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Postgraduate DiplomaElectromobility, Batteries & Hydrogen Applications open

Diploma in Skyscraper Aerodynamics and Wind Comfort

The Diploma in Skyscraper Aerodynamics and Wind Comfort explores the application of computational aerodynamics (CFD) and airflow analysis principles to skyscraper design, focusing on optimizing wind comfort and mitigating effects such as wind vortex and dynamic pressure. Wind-building interaction is studied, implementing simulations to analyze natural ventilation and indoor air quality, and relating these factors to energy efficiency and occupant well-being.

The diploma provides tools to assess the impact of wind on the structural stability of tall buildings, including the study of virtual wind tunnels and the application of turbulence models.

Design strategies are addressed to reduce wind force, decrease wind noise, and improve the sustainability of projects. Concepts of urban wind energy and the integration of natural ventilation systems are included.

Duration6–8 months
ModeOnline
AwardSEIUM Institute diploma
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Learning outcomes

What you will be able to do

01

Advanced Analysis of Wind Comfort and Aerodynamic Design of Skyscrapers

02

Optimization of Wind Comfort and Aerodynamic Design of High-Rise Buildings

03

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

04

Evaluation and Design of Rotational Systems for Wind Control in Urban Environments

05

Detailed Analysis of the Performance of Rotating Systems in Skyscraper Environments

06

In-depth Study of Rotor Modeling and Performance for Skyscrapers

07

Detailed Evaluation of Rotor Modeling and Operation in Skyscraper Environments

08

Specialized Study of Rotor Modeling and Operation in the Context of Skyscraper Wind Turbines

