Move custom parts from a digital model through industrial additive manufacturing, practical finishing, and delivery-ready preparation. Certified manufacturing workflow | ITAR-ready
additive parts delivered monthly
product developers supported
industrial additive systems
Innovative Teams We Support
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Our online 3D printing service enables process selection around part geometry, material behavior, visible surface needs, and the expected program volume.
Detailed resin parts for visual review and controlled fit checks.
Durable nylon components with complex functional geometry.
Fused deposition modeling provides practical thermoplastic prototypes and fixtures with a cost-conscious route to tangible parts.
Review part intent with a manufacturing team before a print process and supporting finish are selected.
Use a practical additive review to align the selected process, material, part orientation, and surface route before the build is scheduled.
The review connects part intent, build preparation, and the operational requirements that matter for the next prototype or production release.
| Process | Material Role | Surface Direction | Program Fit |
|---|---|---|---|
| SLA | Detailed resin | Fine visible detail | Concept and review parts |
| SLS / MJF | Durable nylon | Functional surface | Prototype and repeat programs |
| DMLS | Engineering metals | Post-processed surface | Complex functional hardware |
| PolyJet | Flexible and rigid photopolymers | Fine-detail presentation | Multi-material evaluation |
| FDM | Thermoplastics | Practical as-printed finish | Fixtures and cost-conscious parts |
Materials are selected according to the selected additive process and the functional, visual, thermal, or environmental needs of the final part.
Use engineered resins where visible detail, smooth surfaces, heat behavior, stiffness, or transparency require controlled trade-offs.
Select versatile, reinforced, or flexible nylon options for durable functional components.
Review aluminum, stainless steel, titanium, and high-temperature metal options against the intended performance.
Get a quick reference for surface preparation across common additive processes.
Start with part geometry and required use conditions, then compare process and material options through a clear build-and-finish recommendation.
A digital manufacturing workflow makes it practical to evaluate several processes, materials, and surface routes while keeping the important production questions visible.
Additive manufacturing supports integrated geometry, fewer assembled components, and a direct route from digital design to a functional physical part.
Use additive manufacturing for concept models, functional prototypes, production hardware, custom fixtures, and components that benefit from complex geometry.
A measured process and material review keeps the important next-stage requirements visible before the build is released.
After printing, surface preparation can be selected for handling, appearance, environmental exposure, or an application-specific functional requirement.
Coordinate the selected process and material with the downstream preparation required for the finished component.
Review smoothing, dyeing, coating, sealing, machining, and visible-surface preparation as part of the program.
Use a selected finishing route to move a printed part from an as-built surface into a delivery-ready component.
| Finish Level | Typical Result | Process Consideration |
|---|---|---|
| Unfinished | As-built surface direction | Support and build marks remain visible |
| Natural | Cleaned functional surface | Selected around the base process and material |
| Standard | Consistent visible preparation | Layer lines are reduced where the process permits |
| Custom | Application-specific finish | Coordinate color, plating, coating, and final inspection |
| Machined | Refined critical features | Planned before release against the required tolerance |
Move from initial prototype evidence into a repeatable additive route when the selected process, materials, and downstream operations fit the program demand.
Use additive manufacturing to reduce tooling dependencies and support complex, low-volume components through a controlled program.
Compare speed, geometry, material flexibility, and supply options as a part moves beyond the initial review.
Apply the selected process to functional equipment parts, custom interfaces, and low-volume end-use hardware.
Upload a model to begin a practical process and material conversation for the next additive manufacturing release.
Start with the part function, material behavior, surface requirement, and requested volume.
Strength depends on process, material, orientation, and finishing choices.
Available finishing is selected around the process and the required final surface.
A controlled additive route can support repeat programs when the selected configuration fits the demand.
Get an online quote for custom 3D printed parts.
