Diploma in Advanced Magnetism and Rapid Switching
About us Diploma in Advanced Magnetism and Rapid Switching
The Diploma in Advanced Magnetism and Fast Switching explores the latest techniques in the design and application of magnetic systems, focusing on ultrafast switching to optimize efficiency and performance in electronic devices and power systems. This program integrates principles of electromagnetism, power electronics, and systems control, with an emphasis on the use of advanced magnetic materials and innovative architectures. Applications in power converters, electric motors, and communication systems are studied. The diploma program offers hands-on experience in laboratories equipped with state-of-the-art simulation and measurement tools, focusing on the experimental validation and characterization of devices. Knowledge of relevant safety regulations and standards is provided. The training prepares professionals as electronic design engineers, power systems specialists, magnetism researchers, and switching application developers, enhancing innovation capacity in sectors such as consumer electronics and renewable energy.
Diploma in Advanced Magnetism and Rapid Switching
- Format: Hybrid
- Duration: 6–8 months
- Hours: 800 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Strat date: 03-12-2026
- Available places: 2
899 $
Competencies and results
What you will learn
1. Mastering High-Speed Switching and Advanced Magnetism: System Design and Optimization
- In-depth analysis of fast switching phenomena, including a detailed study of the generated magnetic fields and their influence on systems.
- Master circuit and system design techniques that incorporate fast switching, optimizing efficiency and minimizing losses.
- Apply advanced magnetism principles to the creation of components and subsystems, including the analysis of inductors, transformers, and motors.
- Learn simulation and modeling methods to predict and mitigate the effects of fast switching and magnetism on systems.
- Study the interaction between switching, magnetism, and other relevant physical phenomena, such as temperature and vibrations.
2. In-depth Analysis of Advanced Magnetism and Rapid Switching: Rotor Modeling and Performance
2. **In-Depth Analysis of Advanced Magnetism and Fast Switching: Rotor Modeling and Performance**
Master the modeling and simulation of complex magnetic fields.
Study the principles of fast switching in magnetic devices.
Analyze the behavior of rotors under high-frequency conditions.
Explore the design of advanced magnetic materials for specific applications.
Understand optimization techniques to improve efficiency and performance.
Investigate the influence of temperature and other environmental factors on magnetism.
Apply numerical simulation tools for the analysis of magnetic systems.
Evaluate the impact of magnetism on the energy efficiency of systems.
Identify and mitigate the effects of losses in high-frequency magnetism.
Analyze control strategies for the Fast switching and rotor stability.
3. Comprehensive user-oriented design and validation (from modeling to manufacturing)
You will learn to integrate the entire product development process, from initial model conception to final validation, applying user-centered methodologies. You will develop skills in parametric design, ergonomics, simulation, sustainable materials, 3D visualization, and manufacturing management, ensuring efficient, safe solutions that meet current industry standards.
4. Rotor Modeling and Analysis: Application of Advanced Magnetism and High-Speed Switching
4. Rotor Modeling and Analysis: Application of Advanced Magnetism and High-Speed Switching
- Master rotor modeling, including the analysis of advanced magnetism systems and their influence on performance.
- Evaluate the structural dynamics of rotors, addressing critical phenomena such as resonance and stability.
- Apply numerical simulation techniques to predict rotor behavior under various operating conditions.
- Understand and apply high-speed switching principles in rotor design and control.
- Analyze the impact of advanced magnetism and high-speed switching on energy efficiency and vibration reduction in rotors.
- Use specialized software for rotor modeling and analysis, interpreting the results and making design decisions.
- Integrate knowledge of magnetism and switching into the design of control systems for rotors.
- Evaluate the lifespan and reliability of rotors, considering the effects of magnetism and switching.
- Apply optimization methodologies to improve rotor performance and efficiency.
- Investigate current and future trends in rotor design and technology, including the use of advanced materials and new control techniques.
5. Evaluation and Optimization of Rotor Performance using Advanced Magnetism and High-Speed Switching [The text abruptly shifts to a different topic:] [The text abruptly shifts again ...
- Modeling and simulation of complex aerodynamic phenomena in rotors, including advanced magnetism effects.
