LCL Filters and Harmonics Course in EV
About our
LCL Filters and Harmonics in Electric Vehicles (EVs) Course
This course provides specialized training in the design, implementation, and analysis of LCL filters, which are fundamental for harmonic management in electric propulsion systems. It explores the impact of harmonics on the efficiency and lifespan of EV components, addressing mitigation and optimization techniques. It focuses on the use of simulations and analysis tools to evaluate filter performance, considering regulatory and safety requirements in the automotive industry.
This course provides specialized training in the design, implementation, and analysis of LCL filters, which are fundamental for harmonic management in electric propulsion systems.
This course offers practical knowledge in component selection, circuit design, and the implementation of control strategies for harmonic suppression. It covers different LCL filter configurations and their application in power converters used in EVs. This training prepares professionals for roles such as power system design engineers, power electronics specialists, and power quality analysts, improving the efficiency and reliability of EVs.
LCL Filters and Harmonics Course in EV
- Format: Hybrid
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 2
275 $
Competencies and results
What you will learn
1. Mastery of LCL and Harmonic Filters for Vehicle Electrical Systems
- Identification and analysis of the root causes of harmonic distortions in vehicular electrical systems.
- Application of modeling and simulation techniques for the study of harmonic propagation.
- Design and selection of LCL (Inductor-Capacitor-Inductor) filters for harmonic mitigation.
- Optimization of LCL filter design considering efficiency, cost, and size requirements.
- Evaluation of the impact of harmonics on the operation and performance of vehicular electrical systems.
- Implementation of control strategies for harmonic reduction and power quality improvement.
- Analysis of relevant regulations and standards related to power quality and harmonic management in the automotive sector.
- Use of specialized software tools for filter analysis and design, and for the evaluation of harmonics.
Power quality.
Application of measurement and diagnostic techniques for the detection and evaluation of harmonic-related problems in vehicle electrical systems.
Study of practical cases and examples of the implementation of harmonic filtering and mitigation solutions in different types of electric and hybrid vehicles.
2. Analysis and Optimization of LCL and Harmonic Filters in Electric Vehicles
2. Analysis and Optimization of LCL and Harmonic Filters in Electric Vehicles: What Will You Learn?
- Understand the topology and operation of LCL filters in electric vehicle systems.
- Identify and analyze the causes of harmonic generation in the current and voltage of electric vehicles.
- Study the effects of harmonics on system components, such as converters, motors, and batteries.
- Model and simulate the behavior of LCL filters and harmonics using specialized software.
- Design and size optimized LCL filters for harmonic attenuation and efficiency improvement.
- Analyze the stability and performance of LCL filters under different operating and load conditions.
- Apply optimization techniques to reduce the size, cost, and complexity of LCL filters.
- Evaluate and select appropriate components for implementing LCL filters (inductors, capacitors, resistors).
- Implement control strategies to mitigate the effects of harmonics and improve power quality.
- Conduct tests and measurements to validate the performance of LCL filters and harmonic reduction in a laboratory environment or in a real electric vehicle.
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. Advanced Strategies in LCL and Harmonic Filters for Electric Mobility
- Understand the fundamentals of LCL filters in electric mobility systems, including their design and simulation.
- Identify and analyze the harmonic components present in electric traction systems and their impact on efficiency and reliability.
- Apply advanced techniques for harmonic mitigation in electric mobility systems, such as the use of passive and active filters.
- Study control strategies to optimize the performance of LCL filters and harmonic suppression in different operating scenarios.
- Evaluate the impact of load variations and environmental conditions on the behavior of LCL filters and harmonic generation.
- Develop skills in using simulation software for the design and analysis of LCL filters and the evaluation of power quality in electric mobility systems.
- Understand the relevant regulations and standards for power quality and harmonic mitigation in the electric mobility industry.
Electric mobility.
Explore the latest trends and technological advances in the design and application of LCL filters and harmonic management in electric vehicles and charging systems.
5. Design and Application of LCL and Harmonic Filters in Electric Vehicles
5. Design and Application of LCL and Harmonic Filters in Electric Vehicles
Understand the problem of harmonics in electric vehicle power systems.
Identify the sources of harmonic generation in converters and motors.
Analyze the impact of harmonics on system efficiency and reliability.
Design LCL (Inductor-Capacitor-Inductor) filters for harmonic mitigation.
