Level of education
Bachelor's degree
ECTS
7 credits
Training structure
Faculty of Science
Hours per week
58,5h
Description
electromechanical energy conversions. It provides the prerequisites for further study in the EEA Master's program.
This teaching unit will:
- Enable the definition of the three-phase sinusoidal regime for balanced, unbalanced, and non-linear loads.
- Define the properties of dielectric components.
- Provide basic laws and methods for studying magnetic components.
- Define the principles, models, and experimental tests for characterizing inductors and transformers.
- Define an electromechanical system for motorization.
- Present the topologies of electric actuators and their equivalent models using a circuit-based approach. It will also provide the main characterization tests for actuator modeling.
The practical part includes an initial tutorial section followed by a practical section on the same topic, which enables students to understand and apply theoretical principles and implement measurement methods and techniques.
Objectives
The main objective of this teaching unit is to provide the fundamental principles and calculation methods for studying electrical engineering components using equivalent circuits.
Students must be able to study a problem involving sinusoidal sources and arbitrary electrical loads in steady-state operating modes. They must be able to characterize a signal using Fourier series decomposition.
Students must be able to produce or study test sheets for an iron core inductor, a single-phase or three-phase transformer, a direct current machine, or an asynchronous motor.
He will be able to define an electromechanical system.
This EU may serve as the basis for an L3 project.
Teaching hours
- Systems and components for energy conversion - CMLecture25.5 hours
- Systems and components for energy conversion - Practical workPractical work33 hours
Mandatory prerequisites
- Solid foundation in elementary mathematics and physics.
- Basic concepts of materials and components used in electrical engineering. Methods for studying circuits in steady-state sinusoidal conditions.
- Student with a two-year degree in electrical engineering or applied physics.
Knowledge assessment
70% for the course and 30% for the practical work component
Syllabus
- Three-phase sinusoidal circuits
- Dielectric materials and components - Recall
- Magnetic materials and components – Recall
- Inductors and transformers
- Electric actuators