- Application of fast switching techniques to optimize rotor control and response.
- Evaluation of the influence of magnetism on rotor stability and performance, considering different configurations and operating conditions.
- Design and analysis of advanced rotor control systems, incorporating optimization algorithms and fast switching strategies.
- Investigation of the interaction between magnetism, aerodynamics, and structural mechanics in rotors.
- Analysis of rotor failure and lifespan, considering the effects of magnetism and fast switching.
- Optimization of rotor design to improve energy efficiency and reduce environmental impact.
- Implementation of monitoring and diagnostic techniques for the early detection of rotor failures.
- Development of predictive models to simulate rotor behavior under different operating conditions.
- Application of specialized software for rotor performance analysis and optimization.
6. Modeling and Performance Analysis of Rotors with Advanced Magnetism and High-Speed Commutation
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Mastery of techniques for modeling and analyzing the dynamic behavior of rotors, including flap-lag-torsion couplings.
- Accurate evaluation of structural fatigue in rotors, crucial for predicting service life and preventing failures.
- Application of finite element (FE) analysis methods for the dimensioning of laminates in composite materials.
- Design and analysis of joints and bonded joints in rotors, optimizing load transfer and structural integrity.
- Implementation of damage tolerance strategies to ensure safety in the presence of damage.
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Use of non-destructive testing (NDT) techniques such as ultrasonic testing (UT), radiography (RT), and thermography for rotor inspection.
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Analysis of high-speed commutation in rotors and its impact on performance and efficiency.
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Integration of knowledge of advanced magnetism and high-speed commutation into rotor design.
In-depth understanding of whirl flutter phenomena and their impact on rotor stability and safety.
Development of skills in modeling and simulating rotor systems with advanced magnetism, including the analysis of magnetic forces.
Who this program is for:
Diploma in Advanced Magnetism and Rapid Switching
- Graduates in Aerospace Engineering, Mechanical Engineering, Industrial Engineering, Automation Engineering, or related fields.
- Professionals from OEM rotorcraft/eVTOL, MRO, consulting, technology centers.
- Flight Testing, certification, avionics, control, and dynamics seeking specialization.
- Regulators/authorities and UAM/eVTOL professionals requiring compliance skills.
Recommended requirements: foundation in aerodynamics, control, and structures; ES/EN B2+/C1. We offer bridging tracks if needed.
- 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.
1.1 Fundamentals of Advanced Magnetism in Rotor Systems
1.2 Principles of Fast Commutation in Motor Design
1.3 Stator and Rotor Design: Material Selection
1.4 Magnetic Field Modeling and Simulation
1.5 Optimization of Rotor Systems: Efficiency and Performance
1.6 Loss Analysis: Hysteresis, Eddy Currents, and Friction
1.7 Thermal Design and Temperature Management
1.8 Integration of Commutation and Control Circuits
1.9 Selection and Sizing of Electronic Components
1.10 Case Studies: Real-World Applications and Future Trends
2.2 Introduction to Rotor Modeling: Key Concepts
2.2 Fundamentals of Advanced Magnetism Applied to Rotors
2.3 Principles of Fast Switching and Their Influence
2.4 Rotor Modeling: Design and Simulation
2.5 Rotor Performance Analysis: Critical Parameters
2.6 Rotor Optimization: Magnetism and Switching
2.7 Modeling and Simulation Tools
2.8 Case Studies: Practical Application
