Design for Manufacturing (DFM)
Comprehensive design optimization guidance ensuring prototypes translate effectively to production manufacturing processes.
Industrial Design SolutionsView All Industries
Accelerate Product Developmentwith Industrial 3D Printing
Forge Labs helps industrial design teams move from appearance models to functional prototypes and launch-phase hardware with the right combination of detail, speed, and material performance. Our workflow supports CMF studies, ergonomic testing, engineering validation, and pilot builds without waiting on hard tooling.
Prototype Lead Time
Same Day
Design Iterations
Unlimited
Surface Finish Quality
A+ Grade
Material Options
25+
Industrial Design Overview
Built for Designers Who Build Real Things
From concept mockups to fully functional prototypes, Forge Labs supports industrial design teams with additive manufacturing workflows that shorten lead times and preserve design intent. Whether you are refining consumer electronics, wearables, outdoor products, or hardware accessories, we help teams test form, fit, finish, and function before committing to production tooling.
Where additive creates leverage
Built for faster industrial design decisions
Forge Labs helps teams move from design validation to production-ready parts without waiting on tooling lead times. Consolidated assemblies, lighter parts, and faster revisions give engineering teams more control over schedule, cost, and performance.
Key manufacturing benefits
- Same-day or next-day prototype turnaround through advanced additive manufacturing solutions tailored for industrial design applications.
- Engineering guidance on material selection and DFM through advanced additive manufacturing solutions tailored for industrial design applications.
- High-detail visual and functional parts for testing through advanced additive manufacturing solutions tailored for industrial design applications.
- Eliminate expensive tooling requirements, reducing upfront investments and enabling economical low-volume production.
- Batch production available for pilot runs and market trials through advanced additive manufacturing solutions tailored for industrial design applications.
- CAD review, tolerance guidance, and design optimization through advanced additive manufacturing solutions tailored for industrial design applications.
Quality and compliance
Design validation workflows that hold up through pilot production
Industrial design teams need tight fit, presentation-ready surfaces, and repeatable geometry from concept models through pilot builds. Our workflows focus on design validation, material realism, and manufacturable revisions.
Material Performance Validation
Rigorous testing protocols ensuring prototype materials accurately represent production behavior and performance characteristics.
Rapid Iteration Capability
Proven workflow enabling multiple design iterations within single development cycles, accelerating time-to-market for new products.
Scale-to-Production Support
Seamless transition from prototype to pilot production with volume manufacturing capabilities and production readiness validation.
Manufacturing Capabilities
Capabilities Engineered for Industrial Design
From concept models to production-intent hardware, each workflow is tuned for the precision, repeatability, and engineering confidence that industrial design teams demand. Our capabilities span rapid prototyping with sub-millimeter accuracy, complex geometry optimization for weight reduction, and low-volume production with full material traceability — giving engineering teams the speed to iterate faster and the data to qualify parts with confidence.
Functional Prototypes & Testing
Selective laser sintering (SLS) with PA12 nylon delivers functional prototypes with mechanical properties closely matching injection-molded parts. Material characteristics include excellent impact resistance, chemical stability, and fatigue performance suitable for comprehensive testing protocols. Integrated features like snap-fits, living hinges, and threaded connections function as designed without assembly requirements. Dimensional accuracy of ±0.3% (min ±0.3 mm) supports tight-tolerance assemblies while surface quality enables direct testing without secondary finishing operations.
Material
PA12 nylon SLS
Tolerances
±0.3% (min ±0.3 mm)
Mechanical Properties
Injection-like
Integrated Features
Functional
Relevant technologies
Stereolithography (SLA)/Fused Deposition Modeling (FDM)/PolyJet Matrix (PolyJet)/Selective Laser Sintering (SLS)
Material options
High Temperature Resin/Accura 25/Accura Xtreme White 200/Accura ClearVue
Functional Prototypes & Testing
Design Iteration & CMF Studies
Stereolithography (SLA) with high-definition resins produces concept models with exceptional surface quality for color, material, and finish (CMF) validation studies. Multiple resin formulations simulate various material properties from rigid engineering plastics to flexible elastomers. Surface finish options include textured, polished, and painted applications with professional appearance suitable for client presentations and user research. Rapid turnaround enables multiple design iterations within single-day cycles supporting agile development methodologies.