Profile

Who it's for

  • Engineers with degrees in Aerospace, Mechanical, Industrial, Automation, or related fields.
  • Professionals working in the OEM rotorcraft/eVTOL, MRO, consulting, and research industries at technology centers.
  • Specialists in areas such as Flight Testing, aeronautical certification, avionics, control systems, and flight dynamics who wish to deepen their knowledge.
  • Officials and experts from regulatory bodies and competent authorities, as well as professionals involved in Urban Air Mobility (UAM) / eVTOL who need to acquire skills in regulatory compliance.
Desired requirements: Fundamental knowledge of aerodynamics, control systems, and structures. Proficiency in Spanish/English at a B2+/C1 level. Bridging tracks are provided for those who require them.
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. Module 1 — Advanced Analysis of Wind Comfort and Aerodynamic Design of Skyscrapers
  2. 1.1Introduction to Skyscraper Aerodynamics and Wind Comfort
  3. 1.2Fundamentals of Wind Simulation: CFD and Numerical Methods
  4. 1.3Key Parameters for Wind Comfort Assessment
  5. 1.4Aerodynamic Design: Strategies for Mitigating Wind in Skyscrapers
  6. 1.5Case Studies: Analysis of Existing Buildings and Their Wind Problems
  7. 1.6Advanced Wind Simulation Tools and Software
  8. 1.7Influence of the Urban Environment on Wind Behavior
  9. 1.8Design Techniques for Optimizing Pedestrian Comfort
  10. 1.9Wind Comfort Regulations and Standards
  11. 1.10Sensitivity Analysis and Optimization of Aerodynamic Design
  1. 2.2Fundamentals of Wind Comfort and Aerodynamic Design
  2. 2.2Wind Comfort Analysis in Skyscrapers: Methods and Tools
  3. 2.3Aerodynamic Design for Wind Comfort Optimization
  4. 2.4Impact of Design on Wind Comfort: Case Studies
  5. 2.5Wind Mitigation Techniques in Urban Environments
  6. 2.6Wind Modeling and Simulation for Urban Design
  7. 2.7Implementation of Wind Comfort Solutions
  8. 2.8Design Standards and Regulations for Wind Comfort
  9. 2.9Cost-Benefit Analysis of Wind Comfort Strategies
  10. 2.20Future of Aerodynamic Design and Wind Comfort in Tall Buildings
  1. 3.3Introduction to the Simulation of Urban Rotational Systems
  2. 3.2Fundamentals of Computational Aerodynamics for Rotational Systems
  3. 3.3Wind Flow and Turbulence Modeling in Urban Environments
  4. 3.4Wind-Rotor Interaction Simulation
  5. 3.5Performance Analysis of Rotational Systems
  6. 3.6Validation and Verification of Simulation Models
  7. 3.7Case Studies: Simulation of Rotational Systems in Different Urban Environments
  8. 3.8Software and Tools for Rotational System Simulation
  9. 3.9Sensitivity Analysis and Design Optimization
  10. 3.30Applications of Simulation in the Design of Rotational Systems
  11. 3.30
  1. 4.4Introduction to Urban Wind Kinetics and its Impact on Design
  2. 4.2Fundamentals of Wind Comfort: Evaluation and Key Metrics
  3. 4.3CFD Simulation Tools for Wind Analysis
  4. 4.4Initial Aerodynamic Design of Buildings and its Influence on Wind
  5. 4.5Wind Mitigation Strategies: Techniques and Parametric Design
  6. 4.6Wind Comfort Optimization: Case Studies and Best Practices
  7. 4.7Integration of Rotational Systems in Urban Design
  8. 4.8Cost-Benefit Analysis of Wind Energy Solutions
  9. 4.9Urban Legislation and Regulations Related to Wind
  10. 4.40Future Trends in Urban Wind Energy Design
  1. 5.5Introduction to Wind Comfort at Height: Fundamentals and Parameters
  2. 5.5Wind Flow and its Impact on Tall Buildings
  3. 5.3Tools and Methodologies for Wind Comfort Analysis
  4. 5.4Regulations and Standards in Wind Comfort Design
  5. 5.5​​Case Studies: Wind Comfort Analysis in Real-World Projects
  6. 5.5Principles of Aerodynamic Design for Skyscrapers
  7. 5.5Strategies for Wind Mitigation in Tall Buildings
  8. 5.3Shapes and Geometries Optimized for Aerodynamic Performance
  9. 5.4Design Techniques for Reducing Wind Load
  10. 5.5Case Studies: Aerodynamic Design in Iconic Skyscrapers
  11. 3.5Introduction to Computational Fluid Dynamics (CFD)
  12. 3.5Modeling and Simulation of Rotational Systems
  13. 3.3Applications of Simulation in Urban Environments
  14. 3.4Validation and Verification of Simulation Models
  15. 3.5Case Studies: Simulation of Rotational Systems in Urban Scenarios
