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Electric motors course in Formula E

Electric Motors in Formula E Course

Explore cutting-edge electric propulsion technology applied to motorsport. This course focuses on the design, operation, and optimization of electric motors and energy management systems, including the analysis of batteries, inverters, and cooling systems. It connects with electromechanics, motor control, and aerodynamics. The course provides tools for simulation and fault diagnosis, preparing professionals for innovation in the electric mobility sector.

The program includes hands-on experience in telemetry data analysis, energy management strategy development, and understanding Formula E-specific regulations. This prepares participants for key roles such as electric motor engineers, performance analysts, and electric propulsion systems technicians, enhancing their competitiveness in the automotive industry.

Duration3 months
ModeHybrid
LanguageEnglish / Spanish
Start datesOctober / March
LocationEurope (Madrid)
AwardSEIUM Institute diploma
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Learning outcomes

What you will be able to do

01

**Mastery of Electric Motors: Design, Performance and Simulation in Formula E**

02

**Electric Motor Optimization: Rotor Analysis for High Performance in Formula E**

03

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

04

**Advanced Rotor Development: Modeling and Performance Evaluation in Formula E Engines**

05

**Rotor Modeling: Key to the Performance and Design of Electric Motors in Formula E**

06

**Rotor Performance in Formula E: Modeling and Advanced Optimization**

07

**Advanced Rotor Modeling: Maximizing Performance in Formula E Electric Motors**

08

**Rotor Modeling and Performance: Key to Success in Formula E Engines**

Profile

Who it's for

  • Engineers with degrees in Electrical Engineering, Electronics, Mechatronics, or related disciplines.
  • Professionals in the automotive industry, particularly those focused on electric vehicles (EVs) and propulsion systems.
  • Technicians and engineers involved in the design, development, and maintenance of electric motors.
  • Specialists in electric motors who wish to delve deeper into the technology used in Formula E.
Recommended requirements: Basic knowledge of electrical machines and motor control; ES/EN B2.
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 — Electric Motor Mastery: Design, Performance, and Simulation in Formula E
  2. 1.1Introduction to Electric Propulsion in Formula E: Fundamentals and Applications
  3. 1.2Design Principles for High-Performance Electric Motors
  4. 1.3Material Selection and Optimization for Electric Motors
  5. 1.4Stator Design: Key Aspects and Considerations
  6. 1.5Rotor Design: Geometries and Optimization Strategies
  7. 1.6Electric Motor Simulation: Tools and Methodologies
  8. 1.7Performance Analysis: Torque, Speed, and Efficiency
  9. 1.8Cooling and Thermal Management Systems
  10. 1.9Integrating the Electric Motor into the Formula E Powertrain
  11. 1.10Case Studies: Motor Design and Simulation in Formula E
  1. 2.2Fundamentals of Electric Motor Optimization in Formula E
  2. 2.2Rotor Design for Maximum Performance
  3. 2.3Analysis of Rotor Materials and Geometries
  4. 2.4Rotor Simulation and Modeling for Optimization
  5. 2.5Cooling Strategies and Thermal Management
  6. 2.6Evaluating the Impact of the Rotor on Motor Performance
  7. 2.7Advanced Optimization Techniques: Genetic Algorithms and Parametric Design
  8. 2.8Rotor Tolerance and Reliability Analysis
  9. 2.9Bench Testing and Performance Validation
  10. 2.20Case Study: Rotor Optimization in Formula E
