TecGeetha Certified Professional Program in CFD Simulation

Industry-oriented training in computational fluid dynamics covering fluid flow, heat transfer, turbulence, multiphase systems, meshing, solver setup, post-processing and engineering interpretation using ANSYS Fluent and OpenFOAM.

Build Practical CFD Skills for Real Engineering Applications

This professional program is designed for engineering students, fresh graduates and working professionals who want to develop practical CFD simulation skills using ANSYS Fluent and OpenFOAM.

The program combines fluid mechanics, heat transfer, turbulence modelling, meshing, numerical methods, solver setup, convergence assessment, post-processing and engineering interpretation.

CFD training course using ANSYS Fluent and OpenFOAM
ANSYS FluentIndustrial CFD Workflows
OpenFOAMOpen-Source CFD Practice
Capstone ProjectComplete CFD Case Study

Program Coverage

This comprehensive professional training program covers:

  • Introduction to CFD and Engineering Applications
  • Fluid Mechanics and Heat Transfer Fundamentals
  • Governing Equations and Numerical Methods
  • Geometry Preparation and Mesh Generation
  • Boundary Conditions and Material Properties
  • Solver Setup and Solution Controls
  • Laminar and Turbulent Flow Simulation
  • Internal and External Flow Analysis
  • Heat Transfer and Thermal Analysis
  • Multiphase Flow Fundamentals
  • Mixing, Agitation and Rotating Systems
  • Species Transport and Dispersion
  • Convergence, Validation and Mesh Independence
  • ANSYS Fluent and OpenFOAM Training
  • Industrial Case Studies and Final Capstone Project
  • Final Examination, Certification and Placement Assistance

Software Covered

Practical simulation training across commercial and open-source CFD platforms.

ANSYS Fluent

  • Geometry and mesh workflow
  • Turbulence, heat transfer and multiphase models
  • Rotating systems and species transport
  • Convergence monitoring and post-processing

OpenFOAM

  • Case structure and solver selection
  • Mesh setup and boundary conditions
  • Running, monitoring and troubleshooting cases
  • ParaView post-processing and result extraction

Simulation Applications Covered

CFD applications across process, automotive, aviation, electronics, pharmaceutical and building industries.

Fluid Flow Analysis

Internal and external flow, pressure drop, velocity distribution, recirculation, dead zones and flow maldistribution.

Heat Transfer & Thermal Management

Forced and natural convection, conjugate heat transfer, hotspots, electronics cooling, batteries, heat sinks and cold plates.

Mixing & Agitation

Agitated vessels, impeller performance, mixing time, dead zones, baffle comparison and pharmaceutical mixing applications.

Multiphase Flow

Gas–liquid, liquid–liquid, solid–liquid, slurry flow, particle tracking, sprays, sedimentation and free-surface analysis.

Automotive Applications

Vehicle aerodynamics, underbody flow, drag assessment, engine-bay cooling, battery thermal management and HVAC airflow.

Aviation & Aerospace

External aerodynamics, wing and component airflow, aircraft cabin ventilation, avionics cooling, intakes and ducts.

Electronics Cooling

PCB thermal assessment, enclosure ventilation, server racks, data centres, heat sinks and electrical-panel cooling.

Pharmaceutical Applications

Cleanroom airflow, contamination control, reactor mixing, sterile-room ventilation and process-equipment performance.

Ventilation & HVAC

Indoor airflow, thermal comfort, industrial ventilation, smoke movement and HVAC air-distribution studies.

CFD Methodology

A structured workflow from model preparation to engineering recommendations.

Geometry Preparation

CAD cleanup, fluid-domain extraction, simplification and boundary definition.

Meshing

Element selection, local refinement, boundary layers, mesh quality and independence checks.

Solver Setup

Materials, boundary conditions, physical models, numerical schemes and convergence controls.

Results & Interpretation

Contours, streamlines, balances, design comparison and engineering recommendations.

Practical Industrial Case Studies

Application-focused examples from multiple engineering sectors.

  • Pressure drop in piping systems
  • Flow through valves and fittings
  • Agitated tank and pharmaceutical reactor mixing
  • Separator and cyclone performance
  • Heat-transfer equipment analysis
  • Automobile aerodynamics and engine-bay cooling
  • Aircraft external flow and cabin ventilation
  • Avionics and electronics cooling
  • Battery thermal management
  • Data-centre airflow
  • Cleanroom airflow and contamination control
  • HVAC air distribution
  • Gas dispersion and particle erosion
  • Pump or fan internal flow
  • Process equipment optimization

Industry Capstone Project

Complete a guided CFD engineering project covering problem definition, geometry preparation, meshing, physical-model selection, solver setup, convergence assessment, post-processing, design comparison and final engineering report preparation.

Who Should Join?

Suitable for students, graduates and professionals seeking CFD and CAE careers.

  • Mechanical Engineering Students
  • Chemical Engineering Students
  • Aerospace Engineering Students
  • Automotive Engineering Students
  • Production and Petroleum Engineering Students
  • Civil and Environmental Engineering Students
  • Fresh Engineering Graduates
  • Design and Process Engineers
  • Thermal and HVAC Engineers
  • Equipment Engineers
  • CAE and R&D Professionals
  • Working Professionals Seeking CFD Skills

Career Opportunities

The program supports preparation for roles across simulation, product development and engineering consulting.

CFD Engineer

CAE Engineer

Thermal Engineer

Fluid Systems Engineer

Automotive CFD Engineer

Aerospace CFD Engineer

Electronics Cooling Engineer

R&D Engineer

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Build Your Career in CFD Simulation

Develop practical skills in fluid flow, heat transfer, turbulence, multiphase systems, meshing, solver setup and engineering interpretation using ANSYS Fluent and OpenFOAM.