
Resin Transfer Molding (RTM), porous media flow simulation, fluid dynamics analysis, composite manufacturing process optimization, mold filling simulation, and wicking/wetting applications.
Understanding liquid flow through porous materials is critical for composite manufacturing and other industrial processes. Existing simulation tools often struggle to accurately model wicking behavior, moving flow fronts, and partially saturated regions in complex porous structures. Manufacturers also face challenges in identifying dry spots, optimizing mold designs, and predicting permeability and filling performance in woven and stitched fiber mats used to produce lightweight, high-strength composite materials.
UWM researchers have developed PORE-FLOW, a specialized computational fluid dynamics (CFD) simulation tool designed to model liquid infiltration and wetting behavior in porous media. The technology provides more accurate predictions of wicking and mold-filling processes than conventional RTM simulation approaches, enabling manufacturers and engineers to optimize designs, improve material performance, and reduce production defects.
PORE-FLOW is a computational fluid dynamics (CFD) software platform developed at the University of Wisconsin-Milwaukee for simulating liquid infiltration and wetting in porous materials. Using a Finite Element/Control Volume (FE/CV) approach, it models flow in both 2D and 3D geometries and supports Darcy and Brinkman flow formulations. The software provides more accurate wicking and mold-filling predictions than conventional RTM simulation tools and can also model open-channel fluid flow.
Software developed and validated for porous media flow and mold-filling simulation applications.
We are seeking partners in composite manufacturing, engineering simulation software, advanced materials development, and industrial process optimization.
Issued copyright managed by the UWM Research Foundation.
Krishna Pillai, UWM Professor, Mechanical Engineering