  1. 3.3Introduction to Rotor Modeling in Electric Motors
  2. 3.2Rotor Design Principles for Formula E
  3. 3.3Rotor Materials and Manufacturing
  4. 3.4Rotor Simulation and Performance Analysis
  5. 3.5Rotor Design Optimization
  6. 3.6Impact of Rotor Design on Motor Performance
  7. 3.7Evaluation of Different Rotor Configurations
  8. 3.8Rotor Failure Analysis and Reliability
  9. 3.9Practical Applications and Case Studies
  10. 3.30Future Trends in Rotor Design
  1. 4.4Introduction to Formula E and Electric Motors
  2. 4.2Operating Principles of Electric Motors Used in Formula E
  3. 4.3Design and Architecture of Electric Motors
  4. 4.4Performance Analysis and Simulation of Motors in Formula E Environments
  5. 4.5Key Components and Associated Systems of Electric Motors
  6. 4.6Case Studies and Practical Examples
  7. 2.4Introduction to Rotor Design for High-Performance Electric Motors
  8. 2.2Materials and Technologies Used in Rotor Manufacturing
  9. 2.3Analysis of Rotor Geometry and Configuration
  10. 2.4Optimization Techniques for Performance Improvement
  11. 2.5Rotor Simulation and Modeling
  12. 2.6Case Studies and Practical Examples in the Context of Formula E
  13. 3.4Rotor Modeling: Methods and Tools
  14. 3.2Analysis of the Electromagnetic Properties of Rotors 3.3 Rotor performance evaluation in simulation.
  15. 3.4Influence of rotor design on motor efficiency and power.
  16. 3.5Analysis of design variables.
  17. 3.6Integration of modeling into the design process.
  18. 4.4Rotor modeling and simulation.
  19. 4.2Design and evaluation of different rotor configurations.
  20. 4.3Analysis of the effects of materials and construction on performance.
  21. 4.4Design optimization to maximize efficiency and power.
  22. 4.5Performance evaluation under Formula E conditions.
  23. 4.6Prototype development and testing.
  24. 5.4Introduction to rotor modeling in electric motors.
  25. 5.2Modeling tools and software.
  26. 5.3Design and optimization of rotors for Formula E performance.
  27. 5.4Analysis of key parameters.
  28. 5.5Modeling rotor behavior. 5.6 Impact of Modeling on Design and Manufacturing
  29. 6.4Modeling and Optimization of Rotors for Electric Motors
  30. 6.2Simulation and Analysis of Performance Under Racing Conditions
  31. 6.3Advanced Design Optimization Techniques
  32. 6.4Analysis of the Influence of Materials and Geometry
  33. 6.5Performance Metrics and Design Evaluation
  34. 6.6Practical Examples and Case Studies in Formula E
  35. 7.4Advanced Rotor Modeling Techniques
  36. 7.2Simulation of the Effects of Different Design Variables
  37. 7.3Design Optimization to Maximize Performance and Efficiency
  38. 7.4Analysis of the Influence of Racing Conditions
  39. 7.5Predictive Performance Modeling
  40. 7.6Development of Design and Optimization Strategies
  41. 8.4Modeling the Performance of Rotors in Formula E Motors
  42. 8.2Analysis of the Key Variables Affecting Performance 8.3 Rotor design and optimization for success in Formula E.
  43. 8.4Simulation and performance evaluation.
  44. 8.5Importance of modeling in motor design.
  45. 8.6Case studies and practical examples.
  1. 5.5Introduction to Electric Motors and Their Application in Formula E
  2. 5.5Designing Electric Motors for High Performance
  3. 5.3Fundamentals of Electric Motor Simulation
  4. 5.4Simulation Tools and Software for Formula E
  5. 5.5Analysis of Key Parameters in Motor Design
  6. 5.6Case Study: Electric Motors in Formula E
  7. 5.5Introduction to Rotors and Their Importance in Electric Motors
  8. 5.5Types of Rotors and Their Characteristics
  9. 5.3Analysis of Materials and Their Influence on Performance
