engineering

Additive Manufacturing & 3D Printing

Layer-by-layer fabrication technologies — FDM thermoplastic extrusion, SLA photopolymer curing, SLM metal powder melting, binder jetting, and support structure optimization for complex geometries.

3D printingadditive manufacturingFDMSLASLMbinder jettingsupport structuresrapid prototyping

Additive manufacturing builds physical objects layer by layer from digital models, inverting the subtractive logic of traditional machining. From desktop FDM printers extruding thermoplastic filament to industrial SLM systems fusing titanium powder with high-power lasers, these technologies enable geometries impossible to machine — lattice structures, internal channels, and topology-optimized organic forms that minimize material while maximizing strength.

These simulations let you control extrusion parameters in FDM, tune UV exposure curves in SLA, model melt-pool dynamics in SLM, explore binder saturation in jetting processes, and optimize support structures to reduce material waste — each grounded in the thermodynamics, photochemistry, and mechanics that govern real production systems.

5 interactive simulations

simulator

Binder Jetting & Saturation Control

Simulate binder jetting — control binder saturation, droplet spacing, layer thickness, and powder packing to optimize green part density before sintering

simulator

FDM Extrusion & Layer Deposition

Simulate fused deposition modeling — control nozzle temperature, layer height, print speed, and extrusion width to visualize thermoplastic filament deposition and interlayer bonding

simulator

SLA Photopolymer Curing

Model stereolithography UV curing — control laser power, exposure time, resin absorption, and layer thickness to optimize photopolymerization depth and resolution

simulator

SLM Melt Pool Dynamics

Model selective laser melting of metal powder — visualize melt pool formation, solidification, and how laser power, scan speed, and hatch spacing control density and microstructure

simulator

Support Structure Optimization

Optimize support structures for 3D printing — balance overhang angle, support density, material usage, and removal difficulty for any geometry