
Strut Lattices
Beam-based open-cell networks such as BCC, FCC, Octet and custom tessellations.

Design, print-check and simulate architected materials in one Python-based HPC framework. CAD generation, additive manufacturing analysis and finite element pre-processing, from a single interface.















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Every edition shares the same modeling core. Each step up adds the tools you need for the next stage of the workflow.
Generate strut, TPMS, spinodal, hybrid, graded and IPC geometry. Export STL and STEP.
Inner wall thickness, cross-sectional properties, IPC layers and colored sectional views, accelerated by HPC.
Overhangs, floating material, supports, layer cuts and the best printing direction, before the part reaches the printer.
Export solver-ready voxel finite element models straight from your design.
Three primary families and three derivative classes built through secondary operations, all sharing consistent control of geometric and volumetric parameters across sheet, skeletal and exoskeletal networks.

Beam-based open-cell networks such as BCC, FCC, Octet and custom tessellations.

Triply periodic minimal surfaces with zero mean curvature and smooth, continuous networks.

Stochastic phase-separation morphologies with tunable isotropy and porosity.

Multi-morphology designs with linear, cylindrical and spherical hybridization patterns.

Linear, cosine, sinusoidal and V-type density profiles for tailored stiffness along any axis.

Interpenetrating phase composites with several selectable reinforcement architectures.
Link mesoscale topology design to macroscale applications. Generate architected beams, plates, cylindrical specimens and sandwich panels from any family.




Judge printability and structural robustness before fabrication, and generate large, intricate geometries in parallel.
Colormap analysis of internal material distribution for 3D-printing feasibility.
Area, second moments and inertia tensors along any slicing axis.
Inspect each phase and reinforcement layer of interpenetrating composites.
Export analysis fields with the geometry for reports and downstream tools.
Multiprocessing for demanding geometry-generation tasks on dense grids.




From design to printer and solver.
Top6MetaAM+ covers the steps between design and production. It checks parts before they reach the printer and prepares models for finite element solvers, all inside the same framework.



Convert any generated architecture into a voxel mesh with boundary conditions ready for numerical analysis.


Start free with the core design workflow. Step up for analysis and HPC, or go all the way to printing and simulation.
Free with signup
The complete design and CAD export workflow.
Advanced analysis tools and HPC acceleration.
From design to printer and solver.
| Licences bought together | Discount | Top6MetaA | Top6MetaAM+ |
|---|
Prices in USD per licence. The discount depends on the number of licences bought at a single point in time. The Top6Meta core edition is free.
| Capability | Top6MetaCore | Top6MetaAAdvanced | Top6MetaAM+Additive Manufacturing |
|---|---|---|---|
| 5 architected material classes | |||
| Sheet · Skeletal · Exoskeletal networks | |||
| Supported topologies | 48 | 100 | 100 |
| Functional grading types | 1 | 4 | 4 |
| Hybridization patterns | 1 | 3 | 3 |
| STL + STEP CAD export | |||
| IPC layer preview & analysis | |||
| Inner wall thickness analysis | |||
| Effective cross-sectional properties | |||
| Colored exports / sectional views | |||
| HPC parallel processing | |||
| Priority support | |||
| AM printability analysis | |||
| FEA voxel export |
Real application windows, from parametric controls and 3D mesh views to wall thickness colormaps and print readiness.







Short walkthroughs of real engineering workflows, from parametric design to print-check and FE export.

Download the free edition for Windows or macOS, or request an advanced licence.