FDM 3D Printing

FDM 3D Printing Services in Canada

FDM (fused deposition modeling) is the most accessible and most widely deployed 3D printing process in Canada. Heated nozzles extrude thermoplastic filament layer by layer, building parts in a wide range of engineering materials at a wide range of price points. FDM is the right tool for functional prototypes, factory jigs and fixtures, end-use industrial parts, and any application where mechanical performance, material variety, or cost dominates over surface finish.

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FDM 3D Printing in Canada

FDM is the original and still the most widely deployed 3D printing process. A heated nozzle extrudes thermoplastic filament along a programmed path, building the part layer by layer. Industrial FDM machines deliver real engineering thermoplastics — Polycarbonate, ULTEM, PEEK — at industrial scale, while accessible desktop FDM handles prototyping and low-tolerance work.

Where FDM Wins

Engineering prototypes. Real material properties for functional testing. PETG and Nylon prototypes can be tested under load before tooling is committed.

Jigs, fixtures, and tooling. End-of-arm tooling, assembly fixtures, inspection jigs, and short-run molds for low-volume production. ULTEM 9085 jigs survive the factory floor.

Aerospace and defence interior parts. Flight-qualified ULTEM 9085 has been on commercial aircraft for over a decade. Canadian aerospace customers in Quebec and Ontario use FDM extensively.

Replacement parts and short-run production. Out-of-production OEM parts, custom replacements, and low-volume production where tooling investment is not justified.

Industrial vs. Desktop FDM

ClassStrengthUse Case
Industrial FDMHigh-temp materials, sealed chamber, soluble supportsAerospace, medical, production tooling
Desktop FDMLow cost, fast turnaround, accessible materialsPrototypes, internal-use parts, education

We route based on the material, tolerance, and certification needs of your specific job.

Material Selection

General prototyping — PLA, PETG, ABS. Functional prototypes — Nylon, Polycarbonate, ASA. Engineering and industrial — ULTEM 9085, ULTEM 1010, PEEK. Flexible parts — TPU.

For finer surface detail than FDM provides, route to SLA or SLS instead.

Specifications

FDM 3D Printing at a Glance

Certifications
  • ISO 9001:2015
  • AS9100 (Aerospace, select shops)
  • ISO 13485 (Medical, select shops)
Tolerances
Standard
+/- 0.5 mm or +/- 0.5%
Precision
+/- 0.2 mm (industrial FDM)
Lead Times
Prototype
1–3 business days
Production
5–10 business days
Network
Closed Beta

We're actively vetting suppliers. Join the waitlist for priority access.

Available Materials

ABS PLA PETG Nylon (PA12, PA6/CF) Polycarbonate (PC) ULTEM 9085 / 1010 PEEK TPU (Flexible) ASA (UV-stable)

Industries We Serve

Aerospace
Automotive
Industrial Equipment
Consumer Products
Medical Devices
Defence

Frequently Asked Questions

When is FDM the right 3D printing process?
FDM is the right call for functional prototypes that need real engineering material properties (PETG, Nylon, Polycarbonate, ULTEM, PEEK), for end-use jigs and fixtures used on the factory floor, and for low-volume production parts where cost per part matters more than surface finish. It is the wrong choice when fine surface detail is critical — for that, see [SLA](/manufacturing/3d-printing/sla/) — or when isotropic mechanical properties matter more than print orientation strength.
Can FDM produce aerospace-qualified parts?
Yes — Stratasys FDM with ULTEM 9085 has been used in production aerospace parts since the early 2010s. AS9100-certified Canadian shops with industrial FDM machines (Stratasys F900, Fortus 450mc and similar) can produce flight-qualified ULTEM 9085 parts for aircraft interiors, ducting, and tooling applications.
What's the difference between desktop and industrial FDM?
Industrial FDM machines use heated, sealed build chambers that allow printing high-temperature engineering materials like Polycarbonate, ULTEM, and PEEK. They also support water-soluble support material that allows complex internal geometries. Desktop machines are limited to lower-temperature materials but cost a fraction as much. Both have their place — we route based on the material and tolerance requirement.
How do FDM parts perform vs. injection molded parts?
FDM parts are typically anisotropic — strength along layer lines is significantly lower than strength across them. For high-stress production parts, injection molding is structurally superior. FDM excels for moderate-stress functional applications, jigs, fixtures, low-volume production where tooling cost cannot be justified, and prototypes where rapid iteration matters more than ultimate strength.

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