  16. 4.5Principles of Rotational System Design for Wind Control Wind
  17. 4.5Selection and Design of Rotors and Rotational Devices
  18. 4.3Integration of Rotational Systems in the Urban Environment
  19. 4.4Design Considerations for Efficiency and Performance
  20. 4.5Case Study: Design of Rotational Systems in Urban Environments
  21. 5.5Performance Analysis of Rotational Systems in Skyscrapers
  22. 5.5Evaluation of Efficiency and Environmental Impact
  23. 5.3Design and Optimization for Noise and Vibration Reduction
  24. 5.4Structural and Safety Considerations in Skyscrapers
  25. 5.5Case Study: Performance of Rotational Systems in Skyscrapers
  26. 6.5Introduction to Rotor Modeling
  27. 6.5Analysis of Different Types of Rotors and Their Applications
  28. 6.3Advanced Rotor Modeling and Simulation Techniques
  29. 6.4Optimizing Rotor Design for Performance
  30. 6.5Case Study: Modeling and Performance of Rotors in Different Contexts
  31. 7.5Rotor Evaluation Methodologies
  32. 7.5Analysis of Data and Results from Simulations and Tests
  33. 7.3Evaluation of Rotor Performance in Skyscrapers
  34. 7.4Comparison of Different rotor designs
  35. 7.5Case studies: Rotor evaluation in skyscraper environments
  36. 8.5Fundamentals of wind modeling
  37. 8.5Wind flow modeling in urban environments
  38. 8.3Wind-rotor interaction modeling in skyscrapers
  39. 8.4Results analysis and design optimization
  40. 8.5Case studies: Wind modeling of rotors in skyscrapers
  41. 8.5
  1. 6.6Fundamentals of Rotor Modeling: Basic principles and key concepts.
  2. 6.2Modeling Methodologies: Simulation and analysis techniques.
  3. 6.3Critical Design Parameters: Factors influencing rotor performance.
  4. 6.4Advanced Numerical Modeling: Implementation and analysis using specialized software.
  5. 6.5Validation and Verification: Comparison with experimental data and standards.
  6. 6.6Rotor Aerodynamics: Rotor interaction with airflow.
  7. 6.7Parametric Design: Rotor design optimization.
  8. 6.8Sensitivity Analysis: Identification of key variables.
  9. 6.9Case Studies: Analysis of existing rotor designs.
  10. 6.60Future Trends: Innovations and developments in rotor modeling.
  1. 7. Introduction to Wind Comfort at High Heights
  2. 7.7Fundamentals of Wind-Building Interaction
  3. 7.2Key Parameters of Wind Comfort: Speed ​​and Turbulence
  4. 7.3Comfort Assessment Methodologies: Indices and Criteria
  5. 7.4Influence of Building Shape and Geometry
  6. 7.7Impact of the Urban Environment on Wind
  7. 7.6CFD Simulation Tools for Preliminary Analysis
  8. 7.7International Standards and Regulations on Wind Comfort
  9. 7.8Case Studies: Successful Design Examples
  10. 7.9Mitigation Techniques: Barriers and Control Elements
  11. 7.70Future of Wind Comfort: Trends and Challenges
  12. 2. Aerodynamic Design for Skyscrapers
  13. 2.7Principles of Aerodynamics Applied to Tall Buildings
  14. 2.2Designing the Building Shape to Minimize Wind Load
  15. 2.3Strategies to Reduce Drag and Turbulence
  16. 2.4Designing Façades and Architectural Details for Wind Control
  17. 2.7Vortex Effects and Their Mitigation
  18. 2.6Advanced CFD Modeling for Aerodynamic Analysis
  19. 2.7Wind Tunnels: Testing and Validation
  20. 2.8Wind-Induced Vibration Analysis
  21. 2.9Design of Dampers and Vibration Control Systems
  22. 2.70Integration of Aerodynamic Design into the Architectural Design Process
  23. 3. Simulation of Urban Rotational Systems
  24. 3.7Operating Principles of Rotational Systems
  25. 3.2Types of Rotational Systems and Their Applications
  26. 3.3Numerical Modeling of Rotational Systems
  27. 3.4CFD Simulation for Performance Analysis
  28. 3.7Integration of Rotational Systems into the Urban Environment
  29. 3.6Environmental Impact Assessment of Rotational Systems
  30. 3.7Simulation of Wind-Rotor Interaction
  31. 3.8Specialized Simulation Tools and Software
  32. 3.9Rotor Design Optimization
  33. 3.70Case Studies: Practical Examples
  34. 4. Design of Urban Rotational Systems
  35. 4.7Design Criteria for Rotational Systems
  36. 4.2Rotor Type Selection 4.3 Component Design and Sizing
  37. 4.4System Location and Orientation Design
  38. 4.7Integration of Rotational Systems into Urban Design
  39. 4.6Design of Support and Anchoring Structures
