Electric Traction Dynamics Course
About our
Electric Traction Dynamics Course
This course focuses on the study of electric propulsion systems, covering vehicle dynamics, electric motors, batteries, and control systems. It explores the modeling and simulation of components and complete systems, including performance analysis, energy efficiency, and thermal management. It emphasizes the practical application of knowledge to the design and optimization of electric vehicles, from cars to public transportation vehicles.
This course focuses on the study of electric propulsion systems, covering vehicle dynamics, electric motors, batteries, and control systems.
The course provides a solid foundation in power electronics and speed control, using simulation tools such as MATLAB/Simulink. It delves into systems integration, including energy management and safety, preparing participants for roles such as electrical systems engineers, electric motor designers, and electric vehicle specialists. The practical approach includes projects and case studies relevant to the automotive industry.
Electric Traction Dynamics Course
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
249 $
Competencies and results
What you will learn
1. Mastery of the Dynamics of Electric Motors and Traction Systems
Here is the requested content:
**1. Mastery of Electric Motor Dynamics and Traction Systems**
- Understand the fundamental principles of operation and control of electric motors used in marine traction systems.
- Analyze the different configurations of electric motors (DC, AC, synchronous, asynchronous) and their specific applications in marine environments.
- Study the control and speed regulation systems of electric motors, including modulation techniques and power converters.
- Evaluate the performance and energy efficiency of electric motors and traction systems, considering factors such as load, speed, and environmental conditions.
- Diagnosticate and troubleshoot common problems in electric motors and traction systems, using analysis and testing tools.
- Apply knowledge to the design and optimization of electric propulsion systems for vessels, considering motor selection, energy management, and integration with other systems.
2. In-depth Analysis of Electric Traction Dynamics
2. **In-Depth Analysis of Electric Traction Dynamics**
Explore the fundamentals of electric traction, including circuit theory, energy conversion, and the operating principles of electric motors.
Study the different types of electric motors used in traction systems, such as direct current (DC) motors, alternating current (AC) motors, and permanent magnet synchronous motors (PMSM).
Analyze electric motor control systems, including speed control, torque control, and position control techniques.
Investigate energy management techniques in electric traction systems, including battery management, regenerative braking, and energy consumption optimization.
Evaluate the advantages and disadvantages of electric traction systems compared to conventional traction systems.
Explore the applications of electric traction in different sectors, such as transportation. land transport (electric vehicles, trains), maritime transport (electric ships), and aviation (electric aircraft).
To study the technical challenges and future trends in the development of electric traction systems, such as improving efficiency, reducing costs, and extending range.
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. Optimization of the Design and Operation of Rotors in Electric Traction Systems
- You will master the analysis of critical aeroelastic phenomena: flap-lag-torsion, which impact stability, and whirl flutter, which affects rotor vibration. You will understand the assessment of structural fatigue in rotors.
- You will learn to size and optimize the construction of rotors with advanced composite materials. This includes the calculation of composite laminates, the design of bonded joints using finite element (FE) methods, and joint analysis.
- You will be trained in the application of damage management methodologies: damage tolerance, along with advanced non-destructive testing (NDT) techniques, such as ultrasonic testing (UT), radiography (RT), and thermography, to ensure rotor integrity throughout its service life.
5. Simulation and Analysis of the Dynamic Response of Electric Rotors
- Understand and simulate complex dynamic couplings in electric rotors, including flap-lag-torsion modes.
- Evaluate rotor stability and performance, addressing critical phenomena such as whirl flutter.
- Analyze and predict fatigue in rotors, essential for durability and safety.
- Design and dimension rotor components using composites, optimizing strength and weight.
- Analyze joints and bonded joints using finite element analysis (FE), ensuring structural integrity.
- Apply damage tolerance methodologies to assess damage tolerance in rotors.
- Utilize non-destructive testing techniques (NDT) such as UT/RT/thermography for rotor inspection and evaluation.
6. Advanced Analysis of the Dynamic Behavior of Electric Rotors
- To delve deeper into the study of flap-lag-torsion couplings, crucial for the stability and performance of electric rotors.
- To evaluate instability phenomena such as whirl flutter, and understand their mechanisms and mitigation methods.
- To understand fatigue processes in electric rotors, analyzing their influence on the service life and reliability of the components.
- To develop the ability to dimension laminated structures made of composites, using finite element (FE) analysis techniques.
- To design and evaluate the integrity of structural and bonded joints, using FE to predict their behavior under load and optimize their design.
- To apply the acquired knowledge to optimize the design and Performance of electric rotors.
