CFD Simulation
We transform fluid dynamics into a digital experiment — recreating the behaviour of air, water, heat, and multiphase flows through high-fidelity physics-based solvers. CFD predicts performance, eliminates guesswork, and accelerates engineering decisions.
What Is CFD Simulation?
Computational Fluid Dynamics (CFD) is a numerical technique that solves the governing equations of fluid flow — continuity, momentum (Navier–Stokes), turbulence transport, heat transfer, and multiphase interaction. In simple words, CFD recreates how fluids behave before you ever build a prototype.
From predicting pressure drops in pipes to analysing airflow over drones, from optimising heat exchangers to simulating combustion engines — CFD provides visibility into invisible physics. We use industry-grade solvers with turbulence models (k-ε, k-ω SST, LES), particle tracking frameworks, thermal solvers, and multiphase models for accurate real-world predictions.
- Reduce prototyping cost: Validate concepts virtually before manufacturing anything.
- Improve performance: Discover hidden inefficiencies in flow, thermal zones, or recirculation pockets.
- Enhance safety: Predict overheating, structural loads from pressure spikes, and flow-induced instabilities.
- Optimise energy use: Reduce pump power, blower requirements, or improve aerodynamics.
- Regulatory compliance: ASHRAE, ISO 5801, ISHRAE, API, automotive & aerospace standards.
Our CFD Process
What We Can Simulate
- Aerodynamics: Drag, lift, flow separation, wake analysis, UAV/automotive performance.
- Internal flow: Ducts, manifolds, valves, pumps, compressors, HVAC systems.
- Thermal management: Heat sinks, electronics cooling, battery packs, enclosures.
- Multiphase flows: Free surface, sloshing, liquid–gas interaction, cavitation.
- Combustion & species: Mixing quality, reaction zones, diffusion and convection patterns.
- Rotating equipment: Fans, blowers, turbo machinery, impellers (MRF & sliding mesh).
- FSI-ready outputs: Pressure fields for structural deformation coupling.
- Environmental & wind: Ventilation, dust transport, wind load on buildings.
Scientific References
AIAA Journal, 2020 — Standard methods for mesh independence, turbulence model accuracy, and solver reliability.
Journal of Fluid Engineering, 2021 — Comparative evaluation of RANS vs LES across engineering problems.
International Journal of Heat and Fluid Flow, 2022 — Insights into conjugate heat transfer and complex boundary interactions.
Ready to Simulate Your Flow or Thermal Problem?
From aerodynamics to cooling systems — CFD reveals the physics that matter.
Get a CFD QuoteCFD Simulation
We transform fluid dynamics into a digital experiment — recreating the behaviour of air, water, heat, and multiphase flows through high-fidelity physics-based solvers. CFD predicts performance, eliminates guesswork, and accelerates engineering decisions.
What Is CFD Simulation?
Computational Fluid Dynamics (CFD) is a numerical technique that solves the governing equations of fluid flow — continuity, momentum (Navier–Stokes), turbulence transport, heat transfer, and multiphase interaction. In simple words, CFD recreates how fluids behave before you ever build a prototype.
From predicting pressure drops in pipes to analysing airflow over drones, from optimising heat exchangers to simulating combustion engines — CFD provides visibility into invisible physics. We use industry-grade solvers with turbulence models (k-ε, k-ω SST, LES), particle tracking frameworks, thermal solvers, and multiphase models for accurate real-world predictions.
- Reduce prototyping cost: Validate concepts virtually before manufacturing anything.
- Improve performance: Discover hidden inefficiencies in flow, thermal zones, or recirculation pockets.
- Enhance safety: Predict overheating, structural loads from pressure spikes, and flow-induced instabilities.
- Optimise energy use: Reduce pump power, blower requirements, or improve aerodynamics.
- Regulatory compliance: ASHRAE, ISO 5801, ISHRAE, API, automotive & aerospace standards.
Our CFD Process
What We Can Simulate
- Aerodynamics: Drag, lift, flow separation, wake analysis, UAV/automotive performance.
- Internal flow: Ducts, manifolds, valves, pumps, compressors, HVAC systems.
- Thermal management: Heat sinks, electronics cooling, battery packs, enclosures.
- Multiphase flows: Free surface, sloshing, liquid–gas interaction, cavitation.
- Combustion & species: Mixing quality, reaction zones, diffusion and convection patterns.
- Rotating equipment: Fans, blowers, turbo machinery, impellers (MRF & sliding mesh).
- FSI-ready outputs: Pressure fields for structural deformation coupling.
- Environmental & wind: Ventilation, dust transport, wind load on buildings.
Scientific References
AIAA Journal, 2020 — Standard methods for mesh independence, turbulence model accuracy, and solver reliability.
Journal of Fluid Engineering, 2021 — Comparative evaluation of RANS vs LES across engineering problems.
International Journal of Heat and Fluid Flow, 2022 — Insights into conjugate heat transfer and complex boundary interactions.
Ready to Simulate Your Flow or Thermal Problem?
From aerodynamics to cooling systems — CFD reveals the physics that matter.
Get a CFD Quote