2.9 Challenges and Solutions in Modeling
2.20 Future Trends in Rotor Modeling
3.3 Mastering High-Speed Switching and Advanced Magnetism: System Design
3.2 In-Depth Analysis of Advanced Magnetism and High-Speed Switching: Rotor Modeling
3.3 Rotor System Optimization: Advanced Magnetism and High-Speed Switching
3.4 Rotor Modeling and Analysis: Advanced Magnetism and High-Speed Switching
3.5 Rotor Performance Evaluation and Optimization
3.6 Rotor Performance Modeling and Analysis: Magnetism and Switching
3.7 Rotor Modeling: Advanced Magnetism and Switching for Improvement
3.8 Rotor Modeling: Performance Analysis with Magnetism and Switching
3.4
4.4 Introduction to Rotor Modeling: Fundamentals of Magnetism and Commutation
4.2 Material Selection: Impact on Magnetic Performance and Commutation
4.3 Mathematical Modeling of Rotor Systems: Key Equations
4.4 Advanced Magnetism Simulation: Tools and Techniques
4.5 High-Speed Commutation Analysis: Circuit Design
4.6 Optimized Rotor Design: Strategies and Considerations
4.7 Rotor Performance Evaluation: Efficiency and Power
4.8 Failure Analysis and Reliability: Design for Durability
4.9 System Integration: Electrical and Mechanical Considerations
4.40 Case Study: Practical Application of Modeling and Analysis
5.5 Fundamental Principles of Magnetism and Commutation
5.5 Introduction to Rotor Systems: Components and Operation
5.3 Faraday’s and Ampère’s Laws Applied to Motors and Generators
5.4 Magnetic Circuit Design: Permeability and Reluctance
5.5 Introduction to Commutation: Types and Techniques
5.6 Rotor System Regulation: Speed and Torque Control
5.7 Selection of Magnetic Materials and Conductors
5.8 Fault Analysis in Rotor Systems
5.9 Introduction to Testing and Measurement in Rotor Systems
5.50 Case Study: Applications of Rotor Systems
5.5 Fundamentals of Rotor Modeling
5.5 Modeling the Magnetic Field in Rotors
5.3 Commutation Modeling: Transient Analysis
5.4 Rotor System Simulation: Tools and Techniques
5.5 Loss Modeling in Electrical Machines
5.6 Rotor Dynamics Modeling
5.7 Thermal Modeling of Rotors
5.8 Analysis of the Influence of Design on Performance
5.9 Model Validation: Comparison with Experimental Results
5.50 Case Study: Modeling a Specific Motor
3.5 Rotor Design Optimization: Principles and Methods
3.5 Magnetic Circuit Design Optimization
3.3 Commutation Optimization: Advanced Strategies
3.4 Performance Optimization: Efficiency and Power
3.5 Optimization for Loss Reduction
3.6 Control Techniques for Performance Optimization
3.7 Application of Optimization Algorithms
3.8 Design for Manufacturing and Assembly
3.9 Design Sensitivity Analysis
3.50 Case Study: Optimization of a Rotor System
4.5 Magnetic Field Analysis in Advanced Rotors
4.5 Analysis of the Commutation: High-Frequency Effects
4.3 Rotor Transient Response Analysis
4.4 Current and Flux Distribution Analysis
4.5 Analysis of the Influence of Materials on Performance
4.6 Rotor Vibration and Noise Analysis
4.7 Failure and Performance Degradation Analysis
4.8 Rotor Reliability and Service Life Analysis
4.9 Analysis Validation: Comparison with Real Data
4.50 Case Study: Analysis of a Complex Rotor
5.5 Performance Evaluation: Metrics and Parameters
5.5 Influence of Advanced Magnetism on Performance
5.3 Impact of High-Speed Commutation on Performance
5.4 Energy Efficiency Analysis
5.5 Rotor Power and Torque Analysis
5.6 Evaluation of Rotor Losses
5.7 Impact of Temperature on Performance
5.8 Design Analysis for Heat Dissipation Heat
5.9 Performance Optimization Under Real-World Conditions
5.50 Case Study: Motor Performance Evaluation
6.5 Advanced Electromagnetic Modeling of Rotors
6.5 Time-Domain Commutation Modeling
6.3 Modeling Losses in Different Components
6.4 Detailed Rotor Dynamics Modeling
6.5 Thermal Modeling Coupled to the Electromagnetic Model
6.6 Rotor-Stator Interaction Analysis
