Use SLA, SLS, MJF, FDM, and metal 3D printing for design verification, complex functional parts, and low-volume production. Engineering review supports your project from file analysis through delivery.
A good fit for:
Compare industrial printing processes for prototypes, functional testing, complex parts, and low-volume production. Each option is matched to your geometry, material, accuracy, finish, quantity, and lead-time requirements.
Powder-bed fusion for strong nylon parts, complex internal features, and low-volume functional components.
Applicable materials: nylon, PA12.
Maximum size: 400×400×400 mm.
Accuracy/Tolerance: ±0.1 mm.
Applicable scenarios:
High-detail resin printing with a smooth surface for appearance models, fine features, and complex geometries.
Applicable materials: photosensitive resin.
Maximum size: 300×300×300 mm.
Accuracy/Tolerance: ±0.05 mm.
Applicable scenarios:
Fast powder-bed production for durable nylon parts, repeatable dimensions, and low-volume batches.
Applicable materials: nylon, composite materials.
Maximum size: 380×380×380 mm.
Accuracy/Tolerance: ±0.1 mm.
Applicable scenarios:
Cost-effective extrusion printing for fast structural prototypes, fixtures, and larger functional parts.
Applicable materials: ABS, PLA, PC.
Maximum size: 500×500×500 mm.
Accuracy/Tolerance: ±0.2 mm.
Applicable scenarios:
Metal powder-bed fusion for strong functional parts, complex internal channels, and low-volume metal production.
Applicable materials: stainless steel, aluminum alloy, titanium alloy, mold steel, etc.
Maximum size: 300×300×300 mm.
Accuracy/Tolerance: ±0.1 mm.
Applicable scenarios:
Fast, high-detail resin printing with a smooth surface for precise prototypes and complex small features.
Applicable materials: photosensitive resin.
Maximum size: 300×300×300 mm.
Accuracy/Tolerance: ±0.05 mm.
Applicable scenarios:
Compare resins, nylons, and metals by strength, detail, temperature resistance, appearance, and end-use requirements. Our engineers can help confirm the best material and process combination for your part.
Fine-detail SLA resin with a smooth, finish-ready surface for visual models, design reviews, and precise prototypes.
View Material Detail Use material quote
Corrosion-resistant stainless steel for strong functional and end-use parts, with optional finishing or machining for fit and appearance.
View Material Detail Use material quoteCompare additional 3D printing materials, finishes, and applications. If your material is not listed, our engineers can recommend a suitable alternative.
Combine process selection, automated drawing analysis, DFM review, engineering oversight, and defined material and tolerance requirements from quote through production.
Analyze STEP, IGES, STL, and OBJ files for volume, wall thickness, holes, chamfers, surfaces, and complex features to support process selection, DFM review, and pricing.
Review wall thickness, overhangs, support needs, build orientation, and finishing feasibility, then flag risks and suggest practical design improvements before printing.
Compare suitable SLA, SLS, MJF, FDM, and SLM options by part geometry, material, quantity, price, and lead time.
Engineers confirm the process and key parameters, while production checks focus on dimensional accuracy, structural performance, and surface requirements.
Select materials and achievable tolerances by process so assembly, strength, finish, and service requirements are confirmed before production.
A five-step path keeps files, process choices, DFM feedback, production, inspection, and delivery aligned before work moves forward.
Support prototypes, functional testing, and low-volume parts for robotics, automotive, aerospace, consumer products, medical devices, and automation. Process and material choices are matched to geometry, performance, finish, quantity, and project stage.
For projects moving beyond printed prototypes, explore injection molding applications supported by DFM, tooling, process validation, and quality planning.
DFM review optimized draft angles, ribs, and gate locations for a stable appearance, reliable assembly, and repeatable low-volume production.
Precisely positioned metal inserts improved thread strength and assembly reliability while maintaining consistent overmolding quality.
Two-shot molding bonded soft rubber to a rigid substrate for improved grip, slip resistance, and sealing performance.
An optimized runner and cooling system increased capacity while maintaining a stable cycle and consistent production quality.
Mold design and process parameters were optimized for dimensional stability, assembly fit, and batch consistency.
Find answers about files, processes, materials, tolerances, build size, finishing, lead times, quoting, and confidentiality.
We support mainstream 3D/2D engineering drawing formats:
Recommended practices:
We offer a variety of industrial-grade 3D printing processes:
Commonly used materials include:
Final selection depends on the process, mechanical performance, finish, and operating environment.
Typical tolerances vary by process:
3D printing
Mark critical fit dimensions and tolerances on the drawing for engineering review.
Typical build sizes vary by equipment and process:
Larger parts may be split for printing and assembled afterward, subject to engineering review.
Yes, 3D printing is ideal for prototypes, low-volume and bridge production, and can quickly deliver a few to hundreds of parts without the need for molding.
Available finishing options include:
Options are selected according to appearance, fit, and functional requirements.
Reference lead time:
Final lead time depends on part complexity, material, quantity, and finishing requirements.
Upload your drawings, then select the material and quantity. Standard parts may receive an automated quote; complex parts are reviewed by an engineer before pricing is confirmed.
NDAs are available on request, and uploaded drawings and project data are kept confidential.
