CFD provides a predictive understanding of fluid behaviour in complex systems. This reduces risk and enable efficient designs the aerospace, automotive, and maritime engineering industries.

By employing CFD analysis, engineers actively refine designs to enhance performance. As a result, vehicles achieve greater aerodynamic efficiency, plants operate more reliably, and HVAC systems are engineered for energy efficiency.

By predicting how gases or liquids will behave under various conditions, CFD helps in assessing and mitigating potential risks such as toxic gas dispersion, development of explosive environments, overpressure events and failure of equipment.

Physical prototyping and testing can be prohibitively expensive and time-consuming. CFD reduces the reliance on experimental testing, thus cutting down the cost and time to market. There are also many situations where physical testing is not practical such as high pressure equipment or complex overpressure events.

CFD plays a pivotal role in environmental modelling. This practice ensures compliance with drinking water standards, allowing us to understand water quality, assess gas dispersion, optimise thermal comfort, analyse chlorine contact, and examine other wastewater treatment processes.