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3D printing service for robotics and hardware — custom parts, fast iteration.
Robotics and hardware teams iterate fast and need parts that perform mechanically from day one. We produce custom mounts, end-effectors, sensor housings, cable management, and structural components in materials matched to your mechanical requirements — with turnaround times that keep your development sprints on track.
Challenges we solve
How our 3D printing service supports robotics & hardware teams
Complex geometry for custom mechanisms
Robotic end-effectors, linkages, and sensor mounts often require geometries that are impractical or impossible to CNC machine — internal channels for pneumatics or wiring, undercuts for snap-fit assembly, thin-walled housings with integrated mounting features, and organic ergonomic forms. Additive manufacturing handles all of these without tooling, and our engineering team reviews every file for printability and optimal build orientation.
Functional material properties from day one
Hardware prototypes need to work, not just look right. Load-bearing brackets need stiffness (PC CF at 8.0 GPa). Grippers need controlled compliance (TPU at Shore 95A or Elastic at Shore 50A). Sensor housings need dimensional precision (SLA at ±0.2mm). We match materials to your mechanical requirements and advise on trade-offs between cost, lead time, and performance.
Rapid iteration aligned with sprint cadence
Hardware teams running weekly or biweekly design sprints need parts that arrive before the next sprint review — not after. Our 3D printing service delivers FDM prototypes in as fast as 1 business day, SLA in 2–3 business days, with rush options available for next-day delivery in the NYC metro area. This cadence means you can test, learn, and iterate every sprint instead of batching physical validation into monthly milestones.
Seamless scaling from prototype to production
When your design is locked and validated, we scale from single prototypes to production runs of 50–5,000+ parts without retooling, requalifying, or changing vendors. The same material, the same quality inspection process, the same engineer — just higher volume. Per-part costs decrease with quantity, and we offer scheduled delivery for ongoing production programs.
Materials
Materials for robotics & hardware
For general-purpose brackets and structural components, PETG on FDM offers an excellent balance of strength (2.0 GPa tensile modulus), chemical resistance, and cost — making it ideal for lab environments where parts may contact solvents or cleaning agents. For higher stiffness in load-bearing applications, PC CF delivers 8.0 GPa on FDM. For production-grade parts with consistent mechanical properties across a batch, MJF Nylon PA12 (1.8 GPa) is the standard. Flexible components like grippers, bumpers, and compliant mechanisms can be produced in TPU (Shore 95A), Flexible resin (Shore 80A), Elastic resin (Shore 50A), or Soft Elastic 30A — covering the full durometer range for soft robotics applications.
PLA
FDM · Shore D 81
General purpose, biodegradable. Rigid, good surface finish. Not heat or UV resistant.
PETG
FDM · Shore D 74
Tough, chemical resistant, food-safe options. Good balance of strength and flexibility.
Standard Resin
SLA · Shore D 78
Smooth surface, fine detail. Good for visual prototypes and concept models.
Nylon PA12
MJF · Shore D 73
Strong, lightweight, chemical resistant. The standard for functional end-use parts. Excellent fatigue resistance and consistent mechanical properties.
PC CF
FDM · Shore D 83
Polycarbonate carbon fiber. High stiffness and heat resistance for demanding structural applications.
ASA
FDM · Shore D 78
UV and weather resistant. Ideal for outdoor applications and functional parts exposed to sunlight.
TPU
FDM · Shore 95A
Flexible elastomer. Shore 95A hardness. Good for gaskets, grips, and vibration dampening.
Common parts
Parts we produce for robotics & hardware
Our work
Robotics & Hardware projects
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Gyraline Quad-Point Adapter Production
Gyraline needed a reliable supply of quad-point adapters with consistent dimensional accuracy across every unit. We produced the parts in PETG on our FDM fleet, optimizing print orientation and process parameters for mechanical performance and repeatability. The PETG material provided the chemical resistance and toughness the application demanded, while our production workflow ensured every adapter met the same tolerances and quality standards batch after batch.
