Emergency course with electric vehicles
About our
Electric Vehicle Emergency Course
This course provides training on response protocols for incidents involving electric vehicles (EVs). It includes key aspects such as high-voltage safety, safe battery handling, and EV fire suppression, using specialized circuit isolation and risk assessment techniques. The course focuses on the practical application of specific tools and equipment for rescue and emergency response, ensuring the safety of first responders and minimizing damage to vehicles and the environment.
The training provides knowledge on the identification of EV models, the disconnection of high-voltage systems, and the management of damaged batteries, in compliance with current safety regulations. Scenarios such as collisions, fires, and submersion are addressed, training participants in decision-making and the application of effective rescue procedures. The development of skills to act safely and efficiently is promoted, preparing professionals to face the challenges presented by EVs.
Emergency course with electric vehicles
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
750 $
Competencies and results
What you will learn
1. Mastery of Techniques for Emergency Response with Electric Vehicles
Here is the requested content:
- Identify and assess high-voltage systems in electric vehicles, including batteries, inverters, and motors.
- Apply specific safety protocols for handling and storing damaged or at-risk high-voltage batteries.
- Employ safe disconnection and lockout/tagout techniques on vehicle electrical systems.
- Diagnosticate common faults in electric vehicles and apply emergency response methods, such as vehicle stabilization and fire control.
- Use appropriate personal protective equipment (PPE) when working with electric vehicles, including insulating gloves and face shields.
- Coordinate with emergency services, such as fire and rescue personnel, to ensure an effective and safe response to electric vehicle incidents.
- Interpret service manuals and safety data sheets (SDS) to understand vehicle specifications and associated risks. electricians.
2. Evaluation and Optimization of Rotor Performance
- Analyze rotor failure modes and flap-lag-torsion interactions, crucial for stability. Identify problems associated with whirl flutter and its impact on structural integrity. Evaluate fatigue and its behavior in rotating components subjected to cyclic loads.
- Master the dimensioning of laminated structures made of composite materials. Apply finite element (FE) techniques for stress and strain analysis in structural joints, including the design of bonded joints for maximum efficiency.
- Apply damage tolerance (DTT) methodology to predict the service life of components, considering the presence of defects.
Integrate non-destructive testing (NDT) techniques such as ultrasonic testing (UT), radiography (RT), and thermography for rotor inspection and early damage detection.
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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. Specialization in Emergency Protocols for Electric Vehicles
4. Specialization in Emergency Protocols for Electric Vehicles
- Identification and assessment of risks associated with electric vehicles in emergency situations.
- Safety protocols for handling high-voltage batteries, including safe disconnection and isolation procedures.
- Advanced firefighting techniques for electric vehicles, with emphasis on specific extinguishing agents and cooling methods.
- Procedures for stabilizing and rescuing occupants in electric vehicle accidents, considering protection against electric shock.
- Knowledge of charging infrastructure and its interaction in emergencies, including the management of charging stations and cables.
- Analysis of Battery Management Systems (BMS) and their behavior in failure or emergency situations.
- Implementation of contingency plans and coordination with emergency services for electric vehicle incidents.
- Relevant legislation and regulations on Electric vehicle safety and emergency response.
Practice in simulations and real-life emergency scenarios with electric vehicles, using appropriate personal protective equipment (PPE).
Ongoing updates on the latest technologies and trends in electric vehicle safety.
5. Safety and Rescue Protocols in Incidents Involving Electric Vehicles
5. Safety and Rescue Protocols for Incidents Involving Electric Vehicles
- Identify the specific risks associated with electric vehicles in emergency situations.
- Apply safety protocols for disconnecting and deactivating high-voltage systems.
- Use appropriate personal protective equipment (PPE) for working in electric vehicle environments.
- Implement safe and effective rescue techniques for electric vehicle occupants.
- Manage fire control and suppression in electric vehicles, including lithium batteries.
- Assess and manage the hazards associated with exposure to hazardous chemicals in electric vehicles.
- Apply decontamination and cleanup procedures in post-incident scenarios.
