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Accessible basic CFD software user course

Accessible Basic CFD Software Usage Course

This course provides a practical introduction to CFD (Computational Fluid Dynamics) analysis, using accessible tools to simulate fluid flow and heat transfer. It focuses on the application of user-friendly software for analyzing common engineering problems, requiring no prior experience. Fundamental CFD concepts, simulation setup methodologies, results interpretation, and data visualization are explored, aiming to enable participants to apply these techniques in engineering design and process optimization.

The course includes practical examples and case studies, training students to simulate flows in different scenarios, such as flow around bodies or heat exchange in equipment. The goal is for participants to acquire the ability to use CFD software effectively to obtain valuable information that supports decision-making.

Duration3 months
ModeOnline
LanguageEnglish
Start datesSet by the faculty
AwardSEIUM Institute diploma
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Learning outcomes

What you will be able to do

01

CFD Fundamentals and Applications for Basic Naval Design

02

CFD Simulation in Hulls and Propellers: Initial Optimization

03

Comprehensive user-oriented design and validation (from modeling to manufacturing)

04

CFD Analysis: Rotor Dynamics and Naval Efficiency

05

CFD Simulation: Rotors, Design and Basic Naval Efficiency

06

CFD Simulation of Rotors: Basic Naval Design and Performance

07

CFD Analysis of Rotors: Modeling and Elementary Naval Performance

08

CFD Modeling of Rotors: Basic Naval Analysis and Performance

Profile

Who it's for

  • Students and graduates in Naval Engineering, Oceanography, Mechanical Engineering, or related disciplines.
  • Professionals in the naval industry, including shipyards, vessel design firms, maritime consultancies, and research organizations.
  • Engineers and technicians involved in vessel design and simulation, computational fluid dynamics (CFD), and performance analysis.
  • Personnel from maritime authorities and regulatory bodies who wish to acquire knowledge in CFD simulation for the analysis of boats.
Recommended Requirements: Basic knowledge of hydrodynamics, fluid mechanics, and software. Access to a computer with compatible software. We offer introductory courses if needed.
Standards & tools

What you'll work with

  • Standards-driven curriculum: you will work with CS-27/CS-29, DO-160, DO-178C/DO-254, ARP4754A/ARP4761, ADS-33E-PRF from the first module.
  • Accreditable laboratories (EN ISO/IEC 17025) with rotor bench, EMC/Lightning pre-compliance, HIL/SIL, vibrations/acoustics.
  • Evidence-oriented TFM: safety case, test plan, compliance dossierand operational limits.
  • Mentored by industry: teachers with experience in rotorcraft, tiltrotor, eVTOL/UAM and flight test.
  • Flexible modality (hybrid/online), international cohorts and support from SEIUM Career Services.
  • Ethics and security: safety-by-design approach, cyber-OT, DIH and compliance as pillars.
Syllabus

