3D printing services
Industrial 3D printing support for prototypes, large-format parts, engineering materials, batch production, high-detail resin parts, powder-bed nylon, binder jetting, and metal additive manufacturing.
FDM 3D Printing
FDM uses thermoplastic filament to build durable plastic parts layer by layer. It is usually the most practical process for functional prototypes, fixtures, housings, and short-run parts where cost, turnaround, and material toughness matter more than cosmetic surface finish.
Brief description
Best-fit everyday industrial 3D printing for functional plastic parts, quick iteration, and production aids.
Materials
- PLA / PETG
- ABS / ASA
- TPU
- Nylon
- Polycarbonate blends
- Carbon-fiber-filled polymers
- Glass-filled polymers
- High-temp engineering materials
Best For
- Functional prototypes and fit-check parts
- Jigs, fixtures, brackets, housings, and guards
- Short-run plastic production without tooling
- Engineering-material parts where strength or heat resistance matters
Large-Format FDM
LF-FDM takes the practicality of filament printing and scales it for oversized parts. It is useful when the part is too large for normal desktop or benchtop machines, or when tooling and full-scale prototypes need to be made quickly without machining or mold tooling.
Brief description
Oversized FDM printing for parts, tooling, patterns, fixtures, and enclosures that exceed normal printer envelopes.
Materials
- PETG / ABS / ASA
- Nylon
- Carbon-fiber-filled materials
- Glass-filled materials
- PC blends
- Engineering thermoplastics
- Material matched to geometry
- Material matched to post-processing
Best For
- Large prototypes, mockups, and fit-check assemblies
- Foundry patterns, molds, tooling, and shop-floor aids
- Large fixtures, robotic tooling, and manufacturing supports
- Enclosures, covers, panels, and oversized functional parts
SLA 3D Printing
SLA and related resin processes use light-cured photopolymer resin to produce smooth surfaces, crisp details, and small features. It is often the right fit when a part needs to look polished or capture fine geometry that FDM would struggle to reproduce cleanly.
Brief description
High-detail resin printing for smooth, precise, presentation-ready parts and small-feature prototypes.
Materials
- Standard resins
- Tough / durable resins
- Flexible resins
- High-temperature resins
- Clear resins
- Castable resins
- Application-specific photopolymers
Best For
- Visual prototypes and presentation models
- Small parts with fine features and smooth surfaces
- Master patterns, fit checks, and form studies
- Parts where cosmetic finish matters more than raw toughness
SLS 3D Printing
SLS uses a laser to fuse polymer powder into strong nylon parts without traditional support structures. It is a strong fit for functional prototypes and batch quantities where durability, complex geometry, and consistent nylon performance are important.
Brief description
Powder-bed polymer printing for durable, support-free nylon parts with strong geometry freedom.
Materials
- Nylon 12 / PA12
- Nylon 11 / PA11
- Glass-filled nylon
- Carbon-filled nylon
- TPU
- Specialty powder materials
Best For
- Functional nylon prototypes and end-use parts
- Batch quantities with no hard tooling
- Clips, snap-fits, hinges, lattices, and complex geometry
- Parts that need better all-around strength than typical FDM orientation allows
BJ / Binder Jetting
Binder jetting selectively bonds powder material to create parts, molds, or cores. Depending on the material system, it can be used for metal components, sand casting molds and cores, ceramic-like parts, and higher-volume additive production strategies.
Brief description
Binder-based powder printing for parts and tooling where geometry freedom, batching, and material-specific post-processing can make the process attractive.
Materials
- Stainless steels
- Other metal powders
- Sand for molds and cores
- Ceramics
- Specialty powder systems
- Process-specific finishing
Best For
- Sand casting molds and cores
- Complex metal parts where binder jetting is process-appropriate
- Batch additive production with efficient nesting
- Geometry that benefits from no welded support structure
DMLS Metal Printing
DMLS is a laser powder-bed fusion process for producing dense metal parts directly from CAD. It is best used when the geometry, weight reduction, internal features, or low-volume production need justify metal additive manufacturing over machining or casting.
Brief description
Metal additive manufacturing for complex, high-value components where conventional manufacturing becomes difficult, expensive, or geometrically limiting.
Materials
- Stainless steel
- Aluminum alloys
- Titanium
- Inconel / nickel alloys
- Tool steels
- Cobalt chrome
- Other metal powders
- Heat-treated / finished options
Best For
- Complex metal parts and low-volume production components
- Lightweight structures, lattices, and topology-optimized parts
- Internal channels, manifolds, and heat-transfer geometry
- Parts where machining would require too many setups or impossible tool access
Project Gallery
Representative project photos and part examples from completed 3D printing work.
What You Receive
- Manufacturability review before quoting
- Access directly to a manufacturing engineer
- Best-fit recommendation for price, quality, and lead time
- Quick responses via call, email, or even text
- Clear communication if anything changes
- Delivery with defined expectations
Ready to get parts quoted?
Send over your CAD, drawings, or project notes. We’ll review the print process, material fit, quantity, and lead time so you are not guessing before production.
- CAD review
- Process guidance
- Material fit check
- Quote-ready feedback