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FDM Technology

Fused Deposition Modelling (FDM) creates parts layer-by-layer with engineering-grade thermoplastics. FDM is often used to build complex geometries and functional parts, including prototypes, low-volume production pieces, manufacturing aids, and jigs and fixtures.

FDM Benefits

  • The technology is clean, simple-to-use and office-friendly
  • Supported production-grade thermoplastics are mechanically and environmentally stable
  • Complex geometries and cavities that would otherwise be problematic become practical with FDM technology

FDM Thermoplastics

FDM Technology uses the same tried and tested thermoplastics found in traditional manufacturing processes. For applications that demand tight tolerances, toughness and environmental stability – or specialized properties like electrostatic dissipation, translucence, biocompatibility, VO flammability or FST ratings – there’s an FDM thermoplastic that can deliver.

FDM Applications

FDM parts are unrivaled in mechanical, thermal and chemical strength making it an ideal technology for challenging plastic applications.

Common applications include:

  • Manufacturing aids
  • Jigs and fixtures
  • Carbon fiber layup tooling
  • Functional prototypes
  • Low volume production parts

PolyJet Technology

PolyJet is a 3D printing process that jets and cures thin layers of liquid photopolymer with UV energy. It is capable of printing in 16-micron layers and in multiple durometers and many colors for multi-material parts. PolyJet is an excellent option for realistic, high-resolution models and prototypes, short-run injection molds and master patterns for urethane casting.

PolyJet Benefits

  • Create smooth, detailed prototypes that convey final-product aesthetics.
  • Produce accurate molds, jigs, fixtures and other manufacturing tools.
  • Achieve complex shapes, intricate details and delicate features.
  • Incorporate the widest variety of colors and materials into a single model for unbeatable efficiency.

PolyJet Applications

PolyJet is best suited for small parts when accuracy, detail, and surface finish are essential.

Common applications include:

  • Presentation models
  • Master patterns
  • Form and fit models
  • Flexible, rubber-like models
  • Medical device prototypes
  • Prototypes for fittings, valves, and parts with complex interior features

Direct Metal Laser Sintering

Direct Metal Laser Sintering (DMLS) uses a precise, high-wattage laser to micro-weld powdered metals and alloys to form fully functional metal components from your CAD data. DMLS eliminates time-consuming tooling, and creates complex geometries not possible with other metal manufacturing processes. Made from materials like Inconel, Aluminum, Stainless Steel, and Titanium, DMLS parts are strong, durable, and heat-resistant. DMLS parts are also denser than investment casted metal parts. This accurate metal 3D printing process provides fine feature detail, making it ideal for complex oil and gas components, custom medical guides, consolidated aerospace parts, and tough functional prototypes.

Benefits of DMLS

Design Freedom

Build real metal parts without conventional manufacturing limitations. With DMLS, you can create durable, intricate metal parts that until now, were difficult or impossible to fabricate with other manufacturing processes.

Streamlined Manufacturing

Consolidate design and optimize value. As a 3D printing technology, DMLS allows you to integrate multiple components – such as mountings, fasteners, and sectioned parts – into a single, strong metal part. This reduces weight, cuts down waste, and saves the time and resources needed for assembly.

Functional Parts, Fast

Cut lead times and get results. From prototypes to low-volume production parts, DMLS can accelerate your project’s design and manufacturing timeline. Build tough, hard-working prototypes to test components in real-world applications, and eliminate time-consuming tooling for low-volume production parts.

DMLS Applications

DMLS is a great solution for complex metal parts you can’t build with conventional manufacturing technologies.

Common applications include:

  • Parts with cavities, undercuts, draft angles
  • Fit, form, and function models
  • Tooling, fixtures, and jigs
  • Conformal cooling channels
  • Rotors and impellers
  • Complex bracketing


Stereolithography (also known as SL or SLA) builds parts layer-by-layer using a UV laser to solidify liquid photopolymer resins. It is commonly used to produce concept models, master patterns, large prototypes and investment casting patterns.

Stereolithography (SL) Applications

SL is often used for prototypes or large concept models that require coatings or finished surfaces and smooth master patterns.

Common applications include:

  • Anatomical models
  • Lightweight concept models
  • Architectural models
  • Urethane casting patterns
  • Large investment cast patterns

Laser Sintering

Laser Sintering (also known as Selective Laser Sintering, SLS or LS) uses a CO2 laser to heat and fuse durable thermoplastic powder to build versatile parts with high elongation at break. LS production parts and prototypes provide lightweight, heat and chemical resistant solutions.

LS Applications

LS is excellent for functional prototyping or production parts in a variety of taxing environments.

Common applications include:

  • Ductwork
  • Fuel tanks
  • Control surfaces
  • Flight-certified parts
  • Brackets, clips, clamps