10 modules

  1. 1.1Introduction to Computational Fluid Dynamics (CFD) and its application in naval design.
  2. 1.2Basic principles of fluid dynamics: Navier-Stokes equations.
  3. 1.3Discretization of the equations: finite volume methods.
  4. 1.4Preprocessing: mesh creation and boundary condition definition.
  5. 1.5Postprocessing: results analysis and visualization.
  6. 1.6CFD applications in naval design: drag and propulsion.
  7. 1.7Flow simulation around the hull: shape analysis and its impact.
  8. 1.8Introduction to shape optimization using CFD.
  9. 1.9Basic concepts of turbulence and its modeling in CFD.
  10. 1.10Practical examples and case studies in naval design.
  1. 2.2Introduction to CFD Simulation of Hulls and Propellers
  2. 2.2Fundamental Principles of CFD Simulation in Naval Design
  3. 2.3Configuring CFD Models for Ship Hulls
  4. 2.4Analysis of Resistance Using CFD
  5. 2.5Propeller Simulation: Design and Initial Analysis
  6. 2.6Basic Optimization of Hulls and Propellers with CFD
  7. 2.7Interpreting CFD Results: Validation and Verification
  8. 2.8Practical Applications: Naval Design Case Studies
  9. 2.9Tools and Software for CFD Simulation in Naval Design
  10. 2.20Future Trends in CFD Simulation for the Shipbuilding Industry
  1. 3.3Introduction to CFD Flow Analysis in Marine Rotors
  2. 3.2Principles of CFD Simulation for Propeller Design
  3. 3.3Modeling Propeller Geometry for CFD
  4. 3.4Mesh Configuration and Boundary Conditions in CFD
  5. 3.5Flow Simulation in Propellers: Viscous Flow and Turbulence
  6. 3.6Results Analysis: Pressure, Velocity, and Forces in Rotors
  7. 3.7Propeller Design Optimization Using CFD
  8. 3.8Study of Propeller-Hulm Interaction with CFD
  9. 3.9Propeller Performance Analysis: Thrust and Torque
  10. 3.30Case Study: Application of CFD in the Design of Marine Propellers
  1. 4.4Introduction to Rotor Dynamics in Naval Design
  2. 4.2Principles of Computational Fluid Dynamics (CFD) Applied to Rotors
  3. 4.3Geometric Modeling and Meshes for CFD Analysis of Rotors
  4. 4.4Setting Boundary Conditions and Simulation Parameters
  5. 4.5Flow Analysis Around Rotors: Visualization and Results
  6. 4.6Evaluation of Rotor Performance: Thrust, Torque, and Efficiency
  7. 4.7Rotor Design Optimization Using CFD
  8. 4.8Effects of Cavitation in Rotor Design
  9. 4.9Applications of CFD in the Analysis of Different Types of Naval Rotors
  10. 4.40Interpretation of Results and Decision-Making in Naval Design
  1. 5.5Introduction to Computational Fluid Dynamics (CFD) and its application in naval design.
  2. 5.5Fundamental concepts of fluid theory and its equations.
  3. 5.3Preprocessing: mesh generation and definition of boundary conditions.
  4. 5.4Solving basic CFD problems: flow around simple bodies.
  5. 5.5Post-processing and results analysis: data interpretation.
  6. 5.6Practical applications: drag and estimation of required power.
  7. 5.7CFD tools for basic naval design.
  8. 5.8Examples of naval design using CFD.
  9. 5.5Optimization of hull shape to reduce drag.
  10. 5.5CFD simulation of hull-water interaction: waves and swells.
  11. 5.3Propeller design: selection and initial optimization.
  12. 5.4Cavitation and noise analysis in propellers. 5.5 Optimization Methodologies: Parametric Design and Genetic Algorithms
  13. 5.6Sensitivity Analysis: Identification of Key Variables
  14. 5.7Case Studies: Hull and Propeller Optimization
  15. 5.8Performance Evaluation: Efficiency and Cost Reduction
  16. 3.5Modeling Flow Through Naval Rotors: Propellers and Azimuthal Rotors
  17. 3.5Rotor-Water Interaction Simulation: Propeller Wake
  18. 3.3Analysis of Pressure and Force Distribution on the Rotor
  19. 3.4Thrust and Torque Estimation
  20. 3.5Turbulent Flow: Models and Simulation Techniques
  21. 3.6Complex Flow Phenomena: Cavitation and Vortices
  22. 3.7Validation of CFD Results with Experimental Data
  23. 3.8Practical Applications: Propeller Design and Analysis
  24. 4.5Rotor Dynamics Analysis: Effects of Speed ​​and Angle of Attack
  25. 4.5Rotor-Flow Interaction Simulation: Wakes and Vortices
  26. 4.3Rotor Performance Study Under Different Operating Conditions
  27. 4.4Propulsive Efficiency and Power Required Analysis
  28. 4.5Rotor Design Optimization for Improved Efficiency
  29. 4.6Rotor Geometry Influence Analysis on Performance
  30. 4.7Comparison of Different Rotor Designs Using CFD
  31. 4.8Propeller and Rotor Design with CFD: Practical Cases
  32. 5.5Marine Rotor Design Using CFD Tools
  33. 5.5Rotor Design Optimization for Improved Performance and Efficiency
  34. 5.3Geometry Influence Analysis on Performance
