Industrial 3D printing, from prototype to production.

Factory-direct SLA, SLS, MJF, FDM, and SLM/DMLS for detailed resin models, durable polymer parts, large-format tooling, and complex metal components, supported by DfAM review and post-processing.

Choose the additive process by geometry and material

Stereolithography printer build chamber with small white resin parts suspended above the build platform

SLA (Stereolithography)

SLA cures photopolymer resin layer by layer to produce fine features and smooth surfaces. It is suited to visual models, clear parts, casting masters, medical models, and fit-check prototypes.

  • Fine Detail
  • Smooth Surfaces
  • Clear & Specialty Resins
Complete gray SLS nylon lattice structure with interlocking curved ribs and perforated surfaces

SLS (Selective Laser Sintering)

SLS fuses nylon powder without dedicated support structures, enabling nested builds, internal passages, snap-fits, and durable functional parts.

  • Support-Free Builds
  • Functional Nylon
  • Complex Geometry
Light gray MJF housing with two circular cavities, recessed channels, and perimeter mounting tabs on a dark wood surface

MJF (Multi Jet Fusion)

MJF produces nylon and elastomeric parts with consistent mechanical properties, fine feature definition, and efficient build packing for prototypes and repeat production.

  • Production Nylon
  • Consistent Properties
  • Batch Efficiency
Metal powder-bed-fusion machine building metal components on a flat build plate

Metal Powder Bed Fusion (SLM/DMLS)

A laser fuses metal powder to produce dense components with internal channels, lattice structures, and consolidated geometries. Stress relief, support removal, heat treatment, and secondary CNC machining are applied as required.

  • Dense Metal Parts
  • Internal Channels
  • Machining Integration
FDM print head depositing white engineering-polymer components on a blue build platform

FDM (Fused Deposition Modeling)

FDM deposits engineering thermoplastics to build large, strong parts with practical cost and lead time. It is suited to jigs, fixtures, assembly aids, housings, and early functional prototypes.

  • Large Format
  • Jigs & Fixtures
  • Engineering Thermoplastics

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Process control from build preparation through finishing

Rows of additive manufacturing systems arranged across an industrial production room

Industrial Capacity for Repeat Builds

A coordinated fleet of industrial polymer and metal systems supports parallel builds, controlled processing, and repeat orders from prototypes through low-volume production.

  • Capacity for one-off and batch production
  • Controlled build preparation and process records
White additively manufactured nylon frame with lattice reinforcement on a wooden workshop surface

Materials Selected for Part Performance

Resins, nylon powders, metals, and engineering thermoplastics are matched to the required strength, flexibility, temperature, chemical exposure, appearance, and regulatory needs.

  • Material data and certifications available
  • Options for clear, flexible, high-temperature, and flame-retardant parts
Small batch of complete white prototype components arranged on a warm neutral inspection surface

Faster Iteration Without Tooling

Additive manufacturing moves directly from approved CAD data to production, allowing teams to test geometry, fit, assembly, and performance before committing to tooling.

  • Prototype parts shipped in as fast as 24–48 hours
  • Design revisions can enter the next build without new tooling

Process-specific controls for repeatable printed parts.

Print orientation, layer thickness, support strategy, build packing, thermal history, and post-processing all affect the finished part. These requirements are reviewed by process and material before production.

ADDITIVE CAPABILITIES

3D printing specifications

  • SLA layer thickness down to 0.05 mm (50 μm)
  • Build volumes up to 800 × 800 × 500 mm
  • SLA and SLM/DMLS dimensional tolerances typically ±0.1 mm or ±0.2%, subject to geometry
  • SLS, MJF, and FDM tolerances defined by process, material, orientation, and part size
  • SLM/DMLS part density up to 99.9%
  • Stress relief, heat treatment, support removal, and secondary CNC machining available

3D printing materials and post-processing

Polymers & Metals

Choose materials by stiffness, toughness, flexibility, heat resistance, chemical exposure, appearance, and end-use requirements. Material documentation is available on request.

SLA Resins
Standard · Tough/Durable · Clear · High-Temperature · Castable · Biocompatible
SLS Powders
PA12 · PA11 · Glass-Filled Nylon · TPU
MJF Materials
PA12 · PA11 · Polypropylene · TPU
SLM/DMLS Metals
Ti6Al4V · AlSi10Mg · Stainless Steel 316L · Tool Steel
FDM Thermoplastics
ABS · Polycarbonate · ULTEM™ 9085
Explore All Materials

Post-Processing & Secondary Operations

Post-processing is selected to remove supports or powder, improve appearance, seal surfaces, tune material properties, and finish critical interfaces.

Cleaning & Support Removal
Depowdering · Support Removal · Washing · UV Post-Cure
Surface Smoothing
Sanding · Polishing · Vapor Smoothing · Media Tumbling
Color & Coating
Dyeing · Priming · Pantone-Matched Painting
Metal Post-Processing
Stress Relief · Heat Treatment · Bead Blasting
Precision Secondary Operations
CNC Machining · Tapping · Inserts · Dimensional Inspection
Explore All Finishes

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3D printing questions, answered

Choose SLA for fine details, smooth surfaces, clear parts, and visual models; SLS for durable support-free nylon parts; MJF for consistent polymer parts and efficient repeat production; FDM for large engineering-thermoplastic jigs and prototypes; and SLM/DMLS for dense metal components with complex internal features. Our engineers confirm the process after reviewing geometry, material requirements, quantity, finish, and end use.