts build in loose powder, so lattices, ventilation patterns and consolidated geometry print with no supports and no witness marks — the geometry that takes weight out of a socket costs nothing extra.
● PA12 for durable sockets and componentry, PA11 where a part is worn against the body or has to flex and rebound rather than crack.
● PA12-CF where a part has to be light and rigid, and TPU 90A for flexible liners and cushioning worn against the limb.
● No minimum order and no tooling, so a socket is reprinted from the revised file the moment the fit changes rather than re-cut.

SLA — braces, covers and fine detail

Orthotic braces · cosmetic covers · masters · prototypes

● The smoothest as-printed surface of anything we run, which is what a visible brace or a cosmetic cover needs before paint or coating.
● Black PU for tough, cast-urethane-like functional parts, and Flexible 80A where a soft, rubber-like part suits the device better.
● Tight tolerances where a cover has to sit flush on componentry — ±0.3 mm up to 100 mm, then ±0.3 mm on the first 100 mm plus ±0.1% for every 100 mm beyond, inspected in-house.
● Build envelope is 353 × 196 × 350 mm, so a full-length brace is split, bonded and finished in-house rather than turned away.

We’re not a print shop — we’re the production line for non-implantable, patient-worn prosthetic and orthopaedic devices

Sockets, braces, componentry and prototypes. Two people usually sign this off, so here is what each of you walks away with.

For engineers

● Durable, hard-wearing builds — PA11, TPU 90A and carbon-fibre-reinforced PA: strength, fatigue resistance and dimensional stability for real devices. Not hobby plastic.
● Tolerances you can sign off — ±0.3 mm up to 100 mm, then ±0.3 mm on the first 100 mm plus ±0.1% for every 100 mm beyond, inspected in-house.
● Detail and finish where it shows — smooth SLA surfaces for cosmetic covers and tight-tolerance fits, TPU 90A for cushioned liner comfort.
● A straight answer on process — we tell you what fits, and what doesn’t.

For buyers

● Parts on time, every time — 2.5m+ components in service, 1–3 day express when a fitting is waiting.
● One supplier, not five — print, finishing and inspection under one roof.
● A programme you can defend — PPAP 1–4, ISO 9001, Cyber Essentials, full traceability, NDA-compliant.
● Iterate before you commit — device prototypes in days, refine the design before any tooling spend.

3D printed prosthetic sockets, an orthotic foot brace and device componentry produced by RYSE 3D

Prosthetics & orthopaedics sectors we support

Prosthetic clinicsOrthotics & bracingAssistive techSports medicinePaediatric orthopaedicsRehabilitation

Send us the CAD →No CAD? Send us the part

What we run

Tell us the part. We’ll tell you the process.

Nobody orders “an SLS part”. They order a socket, brace or component that has to do a job and perform, day after day. SLS and SLA take most device work, but we run all four processes, so your part goes on the one that performs, not the one machine we happen to own.

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SLS · Selective Laser Sintering

Tooling-free functional nylon. Max build 165 × 165 × 300 mm, up to 500 × 500 × 750 mm for PA12-CF. PA12, PA12-GF, PA12-CF, PA11 (plant-based), TPU 90A. 1–3 days express, 5–7 days standard. A Formlabs Fuse X1 arrives December 2026, the first in the UK.

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FDM · incl. large-format

Engineering-grade & large parts. Max build 500 × 500 × 900 mm (340 × 320 × 340 mm for PPA-CF). PA6-CF, PA12-CF, PA6/12-CF COPA, PA6-GF, PPA-CF, PET-CF, PC-FR, PETG-CF, ASA, ABS. Best for large and fibre-reinforced load-bearing parts, fitting jigs, fixtures and tooling. 1–3 days express, 5–7 days standard.

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SLA · Stereolithography

High-detail, rigid & flame-retardant. Max build 353 × 196 × 350 mm. Rigid 10K / High-Temp Ceramic-Filled, Tough 2000, Black PU Cast-Like, Flame-Retardant (UL94 V0), ESD, Clear V5, Flexible 80A. Best for orthotic braces, cosmetic covers, high-detail masters and prototypes. 1–3 days express, 5–7 days standard.

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MJF · Multi Jet Fusion

Durable functional end-use. Max build 380 × 284 × 380 mm. PA 12, PA 11 Gen2, TPU 01 (Shore A 88–90). Best for end-use device parts, componentry and clip features. Finished vapour smoothed, bead blasted, vibratory polished. Lead time 5–7 working days, standard only — there is no express tier on MJF.

Not sure which? That is the point of the quote — upload the CAD and we will spec it for you, free at our instant quote tool.

Where we fit

When we run your parts, here’s where they land

Additive earns its place when a socket is gating a fitting, a low-volume brace run cannot justify a mould, or a design needs another iteration. For prosthetics and orthopaedics teams — non-implantable only — that is most of the awkward jobs.

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Prosthetic sockets & liners

SLS / MJF PA12 · TPU 90A. Durable functional sockets and cushioning liners — strong, dimensionally stable, finished and ready to fit.

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Orthotic braces & supports

SLA. Smooth, high-detail braces and visible supports where surface finish and tight tolerances lead.

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Prosthetic componentry

SLS / MJF. Rigid, load-bearing and functional parts for prosthetic and orthotic devices — repeatable across a build.

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Custom grips & terminal devices

SLS / MJF. Comfortable, durable grips, handles and terminal devices — consolidated geometry moulding cannot match one-off.

