Stratasys Expands Additive Manufacturing Solutions Across 20+ GM Facilities

Stratasys has expanded its technical collaboration with General Motors to deploy fused deposition modeling platforms across more than twenty vehicle manufacturing facilities throughout North and South America. This industrial additive manufacturing initiative integrates production-grade hardware, specialized polymer materials, and engineering software to support the on-demand fabrication of structural tooling, assembly aids, and functional automotive components.

Decentralized Additive Tooling and Factory Aid Fabrication
Automotive assembly facilities frequently encounter production interruptions and lengthy procurement cycles when sourcing conventional tooling and low-volume assembly aids from external machine shops. Fabricating custom jigs, inspection fixtures, protective masks, and ergonomic lifting devices via traditional subtractive computerized numerical control machining often demands lead times ranging from several weeks to months, while incurring high labor and setup costs.

General Motors addresses these manufacturing bottlenecks by integrating Stratasys fused deposition modeling hardware directly into factory floor operations. Assembly plant teams utilize industrial additive systems to manufacture inspection gauges, alignment fixtures, robotic end-of-arm tools, and functional replacement components. By shifting tool production from external supply chains to on-site additive fabrication, plant technicians reduce component development cycles from weeks to several hours. The resulting thermoplastic assemblies provide structural rigidity and reduced mass, which minimizes operator fatigue during manual assembly line tasks.

Enterprise Scale and Digital File Transfer Protocols
Scaling additive technology across a distributed manufacturing network requires uniform material performance, dimensional accuracy, and digital workflow compatibility. General Motors utilizes the large-format Stratasys F900 industrial production system to ensure dimensional repeatability across disparate plant locations. The integration of centralized computer-aided design files allows an engineering team at a single facility to design, validate, and digitally transfer component specifications to sister plants across the Americas for localized printing without requalifying tool geometries.

Yoav Zeif, Chief Executive Officer of Stratasys, noted that embedding additive manufacturing directly within production operations creates an architecture where local factory-floor engineering can be converted into enterprise-wide standard tooling.

Doneen McDowell, Manufacturing Vice President of North America Full Size Truck and Large SUV Assembly Operations at General Motors, explained that equipping plant personnel with direct-digital manufacturing capability allows facility teams to address operational constraints within their immediate footprint, after which validated tooling designs are replicated across the broader manufacturing network.

Industrial System Demonstration at Manufacturing Technology Event
The enterprise deployment and factory-floor applications were presented at the International Manufacturing Technology Show (IMTS 2026), held September 14–19, 2026, at McCormick Place in Chicago, Illinois. The showcase demonstrated the cross-facility integration of hardware, software, and application engineering across North American truck and utility vehicle assembly plants, detailing measurable reductions in assembly downtime, secondary machining expenses, and prototype iteration intervals.

Additional Context:
This section details technical specifications and competitive benchmarking not included in the original product announcement

The primary production system referenced, the Stratasys F900, utilizes fused deposition modeling extrusion with a build volume measuring 914.4 by 609.6 by 914.4 millimeters (0.51 cubic meters). The machine delivers an achievable dimensional accuracy of plus or minus 0.089 millimeters, or plus or minus 0.0015 millimeters per millimeter, depending on component geometry. The system processes engineering-grade and high-performance thermoplastics, including polyetherketoneketone under the Antero grade designation, polyetherimide under the ULTEM 9085 and ULTEM 1010 designations, and carbon-fiber-reinforced polyamide-12. It utilizes soluble support materials that allow automated chemical dissolution, facilitating internal channels and undercut geometries without manual tooling clearance.

Within the high-temperature industrial extrusion segment, comparable benchmark systems include the Markforged FX20 and the Roboze ARGO 500.

The Markforged FX20 provides a build envelope of 525 by 400 by 400 millimeters (0.084 cubic meters) and operates a heated chamber up to 200 degrees Celsius. While offering approximately one-sixth the build volume of the F900, the FX20 differentiates through continuous fiber reinforcement, embedding continuous strands of carbon fiber directly within matrices such as ULTEM 9085 to achieve higher tensile strength and stiffness along primary load paths.

The Roboze ARGO 500 features a build volume of 500 by 500 by 500 millimeters (0.125 cubic meters) and incorporates a high-temperature chamber maintaining 180 degrees Celsius with an extruder reaching 450 to 500 degrees Celsius. The ARGO 500 utilizes a beltless rack-and-pinion kinematic motion system that achieves mechanical positioning precision of 10 microns along the horizontal axes. It is engineered to process neat and reinforced polyetheretherketone and polyetherketoneketone superpolymers, though it relies on breakaway support filaments rather than full liquid-soluble support integration.

Edited by Natania Lyngdoh, Induportals editor, assisted by AI.

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