6.7 Modeling the Influence of Rotor Imperfections
6.8 Design Sensitivity Analysis
6.9 Model Validation with Experimental Results
6.50 Case Study: Modeling and Simulation of a Complex Rotor
7.5 Rotor Design to Maximize Performance
7.5 Optimized Material Selection
7.3 Magnetic Circuit Design Optimization
7.4 Advanced Commutation Strategies
7.5 Design for Loss Minimization
7.6 Design for Improved Energy Efficiency
7.7 Adaptive Control for Performance Optimization
7.8 Design for Reliability and Durability
7.9 Design Analysis with Simulation Tools
7.50 Case Study: Design of a High-Performance Rotor
8.5 Key Metrics of Rotor Performance
8.5 Magnetic Field Analysis: Effects and Optimization
8.3 Impact of Commutation on Performance
8.4 Rotor Loss Analysis
8.5 System Efficiency Analysis
8.6 Impact of Temperature on Performance
8.7 Failure Analysis and Mitigation Strategies
8.8 Rotor Reliability and Life Analysis
8.9 Performance Optimization Under Different Conditions
8.50 Case Study: Rotor Performance Analysis
6.6 Rotor Modeling and High-Speed Commutation Analysis
6.2 Principles of Advanced Magnetism in Rotor Design
6.3 Modeling Techniques for Optimized Rotor Systems
6.4 Performance Analysis of Rotors with Advanced Magnetism
6.5 Impact of High-Speed Commutation on Efficiency
6.6 Simulation and Optimization of Rotor Design
6.7 Evaluation of Rotor Dynamic Behavior
6.8 Study of Losses and Thermal Management
6.9 Analysis of Rotor Reliability and Durability
6.60 Practical Applications and Case Studies
7.7 Fundamentals of Fast Commutation in Rotor Systems
7.2 Principles of Advanced Magnetism Applied to Rotary Motors
7.3 Design and Optimization of Rotor Systems: Initial Considerations
7.4 Speed and Torque Control and Regulation in Rotor Motors
7.7 Fault Analysis and Protection of Rotor Systems
7.6 Selection of Components and Materials for Rotor Systems
7.7 Design of Commutation Circuits to Maximize Efficiency
7.8 Integration of Sensors and Feedback Systems
2.7 Mathematical Modeling of Advanced Magnetism in Rotors
2.2 Simulation and Analysis of Fast Commutation in Rotary Motors
2.3 Design of Rotor Models for Performance Analysis
2.4 Finite Element Method (FEM) Modeling Techniques for Rotors
2.7 Analysis of Commutation Losses and Their Mitigation
2.6 Modeling of Rotor Dynamics: Vibrations and Imbalances
2.7 Rotor Simulation and Analysis Software
2.8 Validation of Models Through Experimental Testing
3.7 Optimization Strategies Based in Advanced Magnetism
3.2 Optimizing Commutation to Reduce Losses
3.3 Designing Rotors with High Magnetic Flux Density
3.4 Optimizing Winding Design to Improve Performance
3.7 Control Techniques to Maximize Efficiency Under Different Load Conditions
3.6 Optimizing Cooling for Rotor Systems
3.7 Simulation and Optimization Tools
3.8 Rotor Optimization Case Studies
4.7 Analyzing Magnetic Field Distribution in Rotors
4.2 Impact of Commutation on Rotor Performance
4.3 Analyzing Eddy Currents and Their Mitigation
4.4 Analyzing Core and Winding Losses
4.7 Designing Control Algorithms to Improve Performance
4.6 Analyzing Energy Efficiency Under Different Conditions
4.7 Comparing Different Rotor Architectures
4.8 Interpreting and Analyzing Simulation Results
7.7 Performance Evaluation: Key Parameters
7.2 Impact of Magnetism on Rotor Efficiency
7.3 Impact of Commutation in rotor efficiency
7.4 Analysis of performance curves: torque, speed, and efficiency
7.7 Design of control systems to optimize performance
7.6 Measurement techniques and performance analysis
7.7 Evaluation of rotor reliability and durability
7.8 Case studies of performance improvement
6.7 Rotor modeling: review of concepts
6.2 Analysis of losses in different components
6.3 Impact of temperature on performance
6.4 Analysis of efficiency under different operating conditions
6.7 Analysis of rotor dynamics: vibrations and noise
6.6 Analysis of common failures and failure modes