  35. 5.4Rotor-Flow Interaction Simulation: Wakes and Vortices 5.5 Thrust and torque estimation under different operating conditions.
  36. 5.6Cavitation analysis and its impact on rotor performance.
  37. 5.7Propeller and rotor design using CFD: case studies.
  38. 5.8Implementing CFD in the propeller design process.
  39. 6.5CFD simulation for propeller and rotor performance evaluation.
  40. 6.5Propulsive efficiency and power requirement analysis.
  41. 6.3Rotor design optimization for improved performance.
  42. 6.4Rotor-water interaction simulation: wakes and vortices.
  43. 6.5Naval rotor design using CFD: practical case studies.
  44. 6.6Analysis of the influence of geometry on performance.
  45. 6.7Validation of CFD results with experimental data.
  46. 6.8Tools and methodologies for propeller design.
  47. 7.5Modeling of Naval Rotors: Propellers and Other Propulsion Systems
  48. 7.5Analysis of Pressure and Force Distribution in the Rotor
  49. 7.3Thrust and Torque Estimation
  50. 7.4Rotor-Water Interaction Simulation
  51. 7.5Modeling Cavitation in Rotors
  52. 7.6Comparison of Different Rotor Designs
  53. 7.7Use of CFD Software for Rotor Analysis
  54. 7.8Rotor Design Optimization
  55. 8.5CFD Modeling of Rotors: Geometry Definition and Meshing
  56. 8.5Rotor-Water Interaction Analysis: Flow Simulation
  57. 8.3Rotor Performance Evaluation: Propulsive Efficiency
  58. 8.4Study of the Influence of Design Parameters on Performance
  59. 8.5Analysis of Cavitation and Its Effects 8.6 Rotor design optimization for improved naval performance.
  60. 8.7Validation of results with experimental data.
  61. 8.8Practical cases and CFD applications in naval design.
  1. 6.6Introduction to Naval Rotor Design and CFD
  2. 6.2Principles of CFD Simulation for Rotors
  3. 6.3Geometric Modeling of Rotors
  4. 6.4CFD Solver Mesh and Configuration
  5. 6.5Flow Analysis around Rotors
  6. 6.6Prediction of Rotor Performance (Thrust, Torque, Efficiency)
  7. 6.7Rotor Design Optimization
  8. 6.8Case Studies: Real-World Applications
  9. 6.9Interpretation of Results and Conclusions
  10. 6.60Integration of Rotor Design into Overall Naval Design
  1. 7.7Introduction to Computational Hydrodynamics (CFD) in Naval Design
  2. 7.2Fundamental Principles of CFD: Equations and Discretization
  3. 7.3CFD Applications in Ship Design: Drag and Propulsion
  4. 7.4CFD Software: Introduction and Tools for Naval Design
  5. 7.7Geometry Preparation: Meshes and Boundary Conditions
  6. 7.6Basic CFD Analysis: Validation and Verification of Results
  7. 7.7Interpretation of Results: Pressure, Velocity, and Forces
  8. 7.8Case Studies: CFD Applications in Hull Design
  9. 2.7Hull Optimization: Reduction of Drag
  10. 2.2CFD Simulation of Propellers: Design and Initial Analysis
  11. 2.3Hull-Propeller Interaction: Analysis and Optimization
  12. 2.4Propeller Design: Selection and Configuration
  13. 2.7Optimization of Propulsive Efficiency: Efficient Propellers
  14. 2.6Flow Analysis Regarding Hulls: Effects of Shape and Appendages
  15. 2.7Cavitation Simulation: Detection and Mitigation
  16. 2.8Case Studies: Ship Design Optimization with CFD
  17. 3.7Introduction to Naval Rotors: Types and Characteristics
  18. 3.2CFD Modeling of Rotors: Methods and Techniques
  19. 3.3Flow Analysis in Rotors: Pressure and Velocity Distribution
  20. 3.4Calculation of Thrust and Torque: Rotor Performance
  21. 3.7Effects of Cavitation on Rotors: Simulation and Analysis
  22. 3.6Rotor Optimization: Blade Design and Tuning
  23. 3.7Analysis of Rotor-Flow Interaction: Wakes and Vortices
  24. 3.8Case Studies: CFD Analysis of Rotors under Different Conditions
  25. 4.7Computational Fluid Dynamics (CFD) of Rotors: Theory
  26. 4.2Advanced Rotor Modeling: Methods Interface
  27. 4.3Stability and Maneuverability Analysis: CFD Simulation
  28. 4.4Rotor-Rotor Interaction: Flow and Efficiency Analysis
  29. 4.7Unsteady Flow Simulation: Design and Analysis
  30. 4.6Rotor Design Optimization: Efficiency Considerations
  31. 4.7Energy Efficiency Analysis: Methods and Techniques
  32. 4.8Case Studies: CFD Rotor Performance Analysis
  33. 7.7Rotor Design Principles: Key Aspects
  34. 7.2CFD Rotor Simulation: Design and Optimization
  35. 7.3Performance Analysis: Metrics and Evaluation
  36. 7.4Propeller Design: Methodology and Tools
  37. 7.7Blade Profile Optimization: CFD Design
  38. 7.6Cavitation Analysis: Effects and Mitigation
  39. 7.7High-Efficiency Rotor Design: Strategies
  40. 7.8Case Studies: Rotor Design and Analysis
  41. 6.7Simulation Advanced CFD: Techniques and Tools
  42. 6.2Rotor Design: Design Considerations
  43. 6.3Performance Analysis: Evaluation Metrics
