CFD Engineering Applied to Industry and Energy
Computational Fluid Dynamics (CFD) enables the analysis of complex phenomena such as flow, heat transfer, contaminant dispersion, and aerodynamic behavior using advanced numerical models. At INCIMAT, we use CFD simulation as a decision-making tool, allowing us to evaluate different scenarios before implementation and optimize the design of facilities, equipment, and processes.
Our studies combine detailed three-dimensional models with real operating conditions to reproduce the behavior of fluids, gases, and particles in complex industrial environments. We analyze both steady-state conditions and transient phenomena, taking into account factors such as turbulence, temperature, wind, emissions, pressure drops, and interactions with structures and equipment.
The goal is not merely to generate numerical models, but to provide technical solutions that improve safety, operational efficiency, and facility performance.
Sectors of Operation
• Refining and petrochemicals
• Energy and power generation
• Chemical industry
• Process industry
• Industrial infrastructure
• Environment
• Waste management
• Fluid storage and transportation
• Unique buildings
• Logistics and industrial facilities
Our Capabilities
✓ Fluid flow simulation
✓ Heat transfer
✓ Atmospheric dispersion
✓ Wind studies
✓ Industrial ventilation
✓ Fire and smoke simulation
✓ Process optimization
✓ Pressure drop analysis
✓ Transient studies
✓ Evaluation of design alternatives
Gas Dispersion and Emissions
We analyze the behavior of atmospheric emissions from smokestacks and industrial facilities, evaluating concentrations, trajectories, and potential impacts on the environment. These studies enable us to optimize emission heights, locations, and operating conditions.
Wind Studies
We simulate the interaction of wind with buildings, industrial structures, chimneys, towers, and other infrastructure. We evaluate wind speeds, turbulence, recirculation, and pressure distributions to improve the design and safety of facilities.
Industrial Ventilation
We study airflow in buildings and industrial facilities to optimize ventilation, exhaust, and air renewal systems, ensuring proper operating conditions and safety.
Fire and Smoke Simulation
We model the spread of smoke, hot gases, and combustion products in open or enclosed spaces. These studies enable us to evaluate emergency scenarios and design more effective protective measures.
Thermal Analysis
We evaluate heat transfer phenomena—including conduction, convection, and radiation—in equipment, ducts, and industrial facilities. We analyze temperatures, thermal gradients, and energy efficiency.
Equipment and Process Optimization
We use CFD to improve the performance of industrial equipment, reduce energy losses, and optimize processes such as transport, mixing, separation, and heat transfer.
Duct and Pipe Networks
We analyze flow behavior in complex duct and pipe systems, evaluating pressure drops, flow rate distribution, recirculation zones, and hydraulic behavior.
Particle and Contaminant Simulation
We model the transport of solid particles, aerosols, and suspended contaminants to evaluate their dispersion, deposition, and behavior within industrial processes or in the environment.
We turn simulation into practical engineering. Do you need assistance with a CFD study?
Vortex Shedding Analysis of a Slender Structure
INCIMAT carried out a vortex shedding analysis of a slender structure, evaluating the interaction between wind flow and the geometry of the element to determine
Energy Monitoring and Optimization System for Research Facilities
INCIMAT has participated in the development of energy monitoring systems designed for the tracking, analysis, and optimization of energy consumption in technical installations within research
CFD Simulation of Airflow in Operating Rooms
INCIMAT carried out an advanced Computational Fluid Dynamics (CFD) simulation to analyze airflow behavior within operating rooms, evaluating the effectiveness of ventilation, air supply, and
Simulation of Smoke Propagation in an Industrial Building
INCIMAT developed a smoke propagation simulation for an industrial building, evaluating the behavior of the hot gases generated during a fire scenario and their impact
Hydraulic Analysis and Relocation of Industrial Gas Networks in an Energy Facility
Modifications to existing industrial facilities require ensuring that any changes introduced do not adversely affect the performance of critical process systems. In this project, INCIMAT
Hydrogen Dispersion Simulation in a Semi-Enclosed Facility
INCIMAT carried out an advanced hydrogen dispersion simulation within a semi-enclosed facility, evaluating the behavior of the gas under potential leak scenarios and assessing the