- Coordinate communication and collaboration with emergency services and competent authorities.
- Understand the relevant legislation and regulations. relevant to the safety of electric vehicles.
- Implement safety practices for the storage and transport of damaged or wrecked electric vehicles.
6. Implementation of Safety Procedures in Electric Vehicle Accidents
6. Implementation of Safety Procedures in Electric Vehicle Accidents
- Identify the specific risks associated with electric vehicles in accidents, including the handling of high-voltage batteries and fire containment.
- Apply safety protocols for accessing and stabilizing damaged electric vehicles, minimizing exposure to electrical and chemical hazards.
- Use specialized tools and equipment for the safe disconnection of power, hazard neutralization, and occupant extraction from electric vehicles.
- Implement fire control and extinguishing techniques for electric vehicles, considering fire spread in batteries and the use of appropriate extinguishing agents.
- Manage the damage assessment and safe disposal of batteries from damaged electric vehicles, complying with environmental and safety regulations.
- Coordinate the emergency response to electric vehicle accidents, including communication with other emergency services and the application of decontamination protocols.
Who this program is for:
Emergency course with electric vehicles
- Firefighters, rescue workers, and emergency personnel (ambulances, police, etc.) responding to incidents involving electric vehicles.
- Technicians and maintenance personnel for electric vehicles who require knowledge in emergency situations.
- Professionals from transport and logistics companies with fleets of electric vehicles.
- Workshop and dealership personnel working with electric vehicles.
- Instructors and trainers in road safety and electric vehicles.
- 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.
2.1 Fundamentals of EV Emergency Response
2.2 Identification and Risk Assessment in EV Incidents
2.3 Personal Protective Equipment (PPE) and Incident Scene Safety
2.4 First Aid and Medical Care in EV Incidents
2.5 EV Energy Isolation and Deactivation Protocols
2.6 EV Firefighting Techniques
2.7 Safe Handling and Storage of EV Batteries
2.8 EV Occupant Rescue and Evacuation Procedures
2.9 Coordination with Emergency Services and Authorities
2.10 Drills and Practical Training in EV Emergency Response
3.1 Advanced Risk Analysis in EV Incidents
3.2 Incident Scene Management and Resource Coordination
3.3 Advanced EV Fire Control Techniques 3.4 Risk Assessment and Mitigation of Chemical Explosions and Leaks in Electric Vehicles (EVs).