  10. 5.4Designing Rotors to Optimize Performance in Formula E
  11. 5.5Rotor Optimization Techniques
  12. 5.6Case Study: High-Performance Rotors in Formula E
  13. 3.5Rotor Modeling: Concepts and Methodologies
  14. 3.5Rotor Performance Analysis Using Advanced Models
  15. 3.3Impact of Rotor Design on Motor Performance
  16. 3.4Modeling and Simulation Tools for Rotors
  17. 3.5Evaluation and Optimization of Rotor Performance
  18. 3.6Case Study: Rotor Modeling and Performance in Formula E E
  19. 4.5Rotor Development: Design and Manufacturing
  20. 4.5Rotor Performance Evaluation through Simulations and Testing
  21. 4.3Advanced Materials and Their Application in Rotors
  22. 4.4Rotor Performance Evaluation and Optimization Techniques
  23. 4.5Prototype Development and Testing in Formula E Motors
  24. 4.6Case Study: Rotor Development in Formula E Motors
  25. 5.5Rotor Modeling: Basic Concepts and Applications in Electric Motors
  26. 5.5Rotor Design and Its Impact on Performance
  27. 5.3Rotor Modeling Tools and Methodologies
  28. 5.4Results Analysis and Rotor Design Optimization
  29. 5.5​​Rotor Modeling in Different Types of Electric Motors
  30. 5.6Case Study: Rotor Modeling in Formula E Motors
  31. 6.5Rotor Design Optimization for Maximum Performance
  32. 6.5Rotor Performance Analysis under Racing Conditions
  33. 6.3Optimization Strategies and Their Application in Formula E
  34. 6.4Simulation and Results Analysis
  35. 6.5Motor Performance Optimization and Strategies Race
  36. 6.6Case Study: Rotor Optimization in Formula E
  37. 7.5Advanced Rotor Modeling: Methodologies and Techniques
  38. 7.5Rotor Performance Simulation and Analysis
  39. 7.3Rotor Design Optimization for Specific Race Conditions
  40. 7.4Modeling and Simulation of Thermal and Mechanical Phenomena in Rotors
  41. 7.5Optimization Strategies and Sensitivity Analysis
  42. 7.6Case Study: Advanced Rotor Modeling in Formula E
  43. 8.5Rotor Design and Optimization for Maximum Performance
  44. 8.5Rotor Performance Analysis under Different Race Conditions
  45. 8.3Tools and Methodologies for Rotor Performance Modeling and Analysis
  46. 8.4Engine Design Optimization and Race Strategies
  47. 8.5Results Analysis and Strategies for Success in Formula E
  48. 8.6Case Study: Rotor Performance in Formula E
  1. 6.6Rotor Modeling: Introduction and Advanced Concepts
  2. 6.2Material and Geometry Analysis for Optimization
  3. 6.3FEM Simulation for Rotor Performance Evaluation
  4. 6.4Parametric and Topological Optimization Techniques
  5. 6.5Rotor Design for Maximizing Energy Efficiency
  6. 6.6Strategies for Reducing Rotor Losses
  7. 6.7Rotor Thermal Management Considerations
  8. 6.8Rotor Durability and Lifespan Analysis
  9. 6.9Rotor Integration into Electric Motor Design
  10. 6.60Case Studies: Advanced Applications in Formula E
  1. 7.7Fundamentals of Electric Motors: Principles and Applications
  2. 7.2Design of Electric Motors for Formula E: Specifications and Constraints
  3. 7.3Simulation of Electric Motors: Software and Methodologies
  4. 7.4Performance Analysis: Torque and Efficiency Curves
  5. 7.7Selection of Materials and Components
  6. 7.6Design of Cooling Systems
  7. 7.7Control and Optimization Strategies
  8. 7.8Integration into the Formula E Vehicle
  9. 7.9Case Studies: Practical Examples
  10. 7.70Future Trends in Electric Motors
  11. 2.7Fundamentals of Rotor Design: Geometry and Materials
  12. 2.2Magnetic Flux Analysis in Rotors
  13. 2.3Simulation of Electromagnetic Fields
  14. 2.4Design of High-Performance Rotors: Strategies and Techniques
  15. 2.7Analysis of Losses in Rotors