Surface Quality
High-definition
Layer Resolution
50-100 microns
Material Simulation
15+ options
Finish Options
Multiple available
Relevant technologies
Stereolithography (SLA)/Fused Deposition Modeling (FDM)/PolyJet Matrix (PolyJet)
Material options
High Temperature Resin/Accura 25/Accura Xtreme White 200/Accura ClearVue
Design Iteration & CMF Studies
Mechanical Parts & Assemblies
Multi Jet Fusion (MJF) technology produces mechanical assemblies with precise dimensional control and excellent surface finish for functional testing and validation. PA12 nylon material properties enable snap-fit mechanisms, threaded connections, and bearing surfaces that perform comparably to injection-molded components. Integrated assembly features eliminate secondary operations while maintaining clearances as tight as 0.5mm for moving parts. Heat-set insert compatibility and post-machining options provide production-ready fastening solutions for prototype assemblies.
Technology
MJF PA12 nylon
Clearances
0.5mm minimum
Thread Pitch
M6+ recommended
Insert Compatible
Heat-set ready
Relevant technologies
Stereolithography (SLA)/Fused Deposition Modeling (FDM)/PolyJet Matrix (PolyJet)/Selective Laser Sintering (SLS)
Material options
High Temperature Resin/Accura 25/Accura Xtreme White 200/Accura ClearVue
Mechanical Parts & Assemblies
Large Format Prototypes
Fused deposition modeling (FDM) with maximum build volume (914 x 609 x 914mm) accommodates full-scale prototyping of outdoor gear, sports equipment, and mobility products. Engineering thermoplastics including carbon fiber reinforced nylon provide structural performance suitable for load testing and real-world validation. ASA materials offer UV stability and weather resistance for outdoor applications requiring extended environmental exposure. Large parts can be sectioned and assembled using integrated joinery features for products exceeding build volume constraints.
Build Volume
914 x 609 x 914mm
Materials
Carbon fiber, ASA
Weather Resistance
UV stable
Load Testing
Structural capable
Relevant technologies
Material options
High Temperature Resin/Accura 25/Accura Xtreme White 200/Accura ClearVue
Large Format Prototypes
Consumer Electronics Housings
Stereolithography (SLA) and selective laser sintering (SLS) technologies produce electronics housings with precise component fitment and professional surface finish. SLA tolerances of ±0.25% (min ±0.25 mm) ensure accurate PCB mounting, connector alignment, and button clearances critical for functional electronics assemblies. Material options include clear resins for LED diffusion, conductive formulations for EMI shielding, and flexible TPU for wearable interfaces. Integrated features like snap-fits, cable management, and heat-staking posts eliminate assembly complexity while maintaining professional appearance suitable for user testing and demonstration.
Component Fit
±0.25% (min ±0.25 mm)
Materials
Clear, conductive, TPU
EMI Shielding
Conductive options
LED Diffusion
Clear resin
Relevant technologies
Selective Laser Sintering (SLS)/Multi-Jet Fusion (MJF)/Direct Metal Laser Sintering (DMLS)/Fused Deposition Modeling (FDM)
Material options
Consumer Electronics Housings
Market Testing & Pilot Production
Digital manufacturing enables seamless scaling from prototype validation through pilot production volumes without tooling investment or long-term commitments. Multi Jet Fusion (MJF) and selective laser sintering (SLS) provide consistent part quality across production batches with statistical process control for dimensional verification. Batch sizes from 10 to 1,000+ units support market testing, investor demonstrations, and limited product launches. Quality documentation includes dimensional reports, material certificates, and batch traceability required for commercial validation and early-market feedback programs.
Batch Sizes
10-1,000+ units
Quality Control
Statistical process
Documentation
Complete packages
Lead Time
5-10 business days
Relevant technologies
Stereolithography (SLA)/Fused Deposition Modeling (FDM)/PolyJet Matrix (PolyJet)/Selective Laser Sintering (SLS)
Material options
High Temperature Resin/Accura 25/Accura Xtreme White 200/Accura ClearVue
Market Testing & Pilot Production
Functional Prototypes & Testing
Case Studies
Industrial Design Outcomes
Examples from wearable hardware and consumer product development where rapid iteration carried directly into launch-phase production.
