Design for Additive

Resin and metal 3D printing offer different tolerance windows. Resin generally supports tighter dimensional control for small features. Metal processes typically require

Additive design changes how buyers manage parts. By integrating design and manufacturing early, teams reduce dependency on single sourcing. This guide outlines five

Use this design for additive checklist to verify resin part geometry, wall thickness, and support requirements. It helps procurement teams flag defects and reduce

A structured resin defect check ensures part integrity. This checklist guides inspectors to identify cracks, delamination, and surface anomalies. It provides clear red

Resin parts stick to the build plate when cure time is too short, the surface is dirty, or the part design traps resin. Check machine logs, clean the plate, and adjust

Additive design software in 2026 is shifting toward integrated AI and automated DfAM checks. Buyers should plan for tools that handle topology optimization, build

Metal AM support cost depends on geometry, material, and removal labor. Support structures add material and machine time. Effective design and clear RFQs reduce these

Selecting the correct build orientation SLS settings aligns part geometry with machine constraints. This approach minimizes support material, stabilizes flat surfaces

AM geometry cost rises when geometry demands more material, longer build times, or extra post-processing. Simplifying features, reducing overhangs, and aligning design

SLS typically offers tighter dimensional accuracy and a uniform matte finish, while FDM is better for larger parts and specific surface textures. The choice depends on

Reduce resin overhangs by controlling geometry, adjusting angles, and using draft tapers. Proper SLA geometry design lowers support requirements and improves part

SLS delamination in nylon parts usually stems from poor powder flow, insufficient energy, or weak layer interfaces. This guide identifies the visible symptoms, explains