- Apply damage tolerance principles to assess the damage tolerance of rotors and predict their remaining service life.
- Use non-destructive testing (NDT) techniques such as ultrasonic testing (UT), radiography (RT), and thermography for the inspection and evaluation of components.
- Interpret the results of NDT inspections to identify and characterize defects, ensuring the structural integrity of electric rotors.
Who this program is for:
Electric Traction Dynamics Course
- Engineers with degrees in Aerospace Engineering, Mechanical Engineering, Industrial Engineering, Automation Engineering, or related fields, who wish to delve deeper into electric traction dynamics.
- Professionals working in rotorcraft/eVTOL OEMs, MRO (Maintenance, Repair, and Operations) organizations, specialized consulting firms, or technology centers, who seek to enhance their knowledge in this emerging field.
- Experts in areas such as Flight Testing, aeronautical certification, avionics, systems control, and flight dynamics, who
- This course is for regulatory/aeronautical authority officials and professionals involved in the development of UAM/eVTOL (Urban Air Mobility) who need to acquire specific skills in compliance and regulations related to electric traction.
Recommended Requirements: Prior knowledge of aerodynamics, control systems, and structures is recommended. A B2+/C1 level of Spanish/English is required. If needed, we offer bridging tracks to facilitate your participation.
- 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 Electric Motors and Traction Systems
1.2 Operating Principles of Electric Motors
1.3 Types of Electric Motors and Their Applications in Traction
1.4 Key Components of Electric Traction Systems
1.5 Introduction to Electric Motor Dynamics
1.6 Control and Regulation Systems for Electric Motors
1.7 Selection and Sizing of Electric Motors
1.8 Introduction to Energy Efficiency in Electric Motors
1.9 Fundamentals of Safety in Electric Traction Systems
1.10 Case Studies: Real-World Applications of Electric Motors and Traction
2.2 Fundamental Principles of Electric Motors
2.2 Key Components of Electric Traction Systems
2.3 Types of Electric Motors: Synchronous, Asynchronous, and Permanent Magnet
2.4 Control and Regulation of Electric Motors
2.5 Applications of Electric Motors in Naval Systems
2.6 Selection of Electric Motors: Criteria and Considerations
2.7 Design and Configuration of Electric Traction Systems
2.8 Maintenance and Management of Electric Motors
2.9 Introduction to Electric Motor Dynamics
2.20 Regulations and Standards in Naval Electrification
2.2 Principles of Electric Traction Dynamics
2.2 Modeling of Electric Traction Systems
2.3 Transient Analysis in Electrical Systems
2.4 Stability and Control of Traction Systems
2.5 Simulation of Traction Dynamics Electrical Engineering
2.6 Fault Analysis and Protection in Electrical Systems
2.7 Performance Optimization in Traction Systems
2.8 Design of Traction Systems for Energy Efficiency
2.9 Instrumentation and Measurement in Traction Systems
2.20 Implementation and Testing of Electric Traction Systems
3.2 Operating Principles of Rotors in Electric Motors
3.2 Key Parameters for Evaluating Rotor Performance
3.3 Rotor Performance Measurement and Testing Techniques
3.4 Influence of Materials on Rotor Performance
3.5 Effects of Temperature on Rotor Performance
3.6 Analysis of Rotor Losses: Hysteresis, Eddy Current
3.7 Evaluation of Rotor Energy Efficiency
3.8 Analysis of Rotor Reliability and Durability
3.9 Impact of Rotor Failures: Analysis and Mitigation
3.20 Case Studies: Rotor Performance Evaluation in Different Applications
4.2 Rotor Design Principles for Electric Motors
4.2 Materials and Technologies for Rotor Construction
4.3 Rotor Design to Optimize Energy Efficiency
4.4 Rotor Design to Minimize Losses
4.5 Rotor Design Optimization for High Power
4.6 Rotor Design for Noise and Vibration Reduction
4.7 Rotor Cooling System Design
4.8 Strategies for Optimizing Rotor Performance
4.9 Cost-Benefit Analysis in Rotor Design
4.20 Case Studies: Rotor Design Optimization in Marine Applications
5.2 Introduction to Rotor Dynamic Response Simulation
5.2 Simulation Tools for Dynamic Rotor Analysis
5.3 Rotor Modeling for Dynamic Simulation
