We analyze, simulate, and optimize heat transfer processes (conduction, convection, and radiation) to maximize thermal efficiency, reduce energy losses, improve overall performance, and estimate the durability and lifespan of industrial equipment and systems.

We also evaluate the thermal (coupled structural thermal) and thermo-hydraulic behavior of components to determine the most suitable materials based on actual operating conditions, considering factors such as temperature, pressure, thermal cycles, and dynamic loads. This allows us to assess induced stresses, deformations, critical thermal gradients, thermal fatigue phenomena, creep, and failure due to thermo-mechanical cycles.

We accurately simulate fluid-solid interactions (fluid-structure interaction) under thermal and/or pressure loads, enabling us to analyze pressure losses, thermal stratification, induced vibration phenomena (Vortex Induced Vibration), instabilities, and resonances.