Energy and Mechanical Audit with CFD Analysis
We evaluate the real behavior of gas flows, temperatures, and pressures within thermal equipment using Computational Fluid Dynamics.
Integral Operational Vision
At IAO, we offer advanced Computational Fluid Dynamics (CFD) services. This precision engineering tool allows us to evaluate three-dimensional and multiphysics behavior within your industrial systems under actual operating conditions. We identify in record time opportunities for efficiency improvement, mechanical reliability, and direct energy enhancement.
Simulation Methodology
The study is carried out through three-dimensional models and computer simulations that reproduce the thermodynamic conditions of your plant.
- Digital recreation of geometry and flows.
- Visualization of thermal maps and fluid-structure thermodynamics.
- Virtual evaluation of improvement scenarios and retrofits before manufacturing physical parts (substantial time and cost savings).
What do we analyze
with precision?
Flow Distribution
Analysis of combustion gas behavior and internal currents.
Temperature Fields
Thermal and sustained pressure mapping under stress in actual operating conditions.
Mal-distribution
Clear identification of impact zones, sharp turbulence, and preferential flows.
Thermal Effectiveness
Transfer in tube banks and optimization of convection and radiation surfaces.
Pressure Drops
Drastic analysis of pressure drops, bottlenecks, and absolute flow restrictions.
Structural Wear
Prediction of areas susceptible to thermal fatigue, erosion, or imminent failure.
Systems We Evaluate
- Boilers (Water/Fire-tube)
- Flue gas systems
- Steam superheaters
- Convection tube banks
Results and Direct Benefits
We deliver conclusive technical diagnostics and executive reports. Our design and calibration recommendations transform unstable equipment into productive assets.
Energy Efficiency Increase: Optimal caloric utilization translated into fuel savings.
Reduction of Mechanical Failures: Prevention of premature leaks by ensuring flow stabilization.