5.4 Simulation of Response Under Different Conditions Operation
5.5 Simulation Results Analysis: Interpretation and Validation
5.6 Fault Simulation and Abnormal Behavior Analysis
5.7 Simulation of the Influence of Design Parameters
5.8 Simulation-Based Design Optimization
5.9 Application of Simulation in Motor Development
5.20 Case Studies: Simulation of Dynamic Response in Specific Applications
6.2 Advanced Modeling of the Dynamic Behavior of Electric Rotors
6.2 Analysis of Transient Regimes in Rotors
6.3 Rotor Stability Analysis Techniques
6.4 Rotor Vibration Analysis
6.5 Analysis of the Thermal Response of Rotors
6.6 Analysis of Electromagnetic Effects on Rotors
6.7 Rotor Fault Modeling and Simulation
6.8 Advanced Diagnostic Methods for Rotors
6.9 Data Analysis and Validation of Rotor Models
6.20 Case Studies: Advanced Analysis of Rotor Behavior in Critical Situations
7.2 Rotor Optimization Strategies
7.2 Rotor Design Optimization for Maximum Performance
7.3 Rotor Operation Optimization: Control and Regulation
7.4 Rotor Energy Efficiency Optimization
7.5 Rotor Durability and Reliability Optimization
7.6 Rotor Optimization to Reduce Noise and Vibration
7.7 Integrating Optimization into Motor Design
7.8 Advanced Control Methods for Rotor Optimization
7.9 Cost-Benefit Analysis of Optimization Strategies
7.20 Case Studies: Rotor Optimization in Specific Marine Applications
8.2 Key Performance Parameters in Electric Motors
8.2 Methods for Measuring Rotor Performance
8.3 Influence of Rotor Design on Motor Performance
8.4 Impact of Materials and Rotor Performance
8.5 Effects of Operating Conditions on Performance
8.6 Analysis of Rotor Losses and Their Impact
8.7 Rotor Optimization for Improved Performance
8.8 Evaluation of Rotor Reliability and Durability
8.9 Benchmarking Rotor Performance in Different Motors
8.20 Case Studies: Analysis of Rotor Performance in Marine Electric Motors
3.3 Fundamentals of Electric Motor Dynamics and Traction Systems
3.2 Modeling and Simulation of Electric Traction Dynamics
3.3 Key Metrics for Rotor Performance Evaluation
3.4 Rotor Design: Principles and Optimization Considerations
3.5 Transient Response Analysis of Electric Rotors
3.6 Failures and Degradation: Diagnostics in Electric Rotors
3.7 Advanced Strategies for Rotor Design Optimization
3.8 Case Studies: Analysis of Rotor Performance in Different Electric Motors
4.4 Basic Principles of Electric Motors: Operation, Types, and Applications
4.2 Key Components of Electric Motors: Stator, Rotor, Coils, Magnets
4.3 Electric Traction Systems: Configuration, Advantages, and Disadvantages
4.4 Selection and Sizing of Electric Motors for Traction Systems
4.5 Control of Electric Motors: Methods and Technologies
4.6 Integration of Electric Motors into Propulsion Systems
4.7 Sensors and Actuators in Electric Traction Systems
4.8 Fundamentals of Energy Efficiency in Electric Motors
4.9 Applications of Electric Motors in Different Sectors
4.40 Maintenance and Troubleshooting of Basic Electric Motors
2.4 Modeling and Simulation of Electric Traction Systems
2.2 Analysis of Traction Dynamics: Torque, Speed, and Acceleration
2.3 Analysis of Efficiency in Electric Traction Systems
2.4 Study of Inverters and Controllers for Electric Motors
2.5 Integration of Battery Management Systems (BMS)
2.6 Cooling Systems in Electric Motors
2.7 Design and Optimization of Traction Trains Electric Traction
2.8 Fault Analysis and Solutions in Traction Systems
2.9 Regulations and Standards in Electric Traction
2.40 Case Studies of Advanced Electric Traction Systems
3.4 Key Parameters for Rotor Performance Evaluation
3.2 Rotor Testing and Measurements: Vibration Analysis and Thermography
3.3 Rotor Performance Modeling and Simulation
3.4 Influence of Rotor Design on Motor Performance
3.5 Factors Affecting Rotor Efficiency
3.6 Rotor Loss Analysis: Hysteresis, Eddy Currents
3.7 Evaluation of Rotor Robustness and Durability
3.8 Methods for Improving Rotor Performance
3.9 Analysis of Common Rotor Faults
3.40 Data Interpretation and Preparation of Evaluation Reports
4.4 Rotor Design to Optimize Torque and Efficiency
4.2 Rotor Materials and Manufacturing Processes
4.3 Winding Selection and Magnet Configuration
4.4 Design Optimization to Reduce Losses
