PercSE

percSE is a computational methodology designed for the analysis and design of porous materials and structures, with particular applications in environmental engineering, materials science, and biomimicry. The term "percSE" typically refers to a simulation or modeling approach that focuses on fluid flow, permeability, and structural properties within porous systems.

The core principle of percSE involves simulating how fluids move through complex, interconnected pore networks. This methodology combines computer-aided design (CAD), finite element analysis (FEA), and network modeling to evaluate permeability, flow paths, and pressure distribution in porous materials. Its applications include optimizing filtration systems, soil remediation, catalyst support design, and biomimetic materials development.

PercSE models are often based on detailed representations of pore geometries, which can be derived from imaging techniques such as micro-computed tomography (micro-CT) or scanning electron microscopy (SEM). These images provide high-resolution data that inform the structural attributes of the pore network, enabling realistic simulations of fluid dynamics at multiple scales.

One of percSE's advantages is its ability to incorporate complex material features and to predict fluid behavior under various conditions without extensive physical prototyping. This makes it a valuable tool in designing sustainable and efficient porous materials inspired by natural systems, such as sponges, plant tissues, and coral structures.

Overall, percSE serves as a critical bridge between biological insights and engineering applications, helping researchers develop materials that emulate the efficiency, resilience, and functionality found in nature's porous structures. Its continued evolution contributes to advancements in sustainable design and resource-efficient technologies.