  40. 4.7Structural and Fatigue Analysis of Components
  41. 4.8Design of Control and Monitoring Systems
  42. 4.9Costs and Economic Feasibility
  43. 4.70Standards and Regulations for Rotational Systems
  44. 7. Performance of Rotational Systems in Skyscrapers
  45. 7.7Principles of Rotor Aerodynamics in Complex Environments
  46. 7.2Rotor-Building Interaction and its Effect on Performance
  47. 7.3Evaluation of the Energy Performance of Systems
  48. 7.4Advanced Modeling of Wind-Rotor-Building Interaction
  49. 7.7Sensitivity Analysis of Design Parameters
  50. 7.6Performance Optimization under Different Wind Conditions
  51. 7.7CFD Simulation for Performance Analysis
  52. 7.8Measurement Techniques and Experimental Validation
  53. 7.9Case Studies: Design and Performance Examples
  54. 7.70Economic and Sustainability
  55. 6. Rotor Modeling and Performance
  56. 6.7Fundamentals of Rotor Modeling
  57. 6.2Impulse and Momentum Theories
  58. 6.3Blade Element Theory
  59. 6.4High-Fidelity Modeling Methods
  60. 6.7Boundary Layer and Turbulence Modeling
  61. 6.6Scale and Roughness Effects
  62. 6.7Rotor Performance Simulation
  63. 6.8Experimental Model Validation
  64. 6.9Sensitivity Analysis of Rotor Parameters
  65. 6.70Rotor Design Optimization
  66. 7. Rotor Evaluation in Skyscrapers
  67. 7.7Rotor Performance Evaluation Methods
  68. 7.2Rotor-Building Interaction Analysis
  69. 7.3Advanced CFD Modeling for Evaluation
  70. 7.4Validation Through Wind Tunnel Testing
  71. 7.7Rotor Energy Efficiency Evaluation
  72. 7.6Analysis of the Influence of Environmental Conditions
  73. 7.7Visual and Acoustic Impact Assessment
  74. 7.8Life and Maintenance Study
  75. 7.9Cost Analysis and benefits
  76. 7.70Case studies: evaluation of existing rotors
  77. 8. Wind Modeling of Rotors
  78. 8.7Wind characterization in urban environments
  79. 8.2Wind modeling for rotor simulation
  80. 8.3Turbulence modeling techniques
  81. 8.4Atmospheric boundary layer modeling methods
  82. 8.7Rotor-wind interaction modeling
  83. 8.6Analysis of the influence of building shape
  84. 8.7Rotor design optimization
  85. 8.8CFD simulation for wind modeling
  86. 8.9Model validation with experimental data
  87. 8.70Applications of wind modeling
  1. 8.8Fundamentals of Wind Modeling: Principles and Methods
  2. 8.8Introduction to Aerodynamic Rotor Design: Key Parameters
  3. 8.3Numerical Rotor Simulation: Tools and Techniques
  4. 8.4Wind Flow Modeling in Complex Urban Environments
  5. 8.5Rotor-Wind Interaction Analysis in Skyscrapers
  6. 8.6Rotor Design Optimization for Energy Efficiency
  7. 8.7Rotor Material Design and Selection: Durability and Performance
  8. 8.8Case Studies: Examples of Rotor Modeling and Design in Skyscrapers
  9. 8.8Environmental and Economic Impact Assessment of Rotor Systems
  10. 8.80Future Trends in Wind Modeling and Rotor Design
  1. 9.9Introduction to Wind Comfort and Aerodynamics
  2. 9.9Principles of Wind Flow around Buildings
  3. 9.3Wind Comfort Analysis Methodologies
  4. 9.4Basic Aerodynamic Design for Wind Mitigation
  5. 9.5Simulation and Modeling Tools
  6. 9.6Case Studies: Examples of Successful Design
  7. 9.7Climatic Factors and Their Impact on Wind Comfort
  8. 9.8Design Regulations and Standards
  9. 9.9Pedestrian Comfort Assessment
  10. 9.90Design Strategies for Different Urban Environments
  11. 9.9Advanced Strategies for Optimizing Wind Comfort
  12. 9.9Design of Facades and Architectural Elements
  13. 9.3Integration of Wind Control Systems
  14. 9.4Modeling and Simulation of Complex Wind Flows
  15. 9.5Analysis of the Impact of Building Orientation
  16. 9.6Design Techniques to Reduce Turbulence
  17. 9.7Parametric and Generative Design in Architecture
  18. 9.8Case Studies of High-Rise Buildings
  19. 9.9Comfort Assessment in Different Building Zones
  20. 9.90Sustainability and Energy Efficiency Considerations
  21. 3.9Introduction to Rotational Systems in Urban Environments
  22. 3.9Operating Principles of Rotational Systems
  23. 3.3CFD Modeling and Simulation of Rotational Systems
  24. 3.4Analysis of Key Design Parameters
  25. 3.5Integration of Rotational Systems into Urban Models
  26. 3.6Impact Assessment on Wind Flow
  27. 3.7Simulation of Different Design Configurations
  28. 3.8Case Studies of Urban Applications