4.5 Design of Cooling Systems for Rotors
4.6 Design Considerations for Different Applications
4.7 Design for Rotor Manufacturing and Assembly
4.8 Rotor Design Simulation and Results Analysis
4.9 Implementation of Optimization Strategies
4.40 Design Validation and Performance Testing
5.4 Introduction to Rotor Simulation Tools
5.2 Modeling of Motor Components: Stator, Rotor, Windings
5.3 Simulation of the Rotor’s Dynamic Response Under Load Conditions
5.4 Analysis of Vibrations and Resonances in Rotors
5.5 Simulation of Rotor Thermal Behavior
5.6 Analysis of Rotor Response to Faults and Variations
5.7 Simulation of Different Types of Rotors and Designs
5.8 Rotor Design Optimization Through Simulation
5.9 Validation of Simulation Models with Real Data
5.40 Interpretation of Simulation Results and Conclusions
6.4 Advanced Rotor Modeling: FEM, CFD, Modal Analysis
6.2 Analysis 6.1 Magnetic Field Distribution in Rotors
6.3 Study of Dynamic Behavior Under Different Operating Conditions
6.4 Analysis of the Influence of Manufacturing Tolerances
6.5 Analysis of Response to Harmonics and Overloads
6.6 Study of Rotor Stability and Control
6.7 Analysis of Rotor Life and Reliability
6.8 Rotor Fault Detection and Diagnostic Techniques
6.9 Analysis of Complex Case Studies
6.40 Integration of Software and Analysis Tools
7.4 Optimization Strategies for Different Applications
7.2 Rotor Design Optimization to Maximize Efficiency
7.3 Motor Control Optimization Techniques
7.4 Design Optimization to Reduce Noise and Vibration
7.5 Performance Optimization Under Variable Load Conditions
7.6 Design Optimization for Durability and Reliability
7.7 Implementation of Optimization Algorithms
7.8 Experimental Validation of Optimization Results
7.9 Economic and Sustainability Considerations
7.40 Case Studies and Optimization Examples Successful
8.4 Key Rotor Performance Parameters: Torque, Speed, Efficiency
8.2 Analysis of Rotor Behavior Under Different Operating Conditions
8.3 Influence of Rotor Design on Motor Performance
8.4 Analysis of Rotor Losses and Their Impact on Performance
8.5 Optimization of Rotor Design to Improve Performance
8.6 Analysis of Rotor Performance Under Fault Conditions
8.7 Case Studies of Electric Motors and Their Rotors
8.8 Measurement and Analysis of Rotor Performance Data
8.9 Impact of Materials on Rotor Performance
8.40 Comparison of Different Rotor Technologies
5.5 Introduction to Electric Motors in Marine Applications
5.5 Fundamentals of Electric Traction in the Maritime Environment
5.3 Key Components of Electric Traction Systems
5.4 Selection and Sizing of Electric Motors
5.5 Control and Management of Electric Motors
5.6 Integration of Electric Traction Systems in Ships
5.7 Advantages and Challenges of Marine Electric Propulsion
5.8 Current and Future Applications of Electric Traction in the Shipbuilding Industry
5.9 Design and Optimization of Electric Traction Systems
5.50 Case Studies: Electric Traction Systems in Specific Ships
5.5 Fundamentals of Electric Traction Dynamics
5.5 Mathematical Modeling of Traction Systems
5.3 Analysis of Forces and Motions in Maritime Environments
5.4 Simulation of Traction Dynamics
5.5 Influence of Marine Conditions on Traction
5.6 Design of Control Strategies for Electric Traction
5.7 Stability Analysis in Traction Systems
5.8 Evaluation of Traction Performance
5.9 Design Optimization for Energy Efficiency
5.50 Case Studies: Analysis of Traction Dynamics in Different Types of Vessels
3.5 Fundamentals of Rotors in Electric Motors
3.5 Types of Rotors and Their Characteristics
3.3 Rotor Design and Materials
3.4 Methods for Evaluating Rotor Performance
3.5 Analysis of Rotor Losses
3.6 Influence of Rotors on Motor Efficiency
3.7 Testing and Measuring Rotor Performance
3.8 Comparison of Different Rotor Designs
3.9 Design Optimization for Improved Performance
3.50 Case Studies: Evaluation of Rotor Performance in Specific Motors
4.5 Principles of Rotor Design Optimization
4.5 Design Methodologies for Efficiency
4.3 Rotor Design for Different Applications
4.4 Material and Manufacturing Considerations
4.5 Finite Element Analysis (FEA) in Rotor Design
4.6 Design Optimization for Noise and Vibration Reduction
4.7 Design of Cooling Systems for Rotors