6.7 Selection of materials and components
6.8 Presentation of results and conclusions
7.7 Rotor modeling: strategies to improve performance
7.2 Design of optimized windings for greater efficiency
7.3 Design of switching circuits to minimize losses
7.4 Analysis of losses and their impact on performance
7.7 Advanced control to maximize efficiency
7.6 Simulation and optimization of performance
7.7 Performance Improvement Case Studies
7.8 Prototype Design and Validation
8.7 Analysis of Performance Curves: Torque, Speed, Power, and Efficiency
8.2 Analysis of Losses: Types and Causes
8.3 Performance Optimization Under Different Load Conditions
8.4 Comparison of Different Rotor Designs
8.7 Analysis of Performance Limitations
8.6 Measurement and Validation of Results
8.7 Reporting and Presentation of Results
8.8 Conclusions and Future Research
8.8 Rotor Modeling and Performance Analysis with Advanced Magnetism
8.8 Application of Fast Switching for Rotor Performance Improvement
8.3 Energy Efficiency Assessment in Propulsion Systems
8.4 Design and Optimization of High-Speed Rotors
8.5 Loss and Efficiency Analysis in Different Configurations
8.6 Integration of Advanced Magnetism and Switching in Design
8.7 Rotor Dynamics and Control Analysis
8.8 Model Simulation and Validation
8.9 Performance Optimization in Rotor Systems
8.0 Case Studies: Comparative Analysis of Technologies
9.9 Mastering Fast Switching and Advanced Magnetism: System Design and Optimization
9.9 Fundamentals of Switching in Power Electronic Devices
9.3 Principles of Advanced Magnetism in Motor Design
9.4 Design and Simulation of Switching Circuits
9.5 Optimization of Systems Based on Advanced Magnetism
9.6 Practical Applications and Case Studies
9.9 In-Depth Analysis of Advanced Magnetism and Fast Switching: Rotor Modeling and Performance
9.9 Mathematical Modeling of Magnetism in Rotating Machines
9.3 Modeling Techniques for Fast Switching
9.4 Loss and Efficiency Analysis in Rotors
9.5 Simulation and Validation of Rotor Models
9.6 Case Studies: Performance Modeling and Analysis
3.9 Optimization of Rotor Systems Using Advanced Magnetism and Fast Switching
3.9 Strategies Design for Maximizing Efficiency
3.3 Control and Regulation of Rotor Systems
3.4 Optimization Methods for Rotor Design
3.5 Practical Implementation and Performance Testing
3.6 Systems Integration: Key Aspects
4.9 Rotor Modeling and Analysis: Application of Advanced Magnetism and High-Speed Switching
4.9 FEM (Finite Element Method) Modeling for Rotor Analysis
4.3 Implementation of Advanced Switching Strategies
4.4 Analysis of Loss Sources in Rotors
4.5 Simulation and Validation of Advanced Rotor Models
4.6 Case Studies: Modeling, Analysis, and Improvement
5.9 Evaluation and Optimization of Rotor Performance using Advanced Magnetism and High-Speed Switching
5.9 Performance Metrics in Motors and Generators
5.3 Energy Efficiency Evaluation
5.4 Optimization Techniques to Maximize Performance
5.5 Laboratory Performance Testing and Measurement
5.6 Comparative Analysis and Conclusions
6.9 Modeling and Performance Analysis of Rotors with Advanced Magnetism and High-Speed Switching
6.9 Review of Principles of Magnetism and Switching
6.3 Advanced Modeling and Simulation Tools
6.4 Analysis of the Influence of Magnetism on Performance
6.5 Simulation and Validation of Rotor Performance
6.6 Case Studies: Design and Performance Optimization
7.9 Rotor Modeling: Application of Advanced Magnetism and Fast Switching for Performance Improvement
7.9 Review of Rotor Design Fundamentals
7.3 Implementation of Advanced Modeling Techniques
7.4 Design Optimization with Magnetism and Switching
7.5 Design for High Performance: Key Strategies
7.6 Sensitivity Analysis and Robust Design
8.9 Rotor Modeling: Performance Analysis with Advanced Magnetism and Fast Switching
8.9 Rotor Design: Key Considerations
