Fluid Flow through Fracture Networks: A Multidisciplinary Exploration

Abstract

The present study delves into simulating 2D laminar flow through fractured networks using the Local Cubic Law approximation by employing aperture maps, fluid properties, and boundary conditions to analyze pressure and flow fields, offering insights into complex fluid dynamics. The subsequent discussion emphasizes the significance of normalized pressure fields in fractured networks. Such normalization allows for the comparative assessment of pressure variations, aiding in the identification of preferential flow paths and potential hydraulic barriers. The article underscores the broader applications of studying fractured networks, including geological formations, enhanced oil recovery, environmental impact assessment, groundwater management, and engineered infrastructure. The study concludes by emphasizing the indispensable nature of this research in optimizing resource extraction, managing environmental impacts, and enhancing the efficiency of fluid-related processes across diverse scientific and engineering do- mains. The overarching theme highlights the growing importance of understanding flow through fractured networks and utilizing normalized pressure analysis to address contemporary challenges and con- tribute to sustainable development.