3D printing
Functional prototypes and end-use parts in as little as 3 days. MJF, SLS, FDM, SLA, and DMLS across five additive technologies.
Engineer reviewed quote
Want to learn more? Read on.
Printed parts we ship.
Functional parts across five technologies. The part decides the process, not the other way around.
Nylon batch
Powder bed nylon, printed and depowdered as one build.
Mount bracket
Powder bed nylon with the mount and the ribs printed in one piece.
Build rack
Powder bed nylon in natural gray, racked after depowdering and waiting on finishing.
Design for additive
3D printing DfAM
Thickness
Thin walls are the Achilles heel of 3D printing. Each tech is different, but holding at least 1mm keeps you safe in all of them. Below 1mm things get fragile.
Lightweight
Thickness is no guarantee of robustness. In fact, removing material and lightweighting parts via sparse fill or topology optimization can improve strength and lower your cost.
Print orientation
No matter the technology, identifying a proper print orientation is key for accuracy, strength, and finish.
Feature size
Knife edges, through holes, and features under 1mm will differ from your CAD model. If that precision is essential, we'll post-process accordingly.
Technologies
Technology breakdown
SLS & MJF
SLS and MJF are not only ideal for prototyping but they also offer a cost-effective alternative to injection molding for small batch runs without the hefty upfront cost of tooling. Our powder-based technologies help you create high-quality components quickly, allowing you to test your product and scale with confidence.
- Materials
- PA12, PA11, PA12+30GF, PP, TPU88A
- Accuracy
- ±0.005" per inch
- Machines
- 33 units
- No support structures, complex geometry without penalty
- Isotropic mechanical properties
- Glass-filled PA12 for structural applications
- TPU88A for flexible, rubber-like parts
FDM
Fused Deposition Modeling is the fan favorite additive method, offering the widest range of material options for everything from functional prototypes to end-use parts. With its large build tray, durable material, and proven reliability, FDM technology is the perfect fit for many different applications.
- Materials
- PLA, ABS, TPU 95A, PC, PC-ABS, ULTEM
- Accuracy
- ±0.005" per inch
- Machines
- 8 units
- Widest material selection including high-temp ULTEM
- Large build volumes up to 36" × 24" × 36"
- Functional prototypes in real thermoplastics
- Low cost per part for simple geometries
SLA
UV laser cures liquid photopolymer layer by layer. Smooth surfaces and fine detail, with accuracy confirmed at quote. Best for cosmetic prototypes, master patterns for urethane casting, and fit-check assemblies.
- Materials
- ABS-like photopolymers
- Accuracy
- ±0.002" per inch
- Machines
- 90 units (SLA 850 + MSLA 300)
- Finest surface finish of any additive process
- Excellent for cosmetic and presentation models
- Master patterns for silicone mold tooling
- Transparent and flexible resin options
DMLS
Direct Metal Laser Sintering uses a laser to fuse fine metal powder layer by layer into solid metal parts. No tooling and no fixturing, so internal channels, lattices, and consolidated assemblies that a cutter can't reach come out in one piece. Best for functional metal prototypes and low volume end use parts.
- Materials
- SS 17-4PH, copper
- Accuracy
- Confirmed at quote
- Machines
- 10 units
- Metal parts with no tooling cost
- Internal channels and geometry a cutter can't reach
- 17-4PH stainless for strength and corrosion resistance
- Copper for thermal and electrical conductivity
Technologies, build size, lead times.
No minimum. We print single prototypes through runs of thousands. There's no tooling, so there's no setup cost pushing you toward a minimum order.
SLA for cosmetic finish and fine detail. SLS/MJF for functional nylon parts with complex geometry. FDM for large parts or high-temp thermoplastics like ULTEM. DMLS for metal. We look at your geometry, material needs, and end use to recommend the right process.
STEP, IGES, STL, and 3MF. We prefer STEP or IGES for quoting since STL files don't carry dimensional metadata. Native CAD (SolidWorks, Creo, NX) accepted on request.
Yes. MJF PA12+30GF and FDM ULTEM parts are running in aerospace and automotive production. SLS PA12 is standard for production jigs, fixtures, and end-use parts. We match process and material to your mechanical and environmental needs.
Post-machining for tight-tolerance features, dye coloring, split-and-glue for oversized assemblies, and heat-stake assembly for multi-part builds. Vapor smoothing and media blasting also available.
As fast as 3 days for SLA and FDM. SLS and MJF typically ship in 5 business days. DMLS metal parts in 7 to 10 days. Expedited options available, contact us with your timeline.
36" × 24" × 36" on our largest FDM machines. SLA is 33" × 20" × 16". For parts bigger than the build envelope, we section and bond with structural adhesives.
Every quote is reviewed by an engineer, and we flag thin walls, small features, or anything else that will not print as modeled. A full DfAM study, such as lightweighting or topology optimization, is scoped case by case. Ask for it with your quote.
Next step
Parts in 3 days. No tooling needed.
Send the CAD. An engineer replies in 1 to 2 business days.
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