Skip to content
Why Choose Our 3D Printing Services

Additive Manufacturing Capabilities

Speed, quality, and material selection that accelerates your product development

Lightning Speed

Typically 1–5 day turnaround for most parts

Typical: 1–5 days
5+

Multi-Technology

SLA, SLS, FDM, MJF, and DMLS technologies under one roof. Choose the right process for your application

Polymer & Metal
101 materials
Pro

Professional Finishing

Complete post-processing services including sanding, painting, plating, and assembly

Paint & coating
Thread tapping
Advanced 3D Printing Technologies

Choose Your Technology

Five technologies under one roof. Select the right process for your application, volume, and budget.

SLA

Stereolithography

LIQUID RESIN CURING
UV Laser
Liquid Resin Pool
Layer-by-Layer
RESOLUTION
25 µm
Ultra-fine detail
LEAD TIME
1–2 Days
Fast turnaround
SURFACE
Smooth
Glass-like finish
MATERIALS
Resins
Specialized properties
Best For:
High-detail prototypes and miniatures
Jewelry and dental applications
Smooth surface finish requirements
Small to medium-sized parts

MJF

Multi Jet Fusion

POWDER BED FUSION
HP Inkjet + IR Fusing
Nylon Powder
No Support Needed
STRENGTH
High
Production-grade
LEAD TIME
2–3 Days
Batch processing
SUPPORTS
None
Complex geometries
VOLUME
Large
1–10,000 pcs
Best For:
Functional prototypes and end-use parts
Complex assemblies and interlocking parts
Batch production of small parts
EV/Automotive and industrial applications

FDM

Fused Deposition Modeling

FILAMENT EXTRUSION
Heated Nozzle
Thermoplastic Filament
Layer Deposition
COST
Lowest
Budget-friendly
MATERIALS
Wide
PLA, ABS, PETG+
SIZE
Large
Up to 12” builds
POST-PROCESS
Minimal
Ready to use
Best For:
Concept models and rapid iterations
Large parts and fixtures
Educational and hobby projects
Cost-sensitive prototyping
Full 5-technology comparison table
SLA vs SLS vs FDM vs MJF vs DMLS — layer height, tolerances, surface finish, materials, cost, and production volume comparison
FeatureSLASLSFDMMJFDMLS
ProcessUV laser resin curingCO₂ laser powder bedThermoplastic extrusionHP inkjet + IR fusing agentFiber laser metal powder
Layer height25–100 µm60–120 µm100–400 µm80 µm (fixed)20–60 µm
Tolerance (typical)±0.13 mm (±0.005 in.)±0.25 mm (±0.010 in.)±0.5 mm (±0.020 in.)±0.20 mm (±0.008 in.)±0.10 mm (±0.004 in.)
Surface finish (Ra)1–3 µm (40–120 µin.)6–15 µm (240–590 µin.)10–25 µm (390–980 µin.)5–10 µm (200–400 µin.)6–20 µm (240–790 µin.) as-built
Supports neededYesNoYes (>45° overhang)No — self-supportingYes
IsotropyModerate (XY > Z)GoodAnisotropic (Z-weak)Near-isotropicNear-isotropic (post HIP)
Key materialsStandard, Tough, Flexible, High-Temp, Castable resinsPA12, PA11, PA12-GF, PA12-CF, TPU, PPPLA, ABS, PETG, Nylon, PC, PEEK, PEIPA12, PA11, PA12-GB, TPU, PPTi-6Al-4V, 316L, 17-4 PH, Inconel, AlSi10Mg
Typical turnaround1–3 days2–4 days1–2 days2–3 days5–10 days + post-processing
Cost per part$15–80$30–80$3–50$25–65; $8–20/ea at 200+ pcs$150–500
Production volume1–50 pcs1–1,000 pcs1–50 pcs1–10,000 pcs1–100 pcs
Best forVisual prototypes, dental models, jewelry patterns, master patterns for silicone moldsFunctional prototypes, ducting, snap-fits, robotics brackets, small-batch productionConcept models, jigs & fixtures, large-format parts, rapid iterationBridge production (100–10K units), automotive interiors, consumer electronics housings, medical devices, snap-fit enclosuresRobotics structural brackets, conformal cooling inserts, medical implants, high-temp alloy tooling

Debating whether to bring industrial 3D printing in-house?

Before you buy that next production AM system, run the numbers. See our detailed breakdown of capital equipment, material handling, and hidden operational costs.

Read the Cost Analysis
Advanced Material Library

101 specialized materials

From engineering-grade polymers to resins suitable for biocompatible applications and metal alloys, we offer a comprehensive 3D printing material library.