8.3 Application of Simulation and Analysis Tools
8.4 Performance Evaluation: Metrics and Methods
8.5 Optimal Design for Different Applications
8.6 Conclusions and Future Perspectives
8.6
1.1 Fundamental Principles of Advanced Magnetism Applied to Rotors
1.2 Fast Switching: Fundamentals and Applications in Rotor Design
1.3 Designing Rotor Systems with a Focus on Magnetism and Switching
1.4 Optimizing Rotor Systems: Advanced Techniques
1.5 Performance Analysis of Rotor Systems
1.6 Integrating Magnetism and Switching for Efficiency
1.7 Rotor Modeling: Simulation and Analysis
1.8 Design Considerations for Efficient Rotor Systems
1.9 Prototyping and Testing Rotor Systems
1.10 Case Study: Practical Application of Concepts
2.1 Detailed Analysis of Advanced Magnetism in Rotors
2.2 Modeling Magnetic Flux in Rotors
2.3 Modeling Rotor Performance
2.4 Effect of Fast Switching on Rotor Performance
2.5 Simulation and Analysis of Rotors
2.6 Designing Optimized Rotors with Magnetism and Switching
2.7 Loss and Efficiency Analysis in Rotors
2.8 Material Selection and Configurations
2.9 Validation and Verification Methods
2.10 Case Study: Practical Application
3.1 Rotor Optimization: Advanced Strategies
3.2 Rotor Design for Efficiency and Performance
3.3 Application of Advanced Magnetism for Improvement
3.4 High-Speed Commutation: Impact on Performance
3.5 Modeling and Simulation of Optimized Rotors
3.6 Sensitivity Analysis and Parametric Optimization
3.7 Design and Optimization Methodologies
3.8 Performance Evaluation and Metrics
3.9 Experimental Validation of Optimized Designs
3.10 Case Study: Real-World Application
4.1 Rotor Modeling: Advanced Techniques
4.2 Simulation of Magnetic Fields in Rotors
4.3 Analysis of the Impact of High-Speed Commutation
4.4 Rotor Design Using Modeling and Simulation
4.5 Performance Analysis: Power, Torque, and Efficiency
4.6 Loss and Efficiency Modeling
4.7 Material Selection and Rotor Configuration
4.8 Model Validation Through Testing
4.9 Software Application Specialized
4.10 Case Study: Design and Analysis of a Specific Rotor
5.1 Rotor Performance Metrics
5.2 Performance Evaluation Techniques
5.3 Rotor Optimization: Methodologies
5.4 Performance Analysis with Advanced Magnetism
5.5 Impact of High-Speed Switching on Performance
5.6 Design and Optimization of Efficient Rotors
5.7 Loss and Energy Efficiency Evaluation
5.8 Experimental Validation of Optimized Designs
5.9 Integration of Advanced Technologies
5.10 Case Study: Optimization Examples
6.1 Rotor Modeling: Advanced Methods
6.2 Performance Analysis: Key Metrics
6.3 Application of Advanced Magnetism
6.4 Effect of High-Speed Switching
6.5 Simulation and Analysis of Rotor Performance
6.6 Design of Efficiency-Optimized Rotors
6.7 Loss and Efficiency Analysis
6.8 Experimental Validation of Models
6.9 Material Selection and System Design
6.10 Case Study: Application to a System Real-world applications
7.1 Rotor modeling: principles and techniques
7.2 Application of advanced magnetism to rotors
7.3 Implementation of fast switching
7.4 Impact on rotor performance
7.5 Simulation and performance analysis
7.6 Design of optimized rotors
7.7 Loss and efficiency analysis
7.8 Model validation
7.9 Prototyping and testing
7.10 Case study: performance improvement
8.1 Rotor modeling: methods and tools
8.2 Performance analysis with advanced magnetism
8.3 Evaluation of the effect of fast switching
8.4 Rotor design and optimization
8.5 Loss and efficiency analysis
8.6 Simulation and performance analysis
8.7 Experimental validation
8.8 Material selection and configuration
8.9 Application to different types of rotors
8.10 Case study: practical examples
8.1
- 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.
Capstone-type projects
Admissions, fees and scholarships
- 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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