  44. 6.4Design Optimization: Methodology and Strategies
  45. 6.7Effects of Cavitation: Simulation and Analysis
  46. 6.6Propeller Design: Selection and Tuning
  47. 6.7Flow Simulation: Methods and Techniques
  48. 6.8Case Studies: CFD Simulation in Naval Design
  49. 7.7Rotor Modeling: Fundamentals and Methods
  50. 7.2CFD Analysis of Rotors: Techniques and Tools
  51. 7.3Naval Performance: Metrics and Evaluation
  52. 7.4Design Optimization: Strategies and Methods
  53. 7.7Cavitation Analysis: Simulation and Mitigation
  54. 7.6Propeller Design: Key Considerations
  55. 7.7Flow Modeling: Methods and Techniques
  56. 7.8Case Studies: Modeling and Analysis
  57. 8.7CFD Modeling: Fundamentals and Methodology
  58. 8.2Rotor Analysis: Techniques and Tools
  59. 8.3Naval Performance: Evaluation Metrics
  60. 8.4Design Optimization: Strategies and Approaches
  61. 8.7Cavitation Analysis: Simulation and Effects
  62. 8.6Propeller Design: Principles and Considerations
  63. 8.7Flow Modeling: Advanced Methods
  64. 8.8Case Studies: Design and Analysis
  1. 8.8Introduction to Computational Fluid Dynamics (CFD) and its application in naval design.
  2. 8.8Fundamental principles of CFD: Navier-Stokes equations, discretization, meshing.
  3. 8.3Basic applications of CFD in naval design: drag, stability.
  4. 8.4CFD software: introduction and basic workflow.
  5. 8.5Interpretation of results: visualization and data analysis.
  6. 8.8CFD simulation of ship hulls: drag and shape optimization.
  7. 8.8CFD analysis of propellers: performance and efficiency.
  8. 8.3Hull-propeller interaction: joint simulation and optimization.
  9. 8.4Study of different types of hulls and propellers.
  10. 8.5Parameter tuning and results analysis.
  11. 3.8Introduction to CFD flow analysis in marine rotors: propellers and turbines.
  12. 3.8Rotor Flow Modeling: Methods and Techniques
  13. 3.3Rotor Performance Analysis: Thrust, Torque, Efficiency
  14. 3.4Study of the Influence of Rotor Geometry on Performance
  15. 3.5Rotor Design Optimization Using CFD
  16. 4.8Naval Rotor Dynamics: Effects of Rotation and Cavitation
  17. 4.8CFD Analysis of Rotor Dynamics: Transient Flow Simulation
  18. 4.3Study of the Influence of Speed ​​and Depth on Rotor Performance
  19. 4.4Rotor Design Optimization to Improve Efficiency and Reduce Cavitation
  20. 4.5Analysis of Rotor Dynamics Under Different Operating Conditions
  21. 5.8Naval Rotor Design Using CFD: Methodology and Tools
  22. 5.8CFD Simulation of Rotor Design: Flow and Performance Analysis 5.3 Rotor Design Optimization for Different Naval Applications
  23. 5.4Rotor Efficiency Analysis: Factors Influencing Performance
  24. 5.5Case Studies: Design and Analysis of Specific Rotors
  25. 6.8Rotor Design: Selection of Profiles and Geometries
  26. 6.8CFD Simulation: Analysis of the Influence of Design Parameters
  27. 6.3Naval Performance: Evaluation of Rotor Efficiency
  28. 6.4Design Optimization: Strategies and Methods
  29. 6.5Case Studies: Design and Analysis of Rotors for Different Vessels
  30. 7.8Rotor Modeling: Techniques and Considerations
  31. 7.8CFD Analysis: Simulation of Flow Around the Rotor
  32. 7.3Naval Performance: Evaluation of Thrust, Torque, and Efficiency
  33. 7.4Case Studies: Analysis of the Performance of Different Rotors
  34. 7.5Application of CFD in Improving Rotor Design
  35. 8.8CFD Modeling: Analysis Preparation and Configuration
  36. 8.8Performance Analysis: Evaluation of Key Parameters
  37. 8.3Design Improvement: Rotor Optimization
  38. 8.4Naval Applications: Case Studies
  39. 8.5Results and Conclusions
  1. 9.9CFD Fundamentals in Basic Naval Design
  2. 9.9CFD Applications in Hulls and Propellers
  3. 9.3Initial Hull Optimization with CFD
  4. 9.4CFD Flow Analysis in Propulsion Systems
  5. 9.5Naval Performance: CFD Modeling and Simulation
  6. 9.6Rotor Dynamics: Advanced CFD Analysis
  7. 9.7Naval Design and Efficiency with CFD of Rotors
  8. 9.8Rotor Modeling for Performance Analysis
  9. 9.9Flow Analysis in Rotors: Techniques and Applications
  10. 9.90Naval Design and Performance: Case Studies
  1. 1.1Introduction to CFD Optimization in Naval Design
  2. 1.2Defining Objectives and Constraints in Vessel Design
  3. 1.3Selecting CFD Tools and Software for Naval Applications
  4. 1.4Preprocessing: Geometric Modeling and Meshes for CFD
  5. 1.5Simulation Setup: Boundary Conditions and Parameters
  6. 1.6Results Analysis: Data Interpretation and Visualization
  7. 1.7Optimization Techniques: Algorithms and Strategies
  8. 1.8Design Evaluation and Decision Making
  9. 1.9Results Validation and Final Considerations
  10. 1.10Final Project Presentation
Methodology, software & labs

