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3D Printing for Aerospace

Lightweight structures, complex internal channels, and topology-optimized components — additive manufacturing for aerospace engineering.

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Aerospace Industry Challenges

Weight is Everything

Every gram saved in aerospace translates directly to fuel savings, increased payload, or extended range. Traditional manufacturing limits the geometries that achieve minimum weight.

Complex Internal Geometries

Cooling channels, ducting, and manifolds with internal passages are expensive or impossible to produce with CNC machining or casting.

Certification & Traceability

Aerospace parts require full material traceability, documented mechanical properties, and compliance with stringent quality standards.

3D Printing Solutions for Aerospace

Topology-Optimized Structures

Print lattice-filled and topology-optimized brackets, mounts, and structural components that achieve 30–60% weight reduction while maintaining load capacity.

Internal Cooling Channels

SLS and FDM produce parts with fully enclosed internal channels, conformal cooling passages, and manifold geometries — printed as a single piece.

Rapid Prototype Validation

Validate aerodynamic surfaces, duct routing, and assembly interfaces with functional prototypes in 3–5 business days.

Low-Volume Flight Hardware

Produce flight-qualified polymer components for UAVs, satellites, and experimental aircraft without mold investment.

Recommended Technologies

Recommended Materials

Aerospace Quality & Documentation

We provide full material traceability, batch-specific datasheets, and first-article inspection reports for aerospace projects. Our SLS PA12 and FDM PC-CF/PA-GF materials come with documented tensile, flexural, and impact properties. For flight hardware, we can supply process documentation to support your AS9100 quality management system.

Frequently Asked Questions

Which material offers the best strength-to-weight ratio?

PC-CF delivers 90 MPa tensile at just 1.2 g/cm3 density. PA-GF provides 95 MPa with higher temperature resistance. SLS PA12 is ideal for complex shapes where isotropic properties matter.

Can 3D printed parts be used on aircraft?

For UAVs and experimental aircraft, SLS PA12 and PC-CF parts are widely used. For certified manned aircraft, consult your airworthiness authority on material qualification requirements.

How do you ensure batch-to-batch consistency?

We maintain calibrated equipment, fixed process parameters, and material lot tracking. Dimensional inspection reports are available for critical components.

Can you print parts with integrated mounting features?

Yes. Heat-set inserts, threaded bosses, and locating pins can be designed directly into the printed part, reducing assembly hardware and weight.

What is the maximum part size for aerospace components?

FDM: 250 x 210 x 210 mm. SLS: 220 x 220 x 330 mm. Larger components can be printed in sections and bonded with aerospace-grade adhesives.

Explore Aerospace 3D Printing

Contact us to discuss your aerospace application. Full material documentation and traceability available.

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3D Printing for Aerospace | Lightweight, Complex Geometry | MAB | Manifattura Additiva Bresciana