Resins

Precision liquid photopolymers

Standard Clear

General purpose, smooth finish

Cure: RT

Tough Black

ABS-like mechanical properties

Cure: RT

Durable

High impact, snap-fits, wear resistance

Cure: RT

Castable

Investment casting patterns

Burnout: 500°C

High Temp

Fixtures, under-hood, thermal testing

HDT: 200°C

Nylon Powders

Production-grade polymers

PA12 Natural

High strength, chemical resistant

Strength:

PA12 Glass-filled

40% glass fiber reinforcement

Strength:

PA11

Chemical & impact resistant, ductile

Strength:

PA12-CF

Carbon fiber reinforced

Strength:

TPU

Flexible elastomer, gaskets & seals

Strength:

Filaments

Thermoplastic materials

PLA Natural

Easy printing, biodegradable

Eco:

ABS Black

Impact resistant, automotive grade

Eco:

PETG Clear

Chemical resistant, food safe

Eco:

TPU Flexible

Shore 95A elastomer

Eco:

Nylon (PA)

Strong, abrasion resistant, jigs & fixtures

Eco:

Metal Powders

DMLS additive metals

AlSi10Mg

Aluminum alloy, lightweight

Melt: 590°C

Ti6Al4V

Titanium Grade 5, high-strength structural

Melt: 1660°C

316L Stainless

Corrosion resistant steel

Melt: 1400°C

Inconel 625

Superalloy, high temperature

Melt: 1290°C

17-4 PH Stainless

Precipitation hardening, robotics & medical

Melt: 1400°C

Material Selection Guide

Visual Prototypes

Resins for appearance models and presentation parts

Functional Testing

Nylon powders for mechanical validation

Rapid Iteration

Filaments for fast concept development

Production Parts

Metal powders for end-use components

Common Questions

3D Printing FAQ

Common questions about our 3D printing services and technologies.

Which 3D printing technology is best for my project?

It depends on your requirements. SLA delivers the smoothest surface finish (Ra 1–3 µm) for visual prototypes and dental models. SLS produces strong, support-free PA12/PA11 parts for functional testing. FDM is the most cost-effective option for large-format parts and rapid concept iteration. MJF (HP Multi Jet Fusion) is the go-to choice for bridge production — it delivers near-isotropic PA12 parts with consistent mechanical properties, and cost per part drops significantly at volumes above 200 units ($8–20/ea). DMLS produces fully dense metal parts for robotics, medical, and industrial end-use applications.

What materials can you 3D print?

We offer 101+ materials across five technologies: SLA resins (Standard, Tough, Flexible, High-Temp, Castable), SLS/MJF nylon powders (PA12, PA11, PA12-GF, PA12-CF, PA12-GB, TPU, PP), FDM thermoplastics (PLA, ABS, PETG, Nylon, PC, PEEK, PEI/Ultem), and DMLS metal powders (Ti-6Al-4V, 316L Stainless, 17-4 PH, Inconel 625/718, AlSi10Mg).

What are your 3D printing tolerances and accuracy?

Tolerances vary by technology and part geometry. SLA: ±0.13 mm (±0.005 in.) standard. SLS: ±0.25 mm (±0.010 in.) or ±0.2% of nominal dimension, whichever is greater. FDM: ±0.5 mm (±0.020 in.) desktop, ±0.13 mm (±0.005 in.) industrial. MJF: ±0.20 mm (±0.008 in.) standard, ±0.10 mm (±0.004 in.) achievable. DMLS: ±0.10 mm (±0.004 in.) standard. Tighter tolerances available on request with secondary CNC machining or CMM verification.

Do you provide post-processing and finishing services?

Yes. We offer comprehensive post-processing: support removal, bead blasting, sanding (up to 400-grit), vapor smoothing, painting, dyeing (MJF/SLS), plating, thread tapping, heat-set inserts, and full assembly. DMLS metal parts can receive stress-relief annealing, HIP (Hot Isostatic Pressing), and CNC finish-machining to Ra 0.4–1.6 µm (16–63 µin.). Parts ship ready-to-use.

What file formats do you accept for 3D printing?

We accept STL, OBJ, 3MF, PLY and native CAD files (STEP, IGES, SolidWorks, Fusion 360). For STL files, we recommend 0.1 mm chord deviation for optimal mesh quality. We review every file for printability and will notify you of any wall-thickness, overhang, or mesh issues before quoting.

Can you handle both prototyping and production volumes?

Yes — from single prototypes to production runs of 10,000+ units. MJF is particularly well-suited for bridge production: per-part costs drop to $8–20 at 200+ pieces, with near-isotropic PA12 mechanical properties and consistent batch-to-batch quality. SLS handles 1–1,000 piece runs efficiently. For metal, DMLS serves low-volume end-use parts (1–100 pcs) in robotics, medical, and tooling applications.

Ready to Start Your 3D Printing Project?

Upload your 3D model and get a free quote with material recommendations and lead times.

Get Free Quote Fast