Online 3D Printing Service Instant quotes for prototypes and production parts
Upload a CAD file for an instant quote across SLS, MJF, SLA, FDM, PolyJet and metal 3D printing, with manufacturability feedback and engineers on hand.
- Six processes and 25+ materials in one quote
- Prototypes, bridge runs and production parts
- Next day shipping across North America
Technology Selection
The Evolution of Manufacturingfor Industrial 3D Printing
SLS
Selective Laser Sintering
High-strength nylon parts, from a single part to repeat production.
- Build volume
- 340 × 340 × 600 mm
- Tolerance
- ±0.3%
- Machinery
- EOS P 396+3 more
MJF
Multi-Jet Fusion
Fast, high-quality thermoplastic parts for medium to high volumes.
- Build volume
- 380 × 284 × 380 mm
- Tolerance
- ±0.3%
- Machinery
- HP 5200
FDM
Fused Deposition Modeling
Large-format thermoplastic parts for tooling, jigs and fixtures.
- Build volume
- 914 × 609 × 914 mm
- Tolerance
- ±0.3%
- Machinery
- Stratasys Fortus 900+6 more
SLA
Stereolithography
Precision resin parts with crisp detail and a smooth finish.
- Build volume
- 1500 × 750 × 550 mm
- Tolerance
- ±0.25%
- Machinery
- 3D Systems ProX 800+3 more
DMLS
Direct Metal Laser Sintering
Production metal parts with complex internal channels.
- Build volume
- 400 × 300 × 400 mm
- Tolerance
- ±0.3%
- Machinery
- EOS M290
SLS supports durable nylon parts with the geometry freedom and mechanical performance teams need to move quickly into functional testing and production. For product teams balancing speed, strength, and design freedom, SLS delivers one of the most versatile industrial 3D printing workflows available. It is especially effective for housings, brackets, ducting, snap fits, and end-use nylon assemblies that need to perform beyond the prototype stage.
- Build volume
- 340 x 340 x 600 mm
- Layer height
- 60 - 120 Microns
- General tolerance
- +/-0.3%
- Machinery
- EOS P 396, EOSINT P 395, EOS FORMIGA P 110 Velocis, Formlabs Fuse 1
MJF is built for fast, repeatable nylon production where throughput, consistency, and scalable unit economics matter as much as part quality. MJF adds a strong business case when programs need repeatability across larger batches without giving up geometric freedom. It works well for bridge production, production-grade prototypes, and recurring nylon components where consistency from build to build directly impacts cost and delivery confidence.
- Build volume
- 380 x 284 x 380 mm
- Layer height
- 100 Microns
- General tolerance
- +/-0.3%
- Machinery
- HP 5200
FDM expands what teams can build in engineering thermoplastics, especially when part size, structural performance, and fixture-ready durability lead the decision. FDM remains valuable when applications demand larger envelope parts, production aids, or material families suited for thermal and chemical exposure. It is a strong fit for jigs, fixtures, tooling, covers, and functional components that benefit from engineering-grade thermoplastics and practical scalability.
- Build volume
- 914mm x 609mm x 914mm
- Layer height
- 127 - 330 microns
- General tolerance
- +/-0.3%
- Machinery
- Stratasys Fortus 900, Stratasys Fortus 450, Stratasys Fortus 400, Bambu Lab H2S, Bambu Lab H2D, Stratasys Fortus 380, Markforged X7
SLA creates precision resin parts with the surface quality and feature definition required for high-visibility prototypes, housings, and presentation-ready models. When the part needs to look refined before it ever reaches the customer, stakeholder, or internal review table, SLA brings the finish quality to support it. It performs especially well for appearance models, fine-detail components, transparent features, and prototypes where cosmetic presentation is part of the value proposition.
- Build volume
- 1500mm x 750mm x 550mm
- Layer height
- 50 or 100 microns
- General tolerance
- +/-0.25%
- Machinery
- 3D Systems ProX 800, UnionTech Lite600, Formlabs Form 4L, 3D Systems ProJet 6000 HD
DMLS brings metal additive manufacturing into production with lightweight geometry, internal passages, and performance-driven designs that unlock new part strategies. DMLS creates opportunities that are hard to capture with subtractive manufacturing alone, especially in aerospace, robotics, automotive, and advanced hardware. It supports metal parts that reduce weight, consolidate assemblies, and integrate features directly into the geometry rather than forcing compromise through machining constraints.
- Build volume
- 400 x 300 x 400 mm
- Layer height
- 20 - 80 microns
- General tolerance
- +/-0.3%
- Machinery
- EOS M290
Machine model
EOS P 396
Industrial 3D printingbuilt for real production
Manufacture production-ready parts using industrial additive systems across polymer and metal processes. From early prototypes to repeatable end-use components, we help teams choose the right technology, material, and finish for the job.
With manufacturing and finishing handled in-house, customers can develop stronger nylon parts, detailed resin components, high-performance thermoplastic fixtures, and metal assemblies through one production partner.
- SLS, MJF, SLA, FDM, DMLS, and PolyJet under one roof
- Prototypes, tooling, bridge production, and end-use parts
- In-house finishing, inspection, and engineering support
- 6
- 3D Print Technologies
- 30+
- Production Materials
- 10K+
- Polymer Parts Per Day
- In-House
- Manufacturing & Finishing
Capability across polymer, composite, and metal 3D printing
Our 3D printing capabilities are built around how parts actually get used. SLS and MJF support durable nylon components for production and prototyping. SLA and PolyJet handle presentation surfaces, detail, and accuracy. FDM covers larger thermoplastic parts and tooling. DMLS supports metal parts where weight, strength, and complex geometry matter.
