Foundrylike

Foundrylike is a computational framework designed to simulate and analyze industrial metal foundries and related manufacturing processes. It provides a suite of tools that model the dynamics of molten metal pouring, mold cooling, solidification, and defect formation. The platform is built to integrate with common CAD and CAM systems, allowing users to import geometry and process parameters directly into the simulation environment.

The core of Foundrylike consists of a finite element solver that handles heat transfer, fluid flow, and solid–liquid phase transitions. Users can specify material properties such as thermal conductivity, specific heat capacity, and latent heat, and the solver then predicts temperature fields, solidification fronts, and potential porosity. The framework also includes modules for simulating turbulence, shock waves from rapid filling, and acoustic phenomena that may affect component integrity.

Foundrylike is widely used in academic research and industrial settings to optimize casting designs and reduce costly defects. By providing quick virtual prototyping, it helps engineers iterate on mold geometry, gating systems, and cooling strategies before committing to physical prototypes. The tool supports export of results to standard formats, enabling further analysis in external visualization software.

The software also contains a library of common alloys such as steel, aluminum, and cast iron, each with pre‑defined rheological models. Users can extend these base models or input custom data for proprietary materials. Documentation includes detailed tutorials covering setup, mesh generation, and post‑processing best practices.

Overall, Foundrylike offers a flexible, physics‑based solution that simplifies the complex process of metal casting, enabling improved product quality and reduced development cycle times.