Select and size appropriate LCL filter components for specific applications.
Simulate the performance of LCL filters using specialized software.
Implement control strategies to optimize filter performance.
Evaluate compliance with power quality standards (IEEE, IEC).
Apply LCL filters to different types of electric vehicles (cars, buses, etc.). trains).
Understand the advantages and disadvantages of different filter configurations.
Analyze and mitigate resonance effects in LCL filters.
Study the impact of load and temperature variations on filter performance.
Learn about LCL filter monitoring and diagnostic techniques.
Explore current and future trends in filter design for electric vehicles.
6. Comprehensive Experience in LCL and Harmonic Filters for Electric Vehicles
6. Comprehensive Experience in LCL Filters and Harmonics for Electric Vehicles
- Fundamentals of harmonic generation in electric propulsion systems.
- Analysis and modeling of LCL filters to mitigate harmonics in inverters and converters.
- Design and simulation of LCL filters, including component selection and parameter optimization.
- Study of the implications of harmonics on the efficiency and lifespan of electrical components.
- Implementation of control strategies for harmonic reduction and power quality improvement.
- Analysis of the interaction between LCL filters and the electric vehicle control system.
- Evaluation of different LCL filter topologies and their applications in electric vehicles.
- Testing and validation of LCL filters in simulation and laboratory environments.
- Safety considerations and relevant regulations for the design and implementation of LCL filters.
Case studies of LCL filter applications in different types of electric vehicles (cars, buses, etc.).
Who this program is for:
LCL Filters and Harmonics Course in EV
- Engineers with degrees in Electrical Engineering, Electronics, Energy, or related fields.
- Professionals from maritime transport companies, shipyards, ports, and shipping companies.
- Naval maintenance technicians and naval electricians who wish to update their knowledge.
- Staff from naval engineering, marine electrical systems design, and shipbuilding.
Recommended requirements: basic knowledge of electricity, electronics, and power systems; ES/EN B2+/C1. We offer support resources 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 Electric Vehicle Systems (EVS)
1.2 Introduction to LCL Filters: Components and Functions
1.3 Harmonics in Electrical Systems: Origin and Effects
1.4 Impact of Harmonics on the Efficiency and Durability of EVS
1.5 Importance of LCL Filters in Harmonic Mitigation
1.6 Standards and Regulations Related to Harmonics in the Automotive Industry
1.7 Basic Design of LCL Filters for Electric Vehicle Applications
1.8 Harmonic Simulation and Preliminary Analysis with Specialized Software
1.9 Selection of Key Components for LCL Filters: Inductors and Capacitors
1.10 Case Studies: Real-World Examples of LCL Filter Applications in EVs
5.2 Introduction to Harmonic Analysis in Electric Vehicles
5.2 Origin and Causes of Harmonics in Automotive Electrical Systems
5.3 Impact of Harmonics on Component Performance and Durability
5.4 Tools and Techniques for Harmonic Measurement
5.5 Modeling and Simulation of Systems with Harmonics
5.6 Regulations and Standards Related to Harmonics
5.7 Harmonic Analysis in Different Types of Electric Vehicles
5.8 Harmonic Mitigation Strategies: Filters and System Design
5.9 Case Studies: Harmonic Analysis in Real-World Electric Vehicle Applications
5.20 Future Trends in Harmonic Analysis and Mitigation in Electric Mobility
3.3 Introduction to Automotive Electrification: Trends and Challenges
3.2 Electrical Architectures in Vehicles: Propulsion and Power Distribution Systems
3.3 Fundamentals of LCL Filters: Design, Components, and Operating Principles
3.4 Harmonics in Vehicle Electrical Systems: Causes, Impacts, and Mitigation
3.5 Practical Implementation of LCL Filters: Component Selection and Circuit Design
3.6 Control of LCL Filters: Control Strategies and Algorithms
3.7 Testing and Validation: Simulation and Experimentation of LCL Filters
3.8 Vehicle Integration: Design, Safety, and Compatibility Aspects
3.9 Specific Applications: Implementation in Onboard Chargers and Electric Motors