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Compare your options
Compare printability and pricing across processes without uploading your files again.
Keep the details covered
Bring threads, inserts, tolerances and finishing requirements straight from your drawing into the review.
Additive vs Traditional Manufacturing
Understanding the fundamental differences between additive manufacturing and conventional subtractive processes helps identify the optimal approach for your application requirements.
| Aspect | Additive Manufacturing | Traditional Machining |
|---|---|---|
| Design Freedom | Complex internal geometries, lattice structures, topology optimization | Limited by tool access, requires assembly for complex forms |
| Lead Times | 24-48 hours from CAD to part | Weeks for tooling design and manufacturing |
| Material Waste | Near-zero waste, unused powder recyclable | Significant material removal and waste |
| Customization | Each part can be unique at no extra cost | Tooling changes required for variations |
Both technologies excel in different scenarios. Our engineering team can help determine the optimal approach for your specific requirements.
Industry Applications
3D printing technology serves diverse industries with unique requirements, from aerospace precision to medical biocompatibility and architectural visualization.
Technology Portfolio
Advanced Manufacturing Technologies
Explore six industrial 3D printing processes in one calmer comparison view. Each card highlights where the technology creates the most value, without turning the section into another dense product grid.
Selective Laser Sintering
Strong nylon parts for complex geometry, production assemblies, and support-free designs that scale cleanly from prototype to end use.
Multi-Jet Fusion
High-throughput nylon production with clean surface quality and repeatability that works well for bridge runs and recurring part programs.
Fused Deposition Modeling
Engineering thermoplastics for larger components, durable tooling, and fixture applications where material performance matters more than cosmetics.
Stereolithography
Smooth, high-detail resin parts for appearance models, precise housings, and presentation-ready prototypes that need surface quality to carry the story.
Direct Metal Laser Sintering
Metal additive manufacturing for lightweight, high-performance components with integrated geometry that would be costly or impossible to machine conventionally.
PolyJet Matrix
Fine-detail, multi-material output for presentation models, ergonomic validation, and parts that benefit from visual realism and tactile accuracy.
Selective Laser Sintering
Strong nylon parts for complex geometry, production assemblies, and support-free designs that scale cleanly from prototype to end use.
Explore SLS 3D printingMulti-Jet Fusion
High-throughput nylon production with clean surface quality and repeatability that works well for bridge runs and recurring part programs.
Explore MJF 3D printingFused Deposition Modeling
Engineering thermoplastics for larger components, durable tooling, and fixture applications where material performance matters more than cosmetics.
Explore FDM 3D printingStereolithography
Smooth, high-detail resin parts for appearance models, precise housings, and presentation-ready prototypes that need surface quality to carry the story.
Explore SLA 3D printingDirect Metal Laser Sintering
Metal additive manufacturing for lightweight, high-performance components with integrated geometry that would be costly or impossible to machine conventionally.
Explore metal 3D printing (DMLS)PolyJet Matrix
Fine-detail, multi-material output for presentation models, ergonomic validation, and parts that benefit from visual realism and tactile accuracy.
Explore PolyJet 3D printingCertified Materials Portfolio
Comprehensive library of certified engineering materials, from production-grade thermoplastics to aerospace metallurgy, with complete material traceability and regulatory documentation for mission-critical applications.
Precision Manufacturing Examples
Case studies and applied 3D printing work
Explore how Forge Labs technologies show up in real programs, from production hardware and tooling to consumer products, film props, and optimized metal components.
Replacing machined parts with industrial 3D printing
See how ISE used additive manufacturing to replace machined components and accelerate functional production hardware.
From prototype to production for next-generation VR visors
A closer look at how MJF supported repeatable visor production with surface finishing, batch consistency, and a path into delivered hardware.
Rapid prototyping for consumer electronics housings and tools
Explore how Robbox used FDM to iterate on enclosures and accessory tooling without waiting on hard tooling.
High-detail SLA parts for film props and presentation models
See where SLA delivers cosmetic surfaces, fine detail, and paint-ready parts for entertainment and presentation work.
PolyJet mold workflows for casting and short-run production
A practical example of how PolyJet can support mold making, visual realism, and faster tooling experimentation for specialized parts.
Advanced design techniques for optimized metal parts
Review how DMLS enables lightweighting, part consolidation, and geometry that would be difficult to machine conventionally.
Critical Industry Applications
From aerospace to medical devices, our advanced manufacturing capabilities enable mission-critical components across industries where precision, reliability, and regulatory compliance are paramount.
Precision Engineering & Quality Assurance
Every manufactured component meets stringent quality standards for dimensional accuracy, material properties, and surface finish, supported by comprehensive quality control protocols and regulatory certification.
ISO 9001-Aligned Quality System
Comprehensive quality management system built to ISO 9001:2015 standards ensuring consistent manufacturing processes and continuous improvement across all production operations.
Guaranteed Process Tolerances
Published tolerance guarantees for every process, verified through advanced process monitoring and post-production inspection protocols across all manufacturing runs.
Complete Material Traceability
Full documentation chain from raw material certification through final inspection, ensuring regulatory compliance for mission-critical applications.
Upload CAD files and order industrial 3D printed parts
Forge Labs Steam gives teams a faster path from CAD to production with instant pricing, configurable finishes and secondary operations, and engineering support when a project needs review.
- Instant pricing with automated manufacturability analysis
- Production workflows built for repeatable quality
- Engineering support from prototype to production
Upload your 3D print files
STEP, STL, OBJ, 3MF and IGES supported
- Manufacturing technologies
- 6
- Engineering materials
- 50+
- Part quantities
- 1-500+