
Stratasys F370®CR
Accessible industrial composite printing for strong, stiff, carbon-fiber-reinforced parts and everyday manufacturing needs.
FDM is a polymer additive manufacturing process used for selected tooling, fixtures, prototypes, and end-use applications. D2M helps clients review material fit, workflow control, documentation, operator training, and implementation route.

FDM® should be evaluated against the application, material requirement, build or measurement envelope, operating environment, post-processing needs, and inspection route.
The process route is only one part of the system. Teams also need file control, operator workflow, quality records, maintenance planning, and clear approval points before the technology becomes an operating capability.
FDM® may be useful where its process characteristics match the application requirement. It should not be selected because it is available or familiar.
D2M compares candidate applications, materials, production constraints, inspection needs, and commercial assumptions before recommending a route. The result is a technology decision tied to workflow and governance, not a machine-led purchase.
Review selected systems against the specifications that matter for application fit and implementation planning. Scroll the table horizontally to compare all systems.
| Specifications | StratasysStratasys F900 | StratasysStratasys F770® | StratasysStratasys Fortus 450mc |
|---|---|---|---|
| Selection notes | When part size, material performance, and repeatability are mission-critical, the F900 delivers industrial scale without compromising mechanical integrity. | If part size matters, the F770 provides dependable, large-format FDM capability with lower total cost of ownership. | If you want industrial-grade capability without stepping into large-format territory, the 450mc offers proven reliability and strong ROI across multiple industries. |
| Product details | View Stratasys F900 | View Stratasys F770® | View Stratasys Fortus 450mc |
FDM can support industrial, aerospace-adjacent, and defense-adjacent workflows when material performance, inspection route, and documentation requirements are defined.
Candidate FDM applications are reviewed against geometry, material requirement, operating environment, inspection route, and business case.
A selection of the products associated with this process, in the existing catalogue order. Open each complete catalogue to review the full range.
FDM system selection should be based on part size, material route, thermal requirements, operator workflow, documentation needs, and repeatability targets.
Showing 6 of 9 related products. All FDM® printers

Accessible industrial composite printing for strong, stiff, carbon-fiber-reinforced parts and everyday manufacturing needs.

Industrial FDM for tooling and parts needing engineering thermoplastics.

System route for application and workflow review.

High-capacity FDM engineered for reliable, precise, and consistent manufacturing at scale.

Accessible industrial-grade 3D printing with dependable accuracy, easy operation and versatile materials for classrooms and offices.

Accessible industrial FDM printing with reliable performance, versatile materials, and easy operation for office or shop-floor use.
FDM material selection depends on the operating environment, temperature exposure, mechanical requirement, inspection route, and approval pathway for the application.
Showing 6 of 27 related products. All FDM® materials

A stronger, tougher ABS material designed for reliable everyday industrial 3D printing.

ABS-M30i is an FDM ABS material for applications where OEM-documented biocompatibility, sterilization route, and operating requirements need to be reviewed.

Breakaway and soluble support materials enabling complex FDM geometries.

Material route for application and process review.

UV-stable FDM thermoplastic for durable outdoor and infrastructure applications.

Carbon-fiber-reinforced ABS for strong, lightweight tooling and fixtures that outperform standard engineering plastics.

East/West Industries

Lockheed Martin Space

General Atomics Aeronautical Systems, Inc. (GA-ASI)
An oversized FDM structure can be manufactured in sections, but each split introduces load-transfer, alignment, machining, assembly and inspection requirements. Careful interface design determines whether those sections form a repeatable production assembly.
A UAS programme may require compact PA12 parts in repeated batches, detailed subsystem hardware, large thermoplastic structures and composite tooling. Process selection depends on the component duty, production volume, downstream work, inspection and release requirements.
Compare Stratasys FDM systems for fixtures, large tooling and recurring part manufacture, including the new F870.
A printed thermoforming tool can match the CAD surface yet produce incomplete draws, visible surface defects or unstable results. Effective tooling design connects geometry with airflow, heat response, sealing, mounting and measured forming trials.
Learn how to evaluate the financial case for industrial 3D printing by reviewing utilization, material route, qualification effort, current supply constraints, and operating requirements.
A technical evaluation of ABS-ESD7 FDM parts, reviewing measured electrical resistance across selected printers, orientations, geometries, and build conditions.
Review how manufacturers evaluate FDM 3D printing for jigs, fixtures, and manufacturing aids by comparing application need, material route, workflow, and production constraints.
Review the FDM application, material route, system options, documentation needs, and operating model before scaling use.
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