4.8 Rotor Design for Durability and Reliability
4.9 Implementation of Optimization Strategies
4.50 Case Studies: Design and Optimization of Rotors in Specific Motors
5.5 Introduction to Dynamic Simulation of Electric Rotors
5.5 Simulation and Modeling Tools
5.3 Modeling Rotors and Their Components
5.4 Simulation of the Dynamic Behavior of Rotors
5.5 Analysis of Simulation Results
5.6 Validation of Simulation Models
5.7 Simulation of Rotor Failures and Anomalies
5.8 Application of Simulation in Design
5.9 Design Optimization Through Simulation
5.50 Case Studies: Dynamic Simulation of Rotors in Specific Motors
6.5 Introduction to the Analysis of the Dynamic Behavior of Rotors
6.5 Key Parameters of Dynamic Behavior
6.3 Vibration Analysis in Rotors
6.4 Stress and Strain Analysis
6.5 Transient Response Analysis
6.6 Dynamic Stability Analysis
6.7 Detection and Diagnosis of Rotor Failures
6.8 Advanced Analysis Techniques
6.9 Design for Mitigating Dynamic Problems
6.50 Case Studies: Analysis of the Dynamic Behavior of Specific Rotors
7.5 Principles of Rotor Optimization
7.5 Design Optimization for Energy Efficiency
7.3 Control Strategies for Optimizing Performance
7.4 Optimization for Noise and Vibration Reduction
7.5 Design of Optimized Cooling Systems
7.6 Design Optimization for Durability
7.7 Sensitivity Analysis Methods
7.8 Implementation of Optimization Solutions
7.9 Real-Time Monitoring and Control
7.50 Case Study: Rotor Optimization in Specific Motors
8.5 Fundamentals of Rotor Performance Analysis
8.5 Key Performance Parameters
8.3 Influence of Design on Performance
8.4 Performance Measurement and Evaluation Methods
8.5 Energy Efficiency Analysis
8.6 Load Response Analysis
8.7 Durability and Reliability Evaluation
8.8 Comparison of Different Rotor Designs
8.9 Design Optimization to Improve Performance
8.50 Case Study: Rotor Performance Analysis in Specific Motors
6.6 Fundamentals of Electric Motors and Their Marine Applications
6.2 Key Components of Electric Traction Systems
6.3 Operating Principles of Electric Motors in Marine Environments
6.4 Advantages and Disadvantages of Electric Traction in Marine Applications
6.5 Introduction to Industry Regulations and Standards
2.6 Modeling and Analysis of Electric Traction Dynamics
2.2 Influence of Loads and Operating Conditions on Traction
2.3 Energy Efficiency Analysis in Electric Traction Systems
2.4 Case Studies of Electric Traction Systems in Ships and Vessels
2.5 Impact of Dynamics on Maneuverability and Naval Safety
3.6 Methods for Evaluating Rotor Performance
3.2 Key Performance Parameters: Efficiency, Power, Speed
3.3 Influence of Rotor Design on Overall Performance
3.4 Techniques for Measuring and Analyzing Performance Data
3.5 Interpreting Results and Making Decisions
4.6 Rotor Design Optimization Strategies
4.2 Material Selection and Its Impact on the Performance
4.3 Aerodynamic Design and Its Influence on Efficiency
4.4 Design Optimization for Different Operating Conditions
4.5 Tools and Software for Design Optimization
5.6 Numerical Simulation of Rotor Dynamic Response
5.2 Modeling of Electric Propulsion Systems
5.3 Analysis of Response to Transients and Variable Load Conditions
5.4 Validation of Simulation Models with Experimental Data
5.5 Applications of Simulation in Design and Operation
6.6 Failure Analysis in Electric Rotors
6.2 Diagnosing and Troubleshooting Rotors
6.3 Influence of Environmental Conditions on Performance
6.4 Case Studies of Failures and Solutions
6.5 Predictive and Preventive Maintenance Strategies
7.6 Advanced Rotor Optimization Techniques
7.2 Rotor Design for Optimized Energy Efficiency
7.3 Optimization for Specific Operating Conditions
7.4 Cost and Life Cycle Considerations
7.5 Implementation and Validation of Optimized Solutions
8.6 Performance Analysis in marine electric motors
8.2 Impact of operating conditions on rotor performance
8.3 Comparative analysis of different rotor designs
8.4 Strategies to maximize performance and service life
8.5 Implementation of improvements and evaluation of results
- 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.
Do you have any questions?
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F. A. Q
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”).