3.30 Regulations and Standards: Regulatory Compliance and Certifications
4.4 Advanced Considerations in LCL Filter Design: Selection of Key Components and Parameters
4.2 Harmonic Mitigation Strategies: Control and Compensation Techniques
4.3 Optimization of LCL Filters for Different Inverter Topologies in EVs
4.4 Stability Analysis and Control of LCL Filters: Advanced Methods
4.5 Impact of LCL Filters on EV Efficiency and Performance
4.6 Integration of LCL Filters into Fast Charging Systems for EVs
4.7 Evaluation of the Lifespan and Reliability of LCL Filters
4.8 Implementation of Predictive Control Strategies for LCL Filters
4.9 Design of Robust LCL Filters for Demanding Operating Environments
4.40 Case Studies: Application of Strategies in Different EV Models
5. Mastery of LCL Filters and Harmonics for Vehicle Electrical Systems
5.5 Introduction to Vehicle Electrical Systems (VES)
5.5 Fundamentals of LCL Filters: Design and Operation
5.3 Harmonics in VES: Causes, Effects, and Mitigation Methods
5.4 Design of LCL Filters for Harmonic Attenuation
5.5 Selection and Characterization of Components for LCL Filters
5.6 Simulation and Analysis of LCL Filters in Vehicle Environments
5.7 Design Considerations for Different Types of Electric Vehicles
5.8 Regulations and Standards Related to Power Quality in VES
5.9 Simulation Tools and Software for LCL Filter Design
5.50 Case Studies and Practical Applications
5. Analysis and Optimization of LCL Filters and Harmonics in Electric Vehicles
5.5 Review of Circuit Analysis Principles Electrical Systems
5.5 Advanced Harmonic Analysis Techniques
5.3 LCL Filter Optimization Methods
5.4 LCL Filter Design to Reduce Size and Cost
5.5 Sensitivity Analysis of LCL Filters
5.6 Impact of LCL Filters on System Efficiency
5.7 Harmonic Diagnostic and Monitoring Methods
5.8 Fault Analysis and Protection of LCL Filters
5.9 Implementation of LCL Filters in Different Inverter Topologies
5.50 Case Studies: Analysis and Optimization in Specific Electric Vehicles
3. Implementation and Control of LCL Filters and Harmonics in Automotive Electrification
3.5 Inverter Topologies and Their Impact on Harmonics
3.5 Control Strategies for LCL Filters
3.3 Implementation of LCL Filters in Hardware
3.4 Design of the Control Board for Filters LCL
3.5 PWM Modulation Techniques and Their Relationship to Harmonics
3.6 Testing and Verification of Implemented LCL Filters
3.7 Design Considerations for Automotive Environments
3.8 Integration of LCL Filters into the Vehicle Management System
3.9 Communication and Control Protocols for LCL Filters
3.50 Development of a Practical Application: Real-Time Control and Monitoring
4. Advanced Strategies in LCL and Harmonic Filters for Electric Mobility
4.5 Advances in Materials and Components for LCL Filters
4.5 Intelligent and Adaptive LCL Filters
4.3 Design of LCL Filters for Fast Charging Systems
4.4 Integration of LCL Filters into Electrical Distribution Networks
4.5 Design Considerations for Plug-in Hybrid Vehicles
4.6 LCL Filters for Wireless Charging Applications
4.7 Impact of Filters LCL in Grid Power Quality
4.8 Future Trends in LCL Filter Design
4.9 Innovation and Patents in the Field of LCL Filters
4.50 Research Seminars and Discussion of Cutting-Edge Topics
5. Design and Application of LCL and Harmonic Filters in Electric Vehicles
5.5 Review of Key Concepts in LCL Filter Design
5.5 Component Selection and LCL Filter Modeling
5.3 LCL Filter Design for Different Inverter Topologies
5.4 LCL Filter Design for Different Types of Electric Motors
5.5 Simulation and Performance Analysis of LCL Filters
5.6 Implementation of LCL Filters in an Electric Propulsion System
5.7 Design of Protection and Safety Circuits for LCL Filters
5.8 Design of a Control and Monitoring System for LCL Filters
5.9 Testing and Validation of An LCL Filter Implemented in an Electric Vehicle
5.50 Case Studies: Practical Applications and Experiences
6. Comprehensive Experience with LCL and Harmonic Filters for Electric Vehicles
6.5 Review of the Fundamentals of LCL and Harmonic Filters
6.5 Design and Selection of LCL Filter Components
6.3 Harmonic Analysis and Mitigation Methods
6.4 Implementation of LCL Filters in Different Inverter Topologies
6.5 Control and Optimization of LCL Filters
6.6 Integration of LCL Filters into Energy Management Systems
