Beyond software.
A new layer
of intelligence.

Every design decision is recorded as a parametric feature: fillets, bosses, pockets, shells. Engineers modify individual steps without rebuilding the part from scratch.

Deliver .sldprt, .prt, and .f3d files with full feature fidelity. Your PLM system ingests the result like any other model your team produced.

Create multiple projects to explore different manufacturing processes, compare cost analysis, and evaluate manufacturability trade-offs, each producing a fully editable parametric model you can refine independently.

A guided setup experience that walks new users through project creation, constraint definition, and material selection. Engineers are productive from their first session, with contextual guidance tailored to their role and experience level.

The Co-Pilot autonomously sequences design tasks, from constraint intake through optimization to export, adapting its approach based on project complexity. Engineers set the intent; the platform handles the execution pipeline.

A continuously growing repository of your organization's design history, material specifications, manufacturing rules, and engineering standards. The Co-Pilot draws on this collective intelligence to inform every new project.

Before any solver runs, the Co-Pilot reviews your inputs for conflicting constraints, unrealistic load cases, and material incompatibilities. Problems are caught at definition time, not after hours of computation.

Every completed optimization generates a structured engineering report covering design rationale, constraint satisfaction, and manufacturing readiness. InfinitForm produces a publication-ready PDF automatically in roughly one minute, replacing the week-long manual reporting process most teams endure today. See example report.

The Co-Pilot analyzes results and surfaces actionable next steps: alternative manufacturing processes that reduce cost, constraint relaxations that unlock significant weight savings, or material substitutions that improve performance without compromising feasibility.

The optimizer never generates geometry below your specified minimum wall thickness, eliminating the single most common reason design files are rejected by manufacturing.

For cast and molded parts, draft angles are enforced relative to the pull direction throughout optimization. Every surface that must release from tooling does so by design, not by luck.

CNC-machined parts are validated for tool access from every required direction. The optimizer cannot create geometry a cutter cannot reach, eliminating EDM workarounds driven by bad DFM.

Critical dimensional tolerances and their assembly stack-up implications are factored into the structural optimization, ensuring the tightest tolerance requirements do not conflict with structural geometry.

Internal radii are constrained to achievable values for your specified tooling, preventing the generation of sharp internal corners that require EDM or hand-finishing to produce.

DFM rules are applied per-process. CNC, casting, molding, and additive each have distinct geometric requirements, and InfinitForm applies the correct ruleset for the manufacturing process you specify.

Real components experience multiple load scenarios across their service life. InfinitForm optimizes for all defined load cases concurrently, producing designs that perform across every operating condition.

InfinitForm's core solver is not an adaptation of academic topology optimization code. It was built for parametric output in manufacturing contexts: a structurally different mathematical approach to a structurally different problem.

InfinitForm processes 40M tetra element meshes across 220M total voxels in 3.5 hours, a workload that takes CPU-based solvers days to complete. That speed gap means your team explores 10x more design candidates in the same calendar time, surfacing solutions that sequential approaches would never reach.