  16. 2.6Optimization of Rotors for Formula E Motors
  17. 2.7Evaluation of Rotor Performance: Torque Motor, Efficiency, and Speed
  18. 2.8Vibration and Noise Analysis
  19. 2.9Case Studies: Rotor Design and Optimization
  20. 2.70Rotor Innovation
  21. 3.7Rotor Modeling: Techniques and Tools
  22. 3.2Finite Element Analysis (FEA) of Rotors
  23. 3.3Performance Analysis: Metrics and KPIs
  24. 3.4Material Modeling: Properties and Behavior
  25. 3.7Rotor Design: Geometry and Material Selection
  26. 3.6Magnetic Field Simulation
  27. 3.7Rotor Performance Evaluation: Torque and Efficiency
  28. 3.8Stress and Strain Analysis
  29. 3.9Case Studies: Modeling and Simulation
  30. 3.70Rotor Design Optimization
  31. 4.7Advanced Rotor Modeling: Methods and Techniques
  32. 4.2Detailed Rotor Design
  33. 4.3Dynamic Behavior Analysis
  34. 4.4Performance Evaluation: Torque, Efficiency, and Reliability
  35. 4.7Design for Optimization
  36. 4.6Heat Flow Analysis
  37. 4.7Testing and Validation
  38. 4.8Prototype Development
  39. 4.9Design Evaluation
  40. 4.70Manufacturing Considerations
  41. 7.7Mathematical Modeling of Rotors: Equations and Models
  42. 7.2Electric Motor Simulation
  43. 7.3Rotor Design: Material Selection
  44. 7.4Rotor Design Optimization
  45. 7.7Rotor Loss Analysis
  46. 7.6Motor Performance Evaluation
  47. 7.7Vibration and Noise Analysis
  48. 7.8Cooling System Design
  49. 7.9Integration in Motor Design
  50. 7.70Case Studies
  51. 6.7Rotor Modeling: Techniques and Tools
  52. 6.2Rotor Loss Analysis
  53. 6.3Rotor Design Optimization
  54. 6.4Rotor Performance Analysis
  55. 6.7Control and Optimization Strategies
  56. 6.6Analysis of Vibrations
  57. 6.7Cooling System Design
  58. 6.8Testing and Validation
  59. 6.9Case Studies: Design and Optimization
  60. 6.70Trends in Rotor Design
  61. 7.7Advanced Rotor Modeling: Methods and Tools
  62. 7.2Advanced Rotor Design
  63. 7.3Finite Element Analysis (FEA)
  64. 7.4Rotor Design Optimization
  65. 7.7Electromagnetic Field Simulation
  66. 7.6Motor Performance Evaluation
  67. 7.7Vibration Analysis
  68. 7.8Integration into Motor Design
  69. 7.9Design Process
  70. 7.70Design for Manufacturing
  71. 8.7Rotor Modeling: Fundamentals and Techniques
  72. 8.2Rotor Performance Analysis
  73. 8.3Rotor Design and Optimization
  74. 8.4Electric Motor Simulation
  75. 8.7Rotor Loss Analysis
  76. 8.6Performance Evaluation
  77. 8.7Integration into Motor Design
  78. 8.8Testing and Validation
  79. 8.9Case Studies
  80. 8.70Design for Production
  1. 8.8Fundamentals of Electric Motors: Principles and Applications in Formula E
  2. 8.8Design and Analysis of Electric Motors: Structure and Operation
  3. 8.3Simulation of Electric Motors: Tools and Techniques in Formula E
  4. 8.4Optimization of Electric Motors: Strategies for High Performance
  5. 8.5Rotor Modeling: Key Concepts and Their Impact on Performance
  6. 8.6Rotor Design and Analysis: Methodologies and Tools
  7. 8.7Evaluation of Rotor Performance: Metrics and Tests
  8. 8.8Optimization of Rotor Design: Maximizing Efficiency
  9. 8.8Rotor Integration into the Motor: Assembly and Control
  10. 8.80Case Studies: Real-World Applications in Formula E
  1. 9.9Fundamentals of Electric Motors: Principles and Types
  2. 9.9Electric Motor Design: Key Concepts
  3. 9.3Electric Motor Performance: Efficiency and Power
  4. 9.4Simulation in Formula E: Tools and Methodologies
  5. 9.5Application in Formula E: Practical Cases
  6. 9.9Introduction to Rotor Optimization
  7. 9.9Analysis of Materials and Geometries
  8. 9.3Design for High Performance: Strategies
  9. 9.4Advanced Rotor Simulations
  10. 9.5Practical Applications in Formula E