6.7 Testing and Validation of LCL Filters in a Real-World Environment
6.8 Troubleshooting and Problem Solving for LCL Filters
6.9 Current and Future Trends in LCL Filter Design
6.50 Final Project Presentations and Evaluation
7. Design and Application of LCL and Harmonic Filters in EVs
7.5 Introduction to Vehicle Electrification (EV)
7.5 Fundamentals of LCL Filters
7.3 Harmonic Analysis in EV Systems
7.4 Design of LCL Filters for EV Applications
7.5 Component Selection and Specification
7.6 Simulation and Modeling of LCL Filters
7.7 Implementation of LCL Filters in Inverters
7.8 Real-Time Control and Optimization of LCL Filters
7.9 Testing and Validation of LCL Filters
7.50 Case Studies and Practical Applications in EVs
8. Specialization in LCL and Harmonic Filters for EVs: Design, Analysis, and Application
8.5 Advanced Review of the Fundamentals of LCL and Harmonic Filters
8.5 Advanced Design Techniques for LCL Filters in EVs
8.3 Harmonic Analysis and Latest Generation Mitigation Methods
8.4 Design of LCL Filters Optimized for Efficiency and Cost
8.5 Implementation of LCL Filters in Different EV Architectures
8.6 Intelligent and Adaptive Control Strategies for LCL Filters
8.7 Testing, Validation, and Certification of LCL Filters in EVs
8.8 Integration of LCL Filters into EV Energy Management Systems
8.9 Future Trends and Technological Advancements in LCL Filters for EVs
8.50 Final Project: Design and Development of an LCL Filter System for a Specific EV Application
6.6 Introduction to the problem of harmonics in vehicle electrical systems.
6.2 Fundamentals of LCL filters: components and operation.
6.3 Causes of harmonics: sources and harmful effects.
6.4 Benefits of harmonic mitigation using LCL filters.
6.5 Regulations and standards related to harmonics and power quality in electric vehicles.
2.6 Harmonic analysis: diagnostic methods and tools.
2.2 Modeling and simulation of electric vehicle (EV) electrical systems.
2.3 Impact of harmonics on critical EV components.
2.4 Fourier analysis techniques and transforms for harmonic identification.
2.5 Total harmonic distortion (THD) and power factor analysis.
3.6 Design and selection of components for LCL filters.
3.2 Implementation considerations: filter placement and connection. 3.3 LCL Filter Control: Open-Loop and Closed-Loop Control Strategies
3.4 Integration of LCL Filters into EV Control Systems
3.5 Testing and Validation of Implemented LCL Filters
4.6 Optimizing Energy Efficiency in Electric Mobility Systems
4.2 Emission Reduction and Sustainability in EV Design
4.3 Integration of Energy Storage Systems and LCL Filters
4.4 Development of Advanced Energy Management Solutions
4.5 Trends and Challenges in the Future of Electric Mobility
5.6 LCL Filter Design: Technical Specifications and Practical Considerations
5.2 Selection of Materials and Components for LCL Filters
5.3 Simulation and Performance Analysis of LCL Filters
5.4 Application of LCL Filters in Different Types of Electric Vehicles
5.5 Experimental Validation and Field Testing
6.6 Design and simulation of LCL filtration systems for different electric vehicle architectures.
6.2 Implementation of LCL filters in prototypes and performance testing.
6.3 Analysis of practical cases: common failures and solutions in the field.
6.4 Optimization of design parameters for different operating conditions.
6.5 Field experiences: challenges and lessons learned.
6.6 Maintenance and troubleshooting of LCL filtration systems.
7.6 Component selection and design of LCL filters for electric vehicles.
7.2 Implementation and commissioning of LCL filters in EV prototypes.
7.3 Analysis of case studies and practical application.
7.4 Testing and validation of LCL filters in real-world driving scenarios.
7.5 Performance evaluation and design optimization.
8.6 Advanced design of LCL filters: topologies and component optimization.
8.2 Stability and control analysis of LCL filters. 8.3 Application of LCL filters in electric vehicle charging systems.
8.4 Design of LCL filters for different power levels and voltages.
8.5 Failure analysis and mitigation strategies.
8.6 Future trends and advances in LCL filter technology for EVs.
- 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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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”).