FDM®
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.
Screens candidate applications before equipment decisions are made.
Connects material choice to operating environment and documentation needs.
Defines operator workflow, inspection route, and handover requirements.
Supports localized production planning where the business case is clear.
How does it work?
How the Technology Is Assessed
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.
Why choose FDM®?
Why the Selection Process Matters
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.
Compare Selected FDM® Systems
Review selected systems against the specifications that matter for application fit and implementation planning.
| Specifications |  Stratasys F900 |  Stratasys F770® |  Stratasys Fortus 450mc |
|---|---|---|---|
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. | |
| Learn More | Learn More | Learn More |
Relevant Industries
FDM can support industrial, aerospace-adjacent, and defense-adjacent workflows when material performance, inspection route, and documentation requirements are defined.
Application Opportunities
Candidate FDM applications are reviewed against geometry, material requirement, operating environment, inspection route, and business case.
Related Systems and Materials
Review systems and materials associated with FDM® before defining the production route.
Industrial 3D Printers
FDM system selection should be based on part size, material route, thermal requirements, operator workflow, documentation needs, and repeatability targets.
Stratasys F370®CR
Accessible industrial composite printing for strong, stiff, carbon-fiber-reinforced parts and everyday manufacturing needs.
Stratasys Fortus 450mc
Proven industrial FDM delivering dependable strength, accuracy, and repeatable results.
Stratasys F900
High-capacity FDM engineered for reliable, precise, and consistent manufacturing at scale.
Stratasys F170™
Accessible industrial-grade 3D printing with dependable accuracy, easy operation and versatile materials for classrooms and offices.
Stratasys F370®
Accessible industrial FDM printing with reliable performance, versatile materials, and easy operation for office or shop-floor use.
Evaluate FDM for Your Workflow
Review the FDM application, material route, system options, documentation needs, and operating model before scaling use.
Compatible Materials
FDM material selection depends on the operating environment, temperature exposure, mechanical requirement, inspection route, and approval pathway for the application.
Related FDM® Case Studies
East/West Industries Fortus 450mc FDM Case Study
Lockheed Martin Antero 840CN03 FDM Aerospace Parts Case Study
General Atomics Aerospace Additive Manufacturing Case Study
Related Insights & Resources
Rail Lightweighting in the GCC: Assessing Additive Manufacturing for Selected Components
Rail component lightweighting depends on application selection, material performance, qualification effort, inspection route, and operating environment. This article reviews where additive manufacturing and DfAM may support the assessment.
Oil & Gas Tooling and Spare Parts: Where Additive Manufacturing Fits
Oil and gas teams can use additive manufacturing for selected tooling, fixtures, maintenance support, and low-volume spare-part workflows when the operating environment and approval route are understood. This article reviews where the process may fit and where qualification limits must remain clear.
Supply Chain Resilience: Turning Disruption Risk Into Manufacturing Options
Industrial supply chain resilience depends on knowing which spare parts, tooling, and production-support items can move into a documented manufacturing route. This article explains how digital inventory, reverse engineering, additive manufacturing, and conventional supply options fit the decision.
Supply Chain Localization in UAE & KSA: Beyond the Additive Manufacturing Hype
Additive manufacturing can support local supply-chain planning when the right applications, materials, inspection routes, and documentation model are defined. This article reviews how UAE and Saudi industrial teams can assess parts to review before moving beyond prototyping.