  29. 3.9Validation of Models and Simulation Results
  30. 3.90Sensitivity Analysis and Optimization
  31. 4.9Conceptual Design of Rotational Systems
  32. 4.9Selection and Sizing of Components
  33. 4.3Detailed Design of Rotors and Blades
  34. 4.4Integration with Building Architecture
  35. 4.5Control and Regulation of Rotating Systems
  36. 4.6System Design for Different Wind Conditions
  37. 4.7Energy Performance Evaluation
  38. 4.8Design for Sustainability
  39. 4.9Design and Implementation Case Studies
  40. 4.90Regulations and Regulatory Considerations
  41. 5.9Wind Behavior Analysis in Skyscrapers
  42. 5.9Wind-Building Interaction and Aerodynamic Effects
  43. 5.3Analysis of the Efficiency of Rotating Systems
  44. 5.4CFD Modeling of Rotating Systems in Skyscrapers
  45. 5.5Evaluation of Wind Comfort at Height
  46. 5.6Design Optimization for Different Configurations
  47. 5.7Analysis of the Influence of Environmental Factors
  48. 5.8Case Studies of Applications in Skyscrapers
  49. 5.9Performance Metrics and Results Evaluation
  50. 5.90Integration of Rotating Systems in Design
  51. 6.9Principles Rotor Modeling
  52. 6.9Numerical Modeling Methodologies
  53. 6.3Key Parameters in Rotor Design
  54. 6.4Rotor Aerodynamics Analysis
  55. 6.5Rotor Performance Evaluation
  56. 6.6Rotor-Wind Interaction Modeling
  57. 6.7Design Optimization for Different Conditions
  58. 6.8Simulation of Complex Wind Flows
  59. 6.9Rotor Modeling Case Studies
  60. 6.90Modeling Tools and Software
  61. 7.9Rotor Performance Evaluation in Urban Environments
  62. 7.9Influence of Topography and Architecture
  63. 7.3Performance Evaluation Metrics
  64. 7.4Energy Efficiency Analysis
  65. 7.5Rotor CFD Simulation and Analysis
  66. 7.6Impact on Pedestrian Wind Comfort
  67. 7.7Urban Application Case Studies
  68. 7.8Model Validation and Verification
  69. 7.9Test Design and Experimentation
  70. 7.90Analysis of Design Sensitivity and Optimization
  71. 8.9Wind Modeling in the Context of Skyscrapers
  72. 8.9Aerodynamic Effects on Skyscrapers
  73. 8.3CFD Simulation in Skyscraper Environments
  74. 8.4Rotor Design for Skyscrapers
  75. 8.5Integration of Rotors into Architectural Design
  76. 8.6Performance Optimization in Skyscrapers
  77. 8.7Analysis of Rotor-Building-Wind Interaction
  78. 8.8Modeling and Design Case Studies
  79. 8.9Energy Efficiency Evaluation
  80. 8.90Regulatory and Normative Considerations
  81. 9.9Advanced Analysis Methods in Aerodynamic Design
  82. 9.9Aerodynamic Design Optimization
  83. 9.3Use of Advanced Simulation Software
  84. 9.4Parametric and Generative Design
  85. 9.5Three-Dimensional Wind Flow Analysis
  86. 9.6Design for Different Climatic Conditions
  87. 9.7Integration with Systems Renewable Energy
  88. 9.8Environmental Impact Assessment
  89. 9.9Advanced Aerodynamic Design Case Studies
  90. 9.90Presentation of Future Projects and Applications
  1. 1. Introduction to the Design and Modeling of Rotors for Skyscrapers
  2. 2. Aerodynamic Principles Applied to High-Rise Rotors
  3. 3. CFD Modeling for Flow Simulation in Rotors
  4. 4. Parametric Rotor Design: Optimization and Analysis
  5. 5. Wind Comfort Analysis and its Impact on Rotor Design
  6. 6. Evaluation of the Energy Performance of Rotating Systems
  7. 7. Integration of Rotors into the Architectural Design of Skyscrapers
  8. 8. Simulation and Analysis of Rotor Performance in Urban Environments
  9. 9. Materials and Technologies for Rotor Manufacturing
  10. 10. Final Project: Case Study and Design 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

Building Aerodynamics Consultant (Design and Optimization)Building Aerodynamics ConsultantAerodynamics and Wind Comfort Consultant (Building Design and Analysis)**Skyscraper Aerodynamics Engineer** (Design and Analysis)**Skyscraper Aerodynamics and Wind Comfort Consultant** (Design and Analysis)**Skyscraper Aerodynamics and Wind Comfort Engineer** (Design and Optimization)**Skyscraper Aerodynamics and Wind Comfort Engineer** (Design and Optimization)
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.

Ready to start?

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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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