EV integration course in urban environments
About our
EV Integration in Urban Environments Course
Explore the implementation of electric vehicles (EVs) in cities, covering everything from charging infrastructure and smart grids to sustainable urban planning and public policies. The course analyzes the challenges and opportunities for optimizing electric mobility, including energy demand management, integration of renewable energy sources, and the environmental and social impact of EVs. The course focuses on developing strategies to promote EV adoption and reduce emissions in urban environments.
The course examines fast charging technologies, charging station design, and system interoperability, along with regulatory and economic aspects that affect EV deployment. It prepares professionals for roles such as urban planners, electric mobility consultants, charging infrastructure engineers, and policy makers, fostering the transition to cleaner and more efficient urban mobility.
EV integration course in urban environments
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
349 $
Competencies and results
What you will learn
1. Integration of Electric Vehicles: Urban Design and Optimization
- Fundamentals of electric mobility and its impact on the urban environment.
- Design principles of charging systems for electric vehicles.
- Modeling and simulation of charging infrastructure: power flow analysis and network optimization.
- Integrating electric vehicles into urban planning: strategies and tools.
- Data analysis and energy efficiency assessment in the urban context.
- Regulatory and normative aspects related to electric mobility.
- Designing strategies for the intelligent management of electric vehicle charging.
- Optimizing the location of charging stations and their impact on the electrical grid.
- Implementing sustainable electric mobility solutions in different urban contexts.
- Case studies and practical examples of electric vehicle integration projects.
2. Propeller Simulation and Performance: Advanced Analysis
- In-depth analysis of the structural dynamics of propellers, including the study of flap-lag-torsion couplings to understand their behavior under complex loads.
- Evaluate whirl flutter phenomena, identifying critical conditions that can compromise propeller integrity and strategies for their mitigation.
- Study fatigue mechanisms in propellers, using advanced models to predict service life and optimize design to increase durability.
- Apply finite element (FE) techniques for the dimensioning of laminates in composite materials used in propellers, ensuring the required strength and stiffness.
- Analyze and design joints and bonded joints in composite propellers, considering load transfer and long-term behavior aspects using FE.
- Incorporate damage tolerance methodologies into the design, evaluating crack and failure propagation to ensure propeller safety and reliability.
- Apply non-destructive testing (NDT) techniques such as ultrasonic testing (UT), radiography (RT), and thermography for propeller inspection, identifying internal defects and ensuring quality.
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. Flow and Performance Analysis of Rotary Blades
4. Flow and Performance Analysis of Rotating Blades
- Analyze flap–lag–torsion couplings, whirl flutter and fatigue.
- Size laminates in composites, unions and bonded joints with FE.
- Implement damage tolerance and NDT (UT/RT/thermography).
5. Modeling and Performance Analysis of Rotors: Urban Applications
5. Rotor Performance Modeling and Analysis: Urban Applications
Master the analysis of flap-lag-torsion couplings, critical for the stability and dynamic behavior of rotors.
Study instability phenomena such as whirl flutter, vital for safety and efficiency.
Evaluate fatigue in rotor materials, crucial for service life and failure prevention.
Learn to dimension laminated structures in composites, optimizing strength and weight.
Apply finite element (FE) analysis for the design of joints and bonded joints in rotors.
Delve deeper into the methodology of damage tolerance, essential for safety and maintenance.
6. Rotor Modeling and Simulation: Optimization in Urban Environments
6. Rotor Modeling and Simulation: Optimization in Urban Environments
- Identify and understand the complexities of rotor design for urban environments.
- Explore the principles of aerodynamics and flight mechanics for helicopters and drones.
- Apply specialized software to simulate rotor behavior under various conditions.
- Analyze complex aerodynamic interactions, including ground effects and urban turbulence.
- Evaluate the performance and efficiency of different rotor designs.
- Study noise and vibration reduction methods for more sustainable urban operation.
- Understand the regulations and standards related to helicopter and drone flight in urban areas.
- Master optimization techniques to improve rotor design in terms of performance, safety, and sustainability.
- Analyze couplings flap–lag–torsion, whirl flutter and fatigue.
- Size laminates in composites, unions and bonded joints with FE.
- Implement damage tolerance and NDT (UT/RT/thermography).
Who this program is for:
EV integration course in urban environments
- Engineers with degrees in Aeronautical, Mechanical, Industrial, Electrical, or related fields.
- Experts in the eVTOL/UAM industry, including roles in design, manufacturing, maintenance, and consulting.
- Professionals specializing in flight testing, aircraft certification, avionics systems, and flight control.
- Personnel from regulatory bodies, aeronautical authorities, and key profiles in the development of urban air mobility.
(UAM).
Prerequisites: Solid knowledge of aerodynamics, control theory, and strength of materials. Proficiency in English (B2 or higher). We offer leveling courses to strengthen these areas.
- 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.