Production for Ag-Tech Sector Leader
This ag-tech client required 1,400+ identical parts with tight dimensional tolerances and consistent mechanical properties across every unit. We used HP Multi Jet Fusion with Nylon PA12 to deliver production-grade components that met spec on strength, surface finish, and dimensional accuracy. Our quality process ensured part-to-part consistency across the entire run, with batch tracking and inspection at every stage.
Built in our factory
Brooklyn, NY
How it works
From file to finished part
Upload & quote
Upload your CAD file to the instant quoter for automated pricing, or submit through our intake form to discuss material selection with an engineer. We respond within one business day.
File review
We check geometry for printability, recommend optimal build orientation, and flag any features that may need adjustment — thin walls, unsupported overhangs, or tolerance-critical interfaces.
Production
Parts produced on FDM, SLA, or MJF. For sprint-cadence orders, we prioritize turnaround so parts arrive before your next design review.
QA inspection
Visual and dimensional inspection on every part. For production orders, batch consistency is verified across the full run.
Ship
NYC: next-day local delivery or same-day pickup. National: 2-3 day ground or overnight expedited. Timed to your sprint schedule.
FAQ
Frequently asked questions
Can you print parts that handle mechanical loads?
Yes. MJF Nylon PA12 (1.8 GPa tensile modulus, 40 J/m impact), PC CF (8.0 GPa, the stiffest material in our catalog), and PETG (2.0 GPa, chemically resistant) are all suitable for load-bearing robotic components. We advise on material selection based on your specific load case, operating temperature, and environmental exposure.
Do you work with hardware startups?
Yes — startups are a core part of our business. We handle everything from single R&D prototypes to production runs as you scale, with no minimum order quantities and no setup fees. Many of our startup customers start with 1–5 prototypes per sprint and scale to hundreds or thousands of production parts as they grow.
Can you print flexible parts for soft robotics and grippers?
Yes. TPU (Shore 95A), Flexible resin (Shore 80A), Elastic resin (Shore 50A), and Soft Elastic 30A provide a full range of durometers for compliant mechanisms, soft grippers, bumpers, and vibration damping. For multi-durometer prototypes, we can produce rigid and flexible components separately and advise on assembly.
What file formats do you accept?
STL, OBJ, 3MF, and STEP. STEP files are preferred for production orders as they preserve design intent and allow us to verify critical dimensions and tolerances before printing.
How fast can you turn around prototype parts?
FDM and SLA prototypes ship in 2–3 business days from file approval. MJF production parts ship in 3–5 business days. For NYC-based teams, we offer next-day local delivery. Rush options are available — contact our team to discuss your timeline.
Other industries we serve
Consumer Electronics
From first prototype to shelf-ready parts — built to spec, on time.
Medical & Biotech
Precision parts for medical devices, surgical tools, and lab equipment.
Architecture & Design
Presentation models, facade studies, and design prototypes — built at any scale.
Automotive
Functional prototypes, under-hood parts, and interior trim — production-grade.
Aerospace & Defense
Lightweight structures, jigs, and functional prototypes — built to spec.
Marketing & Entertainment
Props, installations, and display pieces — at any scale, camera-ready.
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Insights
Related reading
Materials
Choosing Materials for 3D Printing: PETG vs PLA
A comprehensive guide comparing PETG and PLA for 3D printing, analyzing strength, durability, chemical resistance, cost, printing speed, and real-world applications.
Materials
Choosing Materials for 3D Printing: PETG vs ABS
A detailed comparison of PETG and ABS for 3D printing, covering ease of printing, strength, chemical resistance, cost, speed, post-processing, and environmental impact.
Design
Practical DfAM Strategies to Help You Save on 3D Printing
Proven Design for Additive Manufacturing strategies to reduce 3D printing costs, including lightweighting, hollowing, orientation optimization, and smart batching.
Plan Your Project
Tools to plan your build
Check shipping transit times, estimate lead times by technology, and review design guidelines before you upload — so your parts print right the first time.
Check Transit Time
Enter your zip code to see how fast parts arrive from our Brooklyn facility.
Ready to start your robotics & hardware project?
Upload your CAD file and get a quote in minutes — or talk to our engineers about your next production run.