3.5 Decontamination Protocols in EV Incidents.
3.6 Rescue Strategies in High-Risk EV Situations.
3.7 Implementation of an Incident Command System (ICS) in EV Emergencies.
3.8 Effective Communication and Information Management in EV Incidents.
3.9 EV Disaster Planning and Preparedness.
3.10 Case Studies and Analysis of Real EV Incidents.
4.1 Regulatory and Normative Framework for EV Safety.
4.2 Development of EV Emergency Protocols.
4.3 Safety Protocols for Different Types of EVs (Cars, Buses, etc.).
4.4 Specific Protocols for Incidents Involving High-Voltage Batteries.
4.5 Safety Protocols for the Transport and Storage of EVs. 4.6 Safety protocols for EV loading and unloading operations.
4.7 Protocols for EV waste management.
4.8 Auditing and verification of emergency protocols.
4.9 Adapting protocols to different scenarios and locations.
4.10 Updating and continuous improvement of emergency protocols.
5.1 Safety and security principles in EV incidents.
5.2 Risk assessment and preventive measures in EV incidents.
5.3 Rescue and extraction techniques for EV occupants.
5.4 Use of rescue tools and equipment in EV incidents.
5.5 Safety protocols for handling damaged EV batteries.
5.6 Safety protocols for handling EV electrical components.
5.7 Safety protocols for extinguishing EV fires.
5.8 Coordination with specialized rescue teams. 5.9 Environmental protection in EV incidents.
5.10 Drills and training in EV rescue scenarios.
6.1 Risk identification and safety planning in EV accidents.
6.2 Design of safety procedures for different types of incidents.
6.3 Implementation of safety measures at the accident site.
6.4 Use of personal protective equipment (PPE) and rescue equipment.
6.5 EV energy isolation and deactivation protocols.
6.6 EV firefighting techniques.
6.7 Safe handling of batteries and damaged electrical components.
6.8 Coordination with emergency services and authorities.
6.9 Evaluation and continuous improvement of safety procedures.
6.10 EV case studies and accident analysis.
7.1 Collection and analysis of EV incident data. 7.2 Application of safety protocols in different incident scenarios.
7.3 Root cause analysis of EV incidents.
7.4 Evaluation of the effectiveness of safety protocols.
7.5 Identification of areas for improvement in safety protocols.
7.6 Adaptation of protocols to different types of EVs and situations.
7.7 Risk analysis and mitigation measures in EV incidents.
7.8 Application of lessons learned from past incidents.
7.9 Development of recommendations for improving safety protocols.
7.10 Communication and dissemination of incident analysis results.
8.1 Fundamentals of aerodynamics and fluid mechanics applied to rotors.
8.2 Design of airfoil profiles and material selection for rotors.
8.3 Analysis of the structure and dynamic behavior of rotors.
8.4 Design of control and actuation systems for rotors. 8.5 Rotor simulation using specialized software.
8.6 Rotor design optimization for different applications.
8.7 Rotor performance evaluation through testing and simulations.
8.8 Safety and reliability considerations in rotor design.
8.9 Rotor design for electric vehicles and eVTOLs.
8.10 Analysis of rotor design case studies and projects.
2.2 Introduction to Rotor Aerodynamics: Fundamental Principles.
2.2 Geometric Design of Rotors: Selection of Airfoils.
2.3 Computational Flow Analysis (CFD) for Rotors: Configuration and Simulation.
2.4 Rotor Design Optimization: Tools and Methods.
2.5 Rotor Performance Simulation: Software and Results Analysis.
2.6 Rotor Stability and Control Analysis: Modeling and Simulation.
2.7 Rotor Design for Different Applications: Helicopters, Drones, Wind Turbines.
2.8 Rotor Materials and Manufacturing: Selection and Processes.
2.9 Experimental Validation of Rotors: Wind Tunnel and Flight Testing.
2.20 Case Studies: Design and Simulation of Successful Rotors.
3.3 Planning and Execution of Evacuations in Electric Vehicle Incidents
3.2 Risk Assessment and Analysis of Safety Protocols
3.3 Design and Application of Rescue Procedures in Disasters
3.4 Implementation of Damage Control Techniques in Electric Vehicles
3.5 Analysis of Rotor Stability and Performance in Emergency Situations
3.6 Optimization of Emergency Response with Electric Vehicles
3.7 Incident Management and Coordination with Rescue Teams