How you'll learn

  • Hands-on methodology: test-before-you-trust, design reviews, failure analysis, compliance evidence.
  • Software (depending on licenses/partners): MATLAB/Simulink, Python (NumPy/SciPy), OpenVSP, SU2/OpenFOAM, Nastran/Abaqus, AMESim/Modelica, acoustics tools, planning toolchains DO-178C.
  • SEIUM Laboratories: scale rotor bench, vibrations/acoustics, EMC/Lightning pre-compliance, HIL/SIL for AFCS, data acquisition with strain gauging.
  • Standards and compliance: EN 9100, 17025, ISO 27001, GDPR.
Accreditable laboratories(EN ISO/IEC 17025) with rotor bench, EMC/Lightning pre-compliance, HIL/SIL, vibrations/acoustics.
Evidence-oriented Master's Thesis:safety case, test plan, compliance dossier and operational limits.
Industry Mentored:teachers with experience in training, , eVTOL/UAM and flight test.
Flexible modality(hybrid/online), international cohorts and support from SEIUM Career Services.
Ethics and safety:safety-by-design approach, cyber-OT, DIH and compliance as pillars.
Career opportunities

Where this takes you

CFD Analyst (Simulation, Fluid Flow)CFD User (Simulation, Fluid Flow)CFD User (Simulation, Fluid Flow)**CFD User** (Simulation, Fluid Flow)**CFD User** (Simulation, Fluid Flow)**CFD User** (Simulation, Fluid Flow)
Admissions & scholarships

Requirements

  • Profile: Background in Computer Engineering, Mathematics, Statistics, or related fields; practical experience in NLP and valued information retrieval systems.
  • Documentation: Updated CV, academic transcript, SOP/statement of purpose, project examples or code (optional).
  • Process: Application → Technical evaluation of profile and experience → Technical interview → Review of case studies → Final decision → Enrollment.
  • Fees:
    • Single payment: 10% discount.
    • Payment in 3 installments: No fees; 30% upon registration + 2 equal monthly payments of the remaining 35%. Monthly payment: available with a 7% commission on the total; annual review. Scholarships: based on academic merit, financial need, and promoting inclusion; agreements with companies in the sector for partial or full scholarships. See "Calendar & Calls for Applications," "Scholarships & Grants," and "Fees & Financing" in the SEIUM mega-menu.

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FAQ

Frequently asked questions

Yes, we have international certification

Yes: experimental models, real data, applied simulations, professional environments, real case studies.

It is not mandatory. We offer leveling tracks and tutoring.

Completely. It covers e-propulsion, integration, and emerging regulations (SC-VTOL).

Recommended. There are also internal challenges and consortiums.

Yes. Online/hybrid modality with planned labs and visa support (see “Visa & Residence”).

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