Case Study
VR Hardware Production with MJF Nylon PA12
For industrial design teams developing wearable hardware, this VR visor case study shows how MJF can carry a product from ergonomic exploration into launch-phase production. The team refined face-fit geometry, preserved alignment-critical features, and kept the same manufacturing process in place as the design matured from validation units into repeatable production hardware.
Key outcomes
Ergonomic visor geometry refined without tooling lock-in
Optics-adjacent mounting features held through design revisions
Prototype intent carried directly into production builds
1,000+ wearable components delivered every 72 hours
Case Study
Consumer Electronics Prototyping with Robbox
For industrial design and product teams working on consumer hardware, the Robbox case study highlights how additive prototyping can compress enclosure development without sacrificing functional feedback. The team used rapid FDM iterations to test hand feel, packaging of internal components, assembly logic, and presentation quality while the product language was still evolving.
Key outcomes
Grip, enclosure, and assembly decisions validated in real hardware
Investor-demo and user-test units produced without mold tooling
50-100x prototype cost savings during development
10x faster iteration for consumer product refinement
Material Library
Industrial Design-Grade Materials
Qualified materials selected for performance, certification requirements, and repeatable production in industrial design environments.
SLS
Nylon PA12
Industrial Design grade
SLS nylon for functional prototypes
- Excellent mechanical properties
- Production-like behavior
- Ideal for mechanical parts
View Material Details
SLS
Accura ClearVue
Industrial Design grade
Crystal clear SLA resin
- Transparent design verification
- Smooth surface finish
- Excellent detail resolution
View Material Details
SLS
Glass Filled Nylon
Industrial Design grade
High-strength composite
- Lightweight structural applications
- Excellent for tooling
- Professional appearance
View Material Details
SLS
TPU 88A
Industrial Design grade
Flexible elastomer
- Soft-touch prototypes and gaskets
- Ideal for wearable components
- Sports gear interfaces
View Material Details
SLS
ABS
Industrial Design grade
Engineering thermoplastic
- Durable functional prototypes
- Impact resistant
- Easy post-processing
View Material Details
SLS
ASA
Industrial Design grade
UV-stable thermoplastic
- Outdoor and automotive applications
- Weather resistant
- Long-term durability
View Material Details
Explore Our Complete Material Matrix
Compare certifications, mechanical properties, and application fit across our full portfolio before locking your production material stack.
Manufacturing Technologies
Proven Technologies for Industrial Design
Evaluate each process by geometry freedom, material options, and throughput so you can pick the right path from prototype to production.
Selective Laser Sintering (SLS)
Build Volume340 × 340 × 600 mm (13.4 × 13.4 × 23.6 in)
Layer Height60 - 120 microns
Materials4 available
No Support StructuresCost-Effective for Complex Parts+4 more
Learn More
Stereolithography (SLA)
Build Volume1500 × 750 × 550 mm (59 × 29.5 × 21.7 in)
Layer Height0.025 - 0.150 mm
Materials5 available
Highest DetailSmooth Finish+2 more
Learn More
Fused Deposition Modeling (FDM)
Build Volume914 × 609 × 914 mm (36" × 24" × 36")
Layer Height127 - 330 microns
Materials7 available
Large-Format PrintingCost-Effective Manufacturing+5 more
Learn More
Multi-Jet Fusion (MJF)
Build Volume380 × 284 × 380 mm (15 × 11.2 × 15 in)
Layer Height80 microns
Materials2 available
Excellent Detail & PrecisionHigh-Speed Production+4 more
Learn More
Need help selecting the best process?
Our application engineers can map your requirements to the right technology, material, and finishing workflow before you commit to a build.
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Ready to Transform Your Industrial Design Manufacturing?
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- Instant pricing with automated manufacturability analysis
- Production workflows built for repeatable quality
- Engineering support from prototype to production
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STL, STEP, OBJ, 3MF supported
Instant pricing and manufacturability feedback
- 6
- Manufacturing technologies
- 50+
- Engineering materials
- 1-500+
- Part quantities