3.8 Evaluation of Rotor Performance Under Pressure
3.9 Development of Safety Protocols Adapted to Naval Environments
3.30 Analysis of Case Studies and Emergency Simulations
4.4 Introduction to EV Emergency Protocols
4.2 Initial Assessment and Scene Safety
4.3 First Aid and Medical Care in EV Incidents
4.4 Electrical Hazard Control and Safe Disconnection
4.5 Extinguishing Fires in Electric Vehicles
4.6 Containment and Mitigation of Battery Spills
4.7 Occupant Evacuation and Rescue
4.8 Coordination with Emergency Services
4.9 Post-Incident Investigation and Root Cause Analysis
4.40 Specific Protocols for Different Types of EVs
5.5 Introduction to Electric Vehicle (EV) Emergency Response
5.5 Specific Risks Associated with EVs
5.3 Personal Protective Equipment (PPE) and Site Safety
5.4 Basic EV Firefighting Techniques
5.5 Safe Disconnection of High-Voltage Power
5.6 First Aid and Prehospital Care in EV Incidents
5.7 Initial Assessment and Safe Scene Procedures
5.8 Identification and Recognition of Electric Vehicles
5.9 Handling Lithium-Ion Batteries: Risks and Precautions
5.50 Considerations for the Safe Storage and Transport of Damaged EVs
5.5 Introduction to Rotor Performance Analysis
5.5 Fundamentals of Rotor Aerodynamics
5.3 Key Design and Performance Parameters
5.4 Performance Evaluation Methods: Wind Tunnel Testing and Computational Simulation
5.5 Simulation Tools and Specialized Software
5.6 Optimizing Rotor Design for Efficiency and Stability
5.7 Influence of Environmental Conditions on the Performance
5.8 Rotor Fault Analysis and Anomaly Detection
5.9 Case Studies: Performance Optimization Examples
5.50 Conclusions and Future Trends in Rotor Design
3.5 EV Emergency Scenario Analysis
3.5 Risk Assessment and Response Planning
3.3 Advanced EV Firefighting Techniques
3.4 Electrolyte Leakage and Contamination Management
3.5 Occupant Rescue in Accident-Involved Electric Vehicles
3.6 Coordination with Other Emergency Services
3.7 Techniques for Stabilizing and Securing Damaged EVs
3.8 Waste Management and Safe Disposal of Damaged Batteries
3.9 Communication and Information Management in EV Emergencies
3.50 Simulation and Training in Complex Scenarios
4.5 Response Protocols for Different Types of EV Incidents (Fires, Collisions, etc.)
4.5 High-Voltage Disconnection Procedures and Risk Assessment
4.3 Safety Protocols for Battery Handling Damaged
4.4 Rescue protocols for occupants in crashed EVs
4.5 Decontamination and leak management procedures
4.6 Inter-institutional coordination protocols in EV emergencies
4.7 Documentation and reporting of EV incidents
4.8 Continuous updating and review of protocols
4.9 Practical examples and case studies of protocol application
4.50 Regulations and standards applicable to EV emergency management
5.5 Identification of specific risks in EV incidents
5.5 Personal protective equipment (PPE) and safety techniques
5.3 EV occupant rescue techniques
5.4 EV stabilization and securing procedures
5.5 EV firefighting techniques
5.6 Handling lithium-ion batteries in emergency situations
5.7 First aid and pre-hospital care in EV incidents
5.8 Incident scene assessment and analysis
5.9 Coordination with emergency services and other organizations
5.50 Safety protocols for the storage and transport of damaged EVs
6.5 Risk assessment and scene analysis in EV accidents
6.5 Safety procedures for handling high-voltage batteries
6.3 Firefighting and leak control techniques in EVs
6.4 Occupant rescue and evacuation procedures
6.5 Stabilization and securing methods for damaged vehicles
6.6 Waste management and decontamination in EV accidents
6.7 Safety protocols for handling damaged components
6.8 Implementation of environmental protection measures
6.9 Documentation and reporting of EV accidents
6.50 Staff training and education in safety procedures
7.5 Analysis of actual EV incidents
7.5 Identification of causes and contributing factors
7.3 Application of emergency protocols in different scenarios
7.4 Evaluation of the effectiveness of response procedures
7.5 Analysis of lessons learned and recommendations
7.6 Continuous Improvement of Protocols and Procedures
7.7 Risk Assessment and Response Planning
7.8 Inter-agency Communication and Coordination
7.9 Case Studies and Practical Examples
7.50 Trends and Future Challenges in EV Incident Management
