Meltred: requirements, design and simulation at AI speed

Meltred

1 min read Original article ↗

Requirements,designand simulationat AI speed.

Define the engineering requirements. Meltred builds the computational model, designs the part and simulates it.

Working load9.8 kN

Stroke30 mm

Outer diameter≤ 100 mm

The design: a compression spring

The simulation: stress in the spring at the working load

Requirements

From requirements to a verified design.

Computational engineering models turn requirements into geometry, then test it in simulation.

Requirements

400 Wheat load

≥ 300 Hzfirst mode

50 m/scruise speed

One model. The whole design space.

Change a requirement. The model regenerates the geometry, sizes it and checks every limit.

30 mm28.9 gall limits met

40 mm37.9 gall limits met

55 mm54.6 gall limits met

70 mm66.0 gfirst mode below limit

Stand-off heightMassStatus

Minutesper variant

No redrawgeometry comes from the model

Every limitchecked on every variant

Multiphysics verification on every build.

Supports, loads and mesh come from the model. No manual setup.

StructuralModalBucklingFatigueThermalTransient thermalCFDTransient CFD

Verified against analytical solutions.

Each solver is benchmarked before it runs on a customer part.

0.02%column buckling

0.09%fin heat transfer

0.3%beam deflection

0.4%beam natural frequency

Review-ready documentation.

Every result, check and field plot in one report.

Report cover Report results Report field plots

Manufacturing-ready output.

Every design exports as a print mesh, a print job and an engineering drawing.

STL: the generated part as a watertight triangle mesh

STLWatertight print mesh

3MF: a generated part on a build plate

3MFPrint job with units and part data

Engineering drawing: three views, isometric, key dimensions and title block

DrawingViews, dimensions, ISO title block

Put your requirements to work.