  11. 3.9Rotor Modeling: Methods and Techniques
  12. 3.9Electromagnetic Field Analysis
  13. 3.3Thermal and Mechanical Analysis of Rotors
  14. 3.4Motor Performance Modeling
  15. 3.5Case Studies in Formula E Engineering
  16. 4.9Detailed Rotor Design: Geometry and Materials
  17. 4.9Modeling Rotor Losses
  18. 4.3Simulation of Performance Under Different Conditions
  19. 4.4Performance Evaluation: Metrics and Analysis
  20. 4.5Specific Applications in Formula E Engines
  21. 5.9Introduction to Rotor Modeling
  22. 5.9Electromagnetic Design of Rotors
  23. 5.3Mechanical Design of Rotors
  24. 5.4Motor Performance Simulation
  25. 5.5​​Integration into the Overall Motor Design
  26. 6.9Rotor Performance Modeling
  27. 6.9Rotor Optimization for High Performance
  28. 6.3Analysis of Rotor Losses
  29. 6.4Advanced Optimization Strategies
  30. 6.5Case Studies in Formula E
  31. 7.9Advanced Rotor Modeling Methods
  32. 7.9Simulation of Design Effects
  33. 7.3Multi-Objective Optimization
  34. 7.4Rotor Sensitivity Analysis
  35. 7.5Practical Applications in Formula E
  36. 8.9Fundamentals of Rotor Modeling
  37. 8.9Rotor Performance Evaluation
  38. 8.3Rotor Optimization for High Performance Performance
  39. 8.4Data Analysis and Decision Making
  40. 8.5Case Studies in Formula E
  1. 1. Electric Motor Mastery: Design, Performance, and Simulation in Formula E
  2. 1.1Introduction to Electric Propulsion and its Application in Formula E
  3. 1.2Design Principles and Selection of Electric Motors
  4. 1.3Modeling and Simulation of Electric Motors for Formula E
  5. 1.4Performance and Energy Efficiency Analysis
  6. 1.5Simulation Tools and Software
  7. 1.6Case Studies: Motor Design in Formula E Teams
  8. 1.7Evaluation of Prototypes and Track Testing
  9. 1.8Design Optimization to Maximize Performance
  10. 1.9Integration of the Motor with Other Vehicle Systems
  11. 1.10Future Trends in Electric Motor Technology for Formula E
  12. 2. Electric Motor Optimization: Rotor Analysis for High Performance in Formula E
  13. 2.1Fundamentals of Rotor Design and Analysis
  14. 2.2Materials and Technologies for High-Performance Rotors
  15. 2.3Rotor Modeling and Simulation: Methods and Tools
  16. 2.4Geometric and Structural Optimization of Rotors
  17. 2.5Loss and Efficiency Analysis Rotors
  18. 2.6Impact of Rotors on Overall Engine Performance
  19. 2.7Advanced Rotor Manufacturing Techniques
  20. 2.8Rotor Design for Different Racing Conditions
  21. 2.9Integrating Rotors with the Engine Control System
  22. 2.10Case Studies: Rotor Optimization in Formula E Teams
  23. 3. In-Depth Rotor Analysis: Modeling and Performance in Formula E Engineering
  24. 3.1Rotor Modeling Theory: Equations and Principles
  25. 3.2Finite Element Analysis (FEA) for Rotor Analysis
  26. 3.3Magnetic Flux Analysis in Rotors
  27. 3.4Stress and Fatigue Analysis in Rotors
  28. 3.5Designing Rotors to Minimize Noise and Vibration
  29. 3.6Thermal Modeling of Rotors
  30. 3.7Evaluating Rotor Performance Under Different Loads
  31. 3.8Optimizing Rotor Design Using Algorithms
  32. 3.9Validating Models Through Bench and Track Testing
  33. 3.10Trends in Modeling and Analysis Rotors
  34. 4. Advanced Rotor Development: Modeling and Performance Evaluation in Formula E Motors
  35. 4.1Advanced Rotor Design Concepts
  36. 4.2Composite Materials and Their Application in Rotors
  37. 4.3Rotor Design for High Speeds and Temperatures
  38. 4.4Multiphysics Rotor Modeling
  39. 4.5Rotor Performance Simulation Under Extreme Conditions
  40. 4.6Rotor Optimization for Energy Efficiency and Power
  41. 4.7Rotor Performance Evaluation Using Race Data
  42. 4.8Prototyping and Testing High-Performance Rotors