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Fitting jigs & fixtures

FDM / SLS. Fitting jigs, fixtures and assembly aids — lighter and faster than machined tooling, easy to revise.

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Functional prototypes

SLA / SLS / MJF. Form, fit and function parts that mirror the final device — iterate before committing to tooling.

Row of 3D printed prosthetic arm assemblies on an assembly bench, produced by RYSE 3D

Got one of these on your bench now? Send it over — you will get a price back, not a sales call, at our instant quote tool.

Where additive pays off

Right part, right process

Additive isn’t the right answer for every part, and we’ll always tell you so. The value is putting your budget where it genuinely beats moulding: lower cost at your volumes, real design freedom, and parts in days instead of tooling lead-times. Small parts stay ahead to high volumes; bigger or complex parts suit additive up to around 10,000 a year, then moulding takes over. For non-implantable prosthetic and orthotic work — low volume, fitting-critical timing — additive almost always wins.

Where additive wins for you

✓ Tooling gating your fitting? Skip the wait — sockets and braces in days.
✓ Detail and finish where it shows — smooth SLA covers, TPU 90A liners for comfort.
✓ Speed — prototypes and low-volume sockets in days, express when a fitting is waiting.
✓ Iterate the design freely — reprint the socket the moment the fit changes.
✓ Low-volume device and componentry runs without committing to injection tooling.

Where we’ll tell you straight

● We do not supply implantable or otherwise patient-contact-critical parts. Non-implantable, patient-worn sockets, braces and componentry only, and we will say so upfront.
● Regulated medical manufacture often expects ISO 13485 — we hold ISO 9001, Cyber Essentials and PPAP 1–4, not ISO 13485, so we position around non-regulated, patient-worn devices.
● If your device carries a specific biocompatibility or skin-contact standard, send it to us early and we will confirm what we can supply before you design around a grade.
● Metal or load-critical parts — we are polymer, so for those we will point you the right way.

Send us the CAD, no charge →

FAQ

Prosthetics & orthopaedics 3D printing FAQ

Can you 3D print implantable prosthetic or orthopaedic parts?

No. We serve the non-implantable side of prosthetics and orthopaedics only — sockets, braces, componentry and prototypes worn by the patient, not implanted or otherwise patient-contact-critical inside the body. Anything implantable sits outside what we do and we will say so upfront rather than take the work.

Do you hold ISO 13485 for medical device manufacture?

No. We hold ISO 9001, Cyber Essentials and PPAP 1–4 approval, with full traceability and NDA-compliant working. Regulated medical manufacture often expects ISO 13485, which we do not hold, so we position firmly around non-regulated, patient-worn devices. Tell us your regulatory route early and we will be straight about whether we are the right supplier.

What prosthetic and orthopaedic parts can you 3D print?

Prosthetic sockets and cushioning liners, orthotic braces and supports, prosthetic and orthotic componentry, custom grips and terminal devices, fitting jigs and fixtures, and functional prototypes that mirror the final device. All non-implantable, all patient-worn or workshop-side.

Which materials do you use for patient-worn devices?

Plant-based PA11 and TPU 90A are the usual choices for parts worn against the body — PA11 for durable sockets and componentry, TPU 90A for flexible liners and cushioning. Carbon-fibre-reinforced PA is used where a part needs to be light and rigid. SLA gives the smooth surface that cosmetic covers and visible braces need. If your device has a specific biocompatibility or skin-contact requirement, send us the standard you are working to and we will confirm what we can supply before you design around a grade.

How fast can you turn around a socket or a brace?

Express lead time is 1–3 days on SLS, FDM and SLA, with 5–7 days standard. MJF runs 5–7 working days, standard only — there is no express tier on that process. When a socket is gating a fitting, that is usually the difference between the patient being seen this week and waiting on a tool.

Can you reprint a socket when the fit changes?

Yes, and that is much of the point. There is no tooling to rework, so the socket is reprinted from the revised file rather than re-cut. Teams iterate the fit and the ergonomics freely across a fitting cycle, then run the signed-off design as a repeatable low-volume part on the same process.

Can you make orthotic braces with a finish that is ready to wear?

SLA gives the smoothest as-printed surface we run, which is what visible braces and cosmetic covers need before paint or coating. Finishing is all in-house — vapour smoothing, bead blasting, polishing, dyeing, coatings and A-class paint — so the part arrives finished rather than needing a second supplier.

What volumes make sense for low-volume device runs?

Small parts stay ahead of moulding to high volumes; bigger or more complex parts suit additive up to around 10,000 a year, after which moulding usually takes over on unit cost. For non-implantable prosthetic and orthotic work — low volume, fitting-critical timing — additive almost always wins, because there is no tooling to justify and no minimum order.

How do I get a prosthetic or orthotic part quoted in the UK?

Upload your CAD to our instant quote tool for pricing from a single prototype up to 100,000 parts. No CAD? Post us the part and we will 3D-scan it, reverse-engineer it and quote it back. Everything is printed, finished and inspected at our own ISO 9001 facility in Shipston-on-Stour, Warwickshire, and we ship UK-wide.

Ready when you are

You’ll want to see what we’d do with your part.

Upload one and get an instant price on up to 100,000 parts, or post us the part and we will scan it, reverse-engineer it and quote it back. Sockets, braces, componentry and prototypes, printed, finished and inspected under one UK roof — non-implantable devices only.

Get an instant quote → No CAD? Send us the part

Printed, finished and inspected at our own ISO 9001 facility in Shipston-on-Stour, Warwickshire. Call us on 024 7736 0144 or request a free sample pack.