Services

When Industrial 3D Printing Fits the Project

Industrial 3D printing can validate fit and function before tooling or supply finished parts when the selected process, material and volume match the application. Choose the route from the part requirement, rather than from a process name alone.

What must the part do?

Identify load, temperature, chemical exposure, surface finish and any assembly interfaces.

What must be checked?

State the critical dimensions, inspection needs and whether the first build is for appearance, fit or functional testing.

What happens after the prototype?

Give an estimated quantity so the team can review 3D printing against CNC machining or injection molding.

Share a 3D model or drawing if available, plus material preferences and quantity. Process availability, tolerances and documentation are confirmed for the specific project.

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3D Printing Materials Overview

Material Selection Guide:

Metals: Ideal for high-strength, heat-resistant applications

  • Engineering Plastics: Perfect for functional prototypes and end-use parts

  • Specialty Polymers: Best for flexible or chemically resistant components

  • Photopolymer Resins: Excellent for high-detail models and visual prototypes

Material CategoryMaterial TypeKey PropertiesCommon Applications
MetalsAluminumLightweight, good strength-to-weight ratioAutomotive parts, aerospace components
CopperExcellent thermal & electrical conductivityHeat exchangers, electrical components
Stainless SteelCorrosion resistance, durabilityMedical instruments, industrial parts
TitaniumHigh strength, biocompatibleAerospace, medical implants
Plastics & PolymersABSImpact resistant, durablePrototypes, consumer products
PA (Nylon)Strong, flexible, wear-resistantFunctional parts, gears, hinges
PolycarbonateHigh strength, transparentEngineering components, protective gear
PolypropyleneChemical resistant, flexibleLiving hinges, containers
TPUFlexible, rubber-likeGaskets, seals, flexible parts
ResinsDigital PhotopolymerHigh detail, smooth surfaceDetailed prototypes, dental models

Our 3D Printing Processes

Advanced Manufacturing Technologies for Every Stage of Product Development

Stereolithography (SLA)

High-precision technology producing smooth, detailed parts. Ideal for intricate prototypes and end-use components requiring fine features.

Selective Laser Sintering (SLS)

Creates durable, complex parts without support structures. Perfect for functional prototypes and low-volume production.

PolyJet

Multi-material printing for realistic prototypes with varied textures. Excellent for visual models and complex material combinations.

Multi Jet Fusion (MJF)

High-speed production of functional parts with consistent quality. Optimized for rapid iterations and medium-volume manufacturing.

Digital Light Synthesis (DLS)

Light-based technology for precise, engineering-grade components. Ensures excellent surface finish and dimensional accuracy.

3D Printing Services FAQ

Send the controlled 3D model, intended use, material or performance requirements, quantity, critical dimensions, appearance needs, inspection method and delivery destination. Identify the file revision and any assembly or test conditions.

Choose the process around the validation goal, not the technology name alone. Compare geometry, feature size, surface, anisotropy, support removal, material behavior, quantity and post-processing before selecting SLA, SLS, FDM, PolyJet, MJF or another route.

Define load, temperature, chemicals, moisture, flexibility, flame or electrical requirements and the required material record. For polyamide-specific questions, use the nylon 3D printing guide and verify the exact grade and conditioning state in the quote.

Tolerance depends on process, machine, material, orientation, feature size, support strategy, post-processing and measurement method. Mark critical dimensions and datums on the drawing, then agree conditioning, fixture, sample size and report format before production.

These depend on the selected machine, part envelope, nesting, material availability, finishing, inspection and queue. Ask the quotation to state the machine/process, usable build envelope, part orientation, batch quantity, included operations and milestone dates.

Use the plastic prototype manufacturing comparison when the decision depends on production-grade material, tighter machined features, molded shrinkage, repeat quantity or the transition to tooling. A route comparison should state what evidence the prototype must provide.

Request a 3D Printing Review

Send the model, drawing, material or performance requirement, quantity, critical dimensions, finish and inspection needs. The quotation should identify its assumptions and the selected process.

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