Key aspects of CFD modeling include:

• Fluid Flow Simulation: CFD uses mathematical equations, known as the Navier-Stokes equations, to model the movement of fluids. These equations account for factors like velocity, pressure, temperature, and turbulence, providing a detailed understanding of how fluids move and interact with their environment.
• 3D Representation: A 3D model of the environment or system of interest is created, and CFD software calculates how the fluid moves through this space. The model simulates various conditions, such as temperature changes, pressure variations, or the presence of obstacles like walls, vents, or equipment.
• Heat and Mass Transfer: In addition to fluid flow, CFD can simulate heat transfer (e.g., cooling and heating systems) and mass transfer (e.g., gas
  dispersion, and smoke movement), which are critical in fire safety engineering, HVAC systems, and energy management.
• Fire and Smoke Modelling: CFD is widely used in fire safety engineering to model the behavior of fire and smoke in buildings, tunnels, or other enclosed spaces. It helps predict how fire will spread, how smoke will move, and how long it will take to reach certain areas, aiding in the design of fire protection systems, egress routes, and ventilation.
• Optimization: CFD modeling allows engineers to test various design configurations or scenarios to optimize performance, safety, and efficiency. It is an essential tool for industries like aerospace, automotive, and fire safety.

OUR SCOPE OF WORK

We provide you with the latest performance-based design solutions and engineering best practices while helping to determine applicable codes and standards. We comply with the national codes and standards, engineering best practices, performance-based consulting, and fire & life safety audit criteria. Our team also specializes in construction and system investigation during the lifecycle of a building and assists in designing a go-forward plan and helps manage the upgrade.