Computational Fluid Dynamics (CFD) is a simulation technique used to understand how gases, liquids, and particles move and interact within a system. By solving complex physics equations inside a 3D digital environment, CFD allows engineers to visualize airflow, pressure, temperature, turbulence, and particulate behaviour long before anything is built.

For industrial facilities, this means problems can be identified early, equipment can be sized accurately, and designs can be optimized for safety, efficiency, and performance, without the cost of physical prototypes or trial-and-error testing.

At March Consulting, CFD is a key part of our advanced engineering toolkit. Using industry-leading simulation platforms such as Altair and EDEM, our team analyzes real-world fluid and particulate behaviour to help clients make confident, data-driven design decisions.

By applying CFD early in a project, we reduce uncertainty, improve constructability, and support safer, more efficient facility operations.

• Dust, fume & ventilation analysis
  Modeling airflow, particulate dispersion, and capture efficiency to enhance worker safety and compliance.

• Thermal management & heat transfer
  Studying temperature distribution, equipment heat loading, and cooling performance.

• Flow distribution & pressure-drop analysis
  Optimizing the performance of ducts, piping systems, vessels, and mechanical equipment.

• Bulk material & particulate flow modeling
  CFD–DEM coupling to simulate potash, ore, fertilizer, and other solids handled in mining and processing environments.

• Equipment & process optimization
  Predicting performance for fans, blowers, scrubbers, cyclones, storage bins, hoppers, and drying or ventilation systems.

• Physics-based accuracy that strengthens engineering decisions.

• Early detection of performance issues, reducing fabrication and installation changes.

• Integrated multidisciplinary design, ensuring CFD results flow directly into mechanical, structural, and process solutions.

• Reduced operational costs through optimized airflow and energy efficiency.

• Improved safety with clear visualization of dust, gas movement, and thermal risks.