  43. 4.9Rotor Integration with the Motor Cooling System
  44. 4.10Innovations in Rotor Design and Development for Formula E
  45. 5. Rotor Modeling: Key to the Performance and Design of Electric Motors in Formula E
  46. 5.1Importance of Rotor Modeling in Motor Design
  47. 5.2Electromagnetic Rotor Modeling
  48. 5.3Mechanical and Thermal Rotor Modeling
  49. 5.4Loss Modeling Rotors
  50. 5.5Rotor Modeling and Simulation Tools
  51. 5.6Model Validation Through Testing
  52. 5.7Model-Based Rotor Design Optimization
  53. 5.8Application of Modeling in Material Selection
  54. 5.9Rotor Modeling for Motor Control
  55. 5.10Impact of Rotor Modeling on Overall Vehicle Performance
  56. 6. Rotor Performance in Formula E: Modeling and Advanced Optimization
  57. 6.1Factors Affecting Rotor Performance
  58. 6.2Modeling Rotor Performance Under Different Operating Conditions
  59. 6.3Optimizing Rotor Design to Maximize Performance
  60. 6.4Advanced Optimization Techniques
  61. 6.5Analyzing the Influence of Materials on Performance
  62. 6.6Modeling Rotor Performance at High Speed
  63. 6.7Integrating the Rotor with the Cooling System
  64. 6.8Model Validation Through Bench and Track Testing
  65. 6.9Impact of Rotor Performance on Race Strategy
  66. 6.10Future Trends in Rotor Performance Optimization
  67. 7. Modeling Advanced Rotor Modeling: Maximizing Performance in Formula E Electric Motors
  68. 7.1Advanced Rotor Modeling Principles
  69. 7.2Three-Dimensional Rotor Modeling
  70. 7.3Multiphysics Modeling and Its Application to Rotors
  71. 7.4Rotor-Stator Interaction Modeling
  72. 7.5Modeling the Effects of Temperature on the Rotor
  73. 7.6Modeling Rotor Losses
  74. 7.7Advanced Modeling Tools and Software
  75. 7.8Rotor Optimization Using Advanced Models
  76. 7.9Applications of Advanced Modeling in Motor Design
  77. 7.10Case Studies of Advanced Rotor Modeling in Formula E
  78. 8. Rotor Modeling and Performance: Key to Success in Formula E Motors
  79. 8.1The Importance of Rotor Modeling and Performance
  80. 8.2Electromagnetic Modeling and Its Impact
  81. 8.3Mechanical and Thermal Rotor Modeling
  82. 8.4Rotor Loss Analysis
  83. 8.5Optimizing Rotor Design to Improve Performance
  84. 8.6The Impact of Material in rotor performance
  85. 8.7Model validation through bench and track testing
  86. 8.8Application of modeling and analysis in motor control
  87. 8.9How rotor modeling and performance affect race strategy
  88. 8.10Future trends in rotor modeling and performance in Formula E
  89. Final Project — Formula E Rotor Design and Performance
  90. 9.1Selection of motor specifications and requirements
  91. 9.2Preliminary rotor design: Dimensions and materials
  92. 9.3Electromagnetic rotor modeling: Flux and loss analysis
  93. 9.4Mechanical rotor modeling: Stress and vibration analysis
  94. 9.5Thermal rotor modeling: Temperature and cooling analysis
  95. 9.6Rotor design optimization: Methodologies and tools
  96. 9.7Motor performance simulation: Torque and power curves
  97. 9.8Virtual prototyping and simulation testing
  98. 9.9Final report: Rotor design, performance, optimization, and analysis
  99. 9.10Project presentation and design defense
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

Electric Motor Engineer (Formula E, Powertrain)**Electric Motor Specialist** (Formula E, Powertrain)**Engine Design Engineer** (Formula E, Powertrain)**Engine Engineer** (Formula E, Powertrain)**Electric Motor Specialist** (Formula E, Motorsport)**Electric Motor Specialist** (Formula E, Motorsport)
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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