8.5 Rotor Design Fundamentals
8.5 Simulation Tools and CAD Software
8.3 Modeling and Simulation of Rotor Components
8.4 Structural and Fatigue Analysis
8.5 Optimizing Rotor Design for Different Applications
8.6 Airflow Simulation and Aerodynamic Analysis
8.7 Design and Simulation of Rotor Control Systems
8.8 Stability and Control Analysis
8.9 Visualization and Presentation of Results
8.50 Practical Rotor Design and Simulation Projects
6.6 Introduction to the Legal Framework and Aeronautical Regulations
6.2 Fundamental Principles of Aerodynamics
6.3 Main Components of a Helicopter and Their Functions
6.4 Aircraft Classification: Helicopters and Rotorcraft
6.5 Aeronautical Legislation Applicable to Rotorcraft
6.6 Air Safety Regulations
6.7 Introduction to the FAA, EASA, and Other Regulatory Agencies
6.8 Operator and Pilot Responsibilities and Duties
6.9 Legal Framework for Drones and Unmanned Aircraft Systems
6.60 Case Studies and Jurisprudence in Air Accidents
2.6 Rotor Design Principles and Aerodynamics
2.2 Types of Rotors: Main, Tail, Tandem, Coaxial
2.3 Airfoil Selection and Its Influence on Performance
2.4 Rotor Blade Design: Shape, Materials, and Construction
2.5 Lift and Drag Distribution Analysis
2.6 Ground Effects and Takeoff and Landing Techniques
2.7 Design Flight Control System
2.8 Numerical Simulation and Finite Element Analysis
2.9 Load Factors and Structural Design
2.60 Rotorcraft Design Based on Specific Needs
3.6 Diagnosis and Mitigation of Faults in Electric Vehicles
3.2 Battery Management Systems and Their Impact in Emergencies
3.3 Fire Response Techniques in Electric Vehicles
3.4 Stabilization and Towing Techniques for Electric Vehicles
3.5 Risk and Safety Assessment in Electric Vehicles
3.6 Emergency Response Tools and Equipment for Electric Vehicles
3.7 Decontamination Procedures for Electric Vehicles
3.8 High-Voltage Systems in Electric Vehicles
3.9 Emergency Communication Strategies for Electric Vehicles
3.60 Updates and Trends in Electric Vehicles and Emergencies
4.6 Safety Protocols for Pre-Flight Inspection
4.2 Emergency Protocols in Case of Engine Failure
4.3 Emergency Landing Protocols
4.4 Protocols in Case of Onboard Fire
4.5 Action Protocols in Adverse weather conditions
4.6 Communication protocols with control tower and emergency services
4.7 Search and rescue protocols in different scenarios
4.8 Protocols for passenger management in emergency situations
4.9 First aid and emergency medical care protocols
4.60 Accident and incident investigation protocols
5.6 Safety protocols at the incident scene
5.2 Personal protective equipment for EV rescue
5.3 Rescue techniques in electric vehicles
5.4 Handling batteries and high-voltage components
5.5 Power disconnection protocols
5.6 Electric vehicle stabilization procedures
5.7 Occupant access and extrication techniques
5.8 Fire safety protocols
5.9 Coordination with emergency teams
5.60 Risk assessment and post-rescue safety
6.6 Design of safety procedures for EV accidents
6.2 Fire response procedures in EVs
6.3 Energy management and disconnection in EV
6.4 Risk Assessment and Mitigation in EV Accidents
6.5 Decontamination Protocols in EV Accidents
6.6 Failure Analysis and Lessons Learned in EV Accidents
6.7 Implementation of Vehicle Safety Systems
6.8 EV Safety Training and Education
6.9 Maintenance and Updating of EV Safety Procedures
6.60 Communication and Coordination in Emergency Situations
7.6 Root Cause Analysis in EV Incidents
7.2 Application of Incident Investigation Protocols
7.3 Incident Data Collection and Analysis
7.4 Battery Safety Assessment
7.5 Risk Identification in Incidents
7.6 Use of Incident Analysis Tools and Software
7.7 Design of Corrective and Preventive Measures
7.8 Incident Reporting and Documentation
7.9 Case Studies of EV Incidents
7.60 Continuous Improvement of Safety Protocols
8.6 Rotor Design and Simulation Flow
8.2 Aerodynamic Performance Optimization
8.3 Rotor Energy Efficiency Analysis
8.4 Rotor Design for Different Flight Conditions
8.5 Noise Reduction Techniques
8.6 Vibration Simulation and Structural Analysis
8.7 Rotor Design for eVTOL and UAM
8.8 Use of Simulation and Optimization Software
8.9 Rotor Optimization for Different Applications
8.60 Data Analysis and Decision Making in Rotor Design
- 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”).