Module 2 — Propeller Simulation and Performance: Advanced Analysis
2.1 Principles of Momentum Theory
2.2 Propeller Theory: Blade Element, Vortices
2.3 Propeller Modeling: CFD, BEM, Paneling
2.4 Performance Analysis: Thrust, Torque, Efficiency
2.5 Propeller Wake Effects
2.6 Propeller Design: Airfoil Selection, Geometry
2.7 Sensitivity Analysis: Design Parameters
2.8 Propeller Optimization
2.9 Validation: Wind Tunnel Testing
2.10 Applications: High-Efficiency Propellers
Module 3 — Electric Vehicle Implementation: Planning and Efficiency in Cities
3.1 Charging Infrastructure: Design and Deployment
3.2 Integration of Renewable Energies
3.3 Energy Demand Management
3.4 Traffic Modeling and Route Optimization
3.5 Fleet Management Systems
3.6 Feasibility Analysis Economics
3.7 Urban Policies and Regulations
3.8 Environmental Impact and Sustainability
3.9 Case Studies: Smart Cities
3.10 Urban Mobility Planning
Module 4 — Flow Analysis and Performance of Rotary Blades
4.1 Rotary Blade Aerodynamics: Thin-Shell Theory
4.2 Flow Modeling: CFD, BEM
4.3 Leading Edge and Wake Effects
4.4 Stability and Vibration Analysis
4.5 Blade Design: Airfoil Selection
4.6 Performance: Lift, Drag, Torque
4.7 Blade Design Optimization
4.8 Noise Analysis
4.9 Applications: Propellers, Rotors
4.10 Simulation and Performance Analysis
Module 5 — Modeling and Performance Analysis of Rotors: Urban Applications
5.1 Rotor Modeling: Actuator Disc Theory
5.2 Performance Analysis: Thrust, Power Required
5.3 Ground Effects and Wall
5.4 Rotor Design: Parameter Selection
5.5 Noise and Vibration in Urban Environments
5.6 Applications: eVTOL, Drones
5.7 Rotor Design Optimization
5.8 Flow Simulation: CFD, BEM
5.9 Integration into the Urban Environment
5.10 Case Studies: Urban Applications
Module 6 — Rotor Modeling and Simulation: Optimization in Urban Environments
6.1 Rotor Modeling: Finite Elements, CFD
6.2 Performance Simulation: Specialized Software
6.3 Design Optimization: Methods and Tools
6.4 Sensitivity Analysis: Key Parameters
6.5 Noise and Vibration Reduction
6.6 Integration into the Urban Environment: Challenges
6.7 Case Studies: Urban Scenarios
6.8 Life Cycle Assessment (LCA)
6.9 Design for Energy Efficiency
6.10 Rotor Modeling and Simulation
Module 7 — Electric Vehicle Integration: Strategies and Urban Adaptation
7.1 Charging Infrastructure Planning
7.2 Traffic Modeling and Simulation
7.3 Energy Demand Management
7.4 Urban Policies and Regulations
7.5 Environmental Impact Analysis
7.6 Case Studies: Smart Cities
7.7 Urban Adaptation Strategies
7.8 Route Modeling and Optimization
7.9 Electric Vehicle Implementation
7.10 Energy Efficiency
Module 8 — Rotor Modeling and Simulation: Impact on Urban Mobility
8.1 Rotor Modeling: CFD, BEM
8.2 Performance Simulation: Specialized Software
8.3 Impact on Traffic Flow
8.4 Noise and Vibration Analysis
8.5 Integration into Urban Airspace
8.6 Case Studies: Mobility Scenarios
8.7 Route and Operation Optimization
8.8 Socioeconomic Impact
8.9 Vertiport Design
8.10 Impact on Urban Planning
2. Propeller Theory: Fundamentals and Operating Principles
3. Propeller Modeling: CFD and BEM Methods
4. Flow Simulation: Airfoil Analysis
5. Performance Parameters: Thrust, Power, and Efficiency
6. Effects of Cavitation: Analysis and Mitigation
7. Propeller Design: Geometry and Material Selection
8. Propeller Optimization: Techniques and Strategies
9. Vibration Analysis: Causes and Effects
20. Wind Tunnel Testing: Validation and Calibration
22. Case Studies: Applications in Naval Environments
3.3 Charging infrastructure and smart grids for electric vehicles in urban environments
3.2 Urban planning strategies for the adoption of electric vehicles: case studies
3.3 Route optimization and fleet management of electric vehicles: tools and methodologies
3.4 Modeling and simulation of the energy consumption of electric vehicles in cities
3.5 Impact of electric vehicles on air quality and emissions reduction
3.6 Design of efficient and accessible charging infrastructure
3.7 Public policies and incentives for promoting electric mobility
3.8 Life cycle assessment (LCA) of electric vehicles and their environmental impact
3.9 Integration of electric vehicles with renewable energy sources
3.30 Cost-benefit analysis of electric vehicle implementation in urban areas
4.4 Principles of Aerodynamics of Rotating Blades
4.2 Momentum Sheet Theory and its Application
4.3 Computational Flow Analysis (CFD) Methods for Blades
4.4 Design and Optimization of Airfoil Profiles for Rotors
