SLA Design guide

Printing resolution
Standard layer thickness: 100 µm Accuracy: ±0.2% (with a lower limit of ±0.2 mm)

Size limitation 144 x 144 x 174 mm Minimum thickness Minimum wall thickness 0.8mm – With a 1:6 ratio

Etching and Embossing

Minimum height and width details Embossed: 0.5 mm

Engraved: 0.5 mm

Enclosed & interlocking volume

Enclosed parts? Not recommended Interlocking parts? Not recommended

Piece assembly Restriction
Assembly? No

Engineering Expertise and Guidance

Engineering team will help you on optimize molding part design, GD&T check, material selection. 100% ensure the product with high production feasibility, quality, traceability

Simulation before Cutting Steel

For each projection, we will use mold-flow, Creo, Mastercam to simulate the injection molding process, machining process, drawing process to predict the issue before make physical samples

Complex Product Design

We have the top brand manufacturing  facilities in injection molding, CNC machining and sheet metal fabrication. Which allows complex, high precision requirement product design

In house process

Injection mold making, Injection molding and second process of pad printing, heat staking, hot stamping, assembly are all in house, so you will have much low cost and reliable development lead time

Benefits of SLA Printing

High level of details

If you need accuracy, SLA is the additive manufacturing process you need to create highly detailed prototypes

Various applications

From automotive to consumer products, many companies are using Stereolithography for rapid prototyping

Design freedom

Design-driven manufacturing allows you to produce complex geometries

SLA Application

Automotive

Healthcare and Medical

Mechanics

High Tech

Industrial Goods

Electronics

SLA vs SLS vs FDM

SLA Advantage

Stereolithography Is Fast
Stereolithography Is Accurate
Stereolithography Works With Different Materials
Sustainability
Multi-Part Assemblies Are Possible
Texturing Is Possible