4.5 Performance Evaluation: Thrust, Power, and Efficiency
4.6 Stability and Control Analysis of Rotating Blades
4.7 Effects of Rotor-Body Interaction
4.8 Noise Modeling in Rotating Blades
4.9 Flight Simulation and Performance Under Different Conditions
4.40 Case Studies and Practical Applications
5.5 Electric Vehicle (EV) Fundamentals
5.5 Urban Design and its Integration
5.3 EV Charging Demand Modeling
5.4 Charging Infrastructure: Design and Location
5.5 Environmental Impact Analysis of EVs
5.6 Case Studies: Smart Cities and EVs
5.7 Policies and Regulations for EV Adoption
5.8 EV Sustainability and Life Cycle
5.9 Future Trends in Urban Electric Mobility
5.50 Challenges and Opportunities of EVs in Urban Environments
5.5 Principles of Computational Fluid Dynamics (CFD)
5.5 Propeller Theory: Key Concepts
5.3 Propeller Modeling: Methods and Tools
5.4 Propeller Simulation: Parameters and Configuration
5.5 Propeller Performance Analysis: Efficiency and Thrust
5.6 Effect of Propeller-Hull Interaction
5.7 Cavitation Analysis in Propellers
5.8 Propeller Noise Simulation
5.9 Validation and Verification of Simulation Models
5.50 Case Studies: Propeller Optimization
3.5 Urban Planning and Electric Mobility
3.5 EV Demand and Usage Analysis
3.3 Charging Infrastructure Design
3.4 Charging Network Optimization
3.5 EV Integration with the Electrical Grid
3.6 Regulatory and Normative Aspects
3.7 EV Promotion and Adoption Strategies
3.8 EV Traffic Flow Modeling
3.9 Socioeconomic Impact of EV Implementation
3.50 Implementation of an EV Pilot Project
4.5 Fundamentals of Rotary Blade Aerodynamics
4.5 CFD Applied to Analysis Rotary Blades
4.3 Aerodynamic Design of Rotary Blades
4.4 Flow Analysis Around the Blades
4.5 Edge and Tip Effects
4.6 Rotary Blade Performance: Thrust and Power
4.7 Rotary Blade Optimization Methods
4.8 Stability and Vibration Analysis
4.9 Rotary Blade Noise Simulation
4.50 Applications in Various Types of Rotary Blades
5.5 Rotor Modeling for Urban Applications
5.5 Rotor Performance Analysis in Urban Environments
5.3 Rotor Design for eVTOLs
5.4 Rotor-Wind Interaction
5.5 Noise and Vibration of Urban Rotors
5.6 Rotor Optimization for Energy Efficiency
5.7 Rotor Stability and Control Analysis
5.8 Visual Impact of Rotors in the Urban Environment
5.9 Rotor Applications in Mobility Urban
5.50 Case Studies: Rotor Design for Cities
6.5 Rotor Simulation: Methodologies and Tools
6.5 Rotor Design Optimization
6.3 Rotor Performance Analysis
6.4 Flow Simulation around Rotors in Urban Environments
6.5 Rotor Noise Optimization
6.6 Rotor Design for eVTOLs
6.7 Rotor Flight Simulation in Urban Environments
6.8 Modeling the Impact of Rotors on the Urban Environment
6.9 Case Studies: Rotor Implementation in Cities
6.50 Strategies for Rotor Adoption and Use
7.5 EV Integration Strategies in Urban Environments
7.5 Urban Adaptation for Charging Infrastructure
7.3 Smart Charging Network Design
7.4 Integrating EVs with Renewable Energies
7.5 Policies and Regulations for the Adoption of EV
7.6 Modeling the Impact of EVs on the Electrical Grid
7.7 Cost-Benefit Analysis of EV Integration
7.8 Impact of EVs on the Urban Environment
7.9 Case Studies: Successful EV Integration
7.50 Challenges and Opportunities in EV Integration
8.5 Rotors in Urban Mobility: Trends and Applications
8.5 Analysis of the Impact of Rotors on Mobility
8.3 Modeling and Simulation of Rotor Performance
8.4 Designing Rotors for Urban Environments
8.5 Analysis of the Energy Efficiency of Rotors
8.6 Impact of Rotor Noise on the Urban Environment
8.7 Analysis of the Visual Impact of Rotors
8.8 Modeling the Airflow Generated by Rotors
8.9 Case Studies: Rotors in Urban Mobility
8.50 The Future of Rotors in Urban Mobility
6.6 Introduction to Rotors: Concepts and Types
6.2 CFD Modeling and Simulation of Rotors: Fundamentals
6.3 Rotor Performance Analysis: Key Metrics
6.4 Rotor Optimization for Urban Environments
6.5 Impact of Rotors on Urban Mobility: Noise and Efficiency
6.6 Simulating Urban Scenarios with Rotors: Case Studies
6.7 Integrating Rotors into Urban Design: Infrastructure and Planning
6.8 Rotor Lifecycle Assessment: Sustainability
6.9 Future Trends in Rotor Simulation: Innovation and Development
6.60 Practical Applications: Modeling and Simulation for Decision-Making
- 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?
Our team is ready to help you. Contact us, and we will respond as soon as possible.
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”).