1. Identify the structure of an electromechanical system
2. Explain complexity of devices for electromechanical energy conversion
3. Apply fundamental principles of Newtonian mechanics to simple systems
4. Analyze simple systems by Lagrangean and Hamilton equations of motion
5. Prepare a circuit-based model of an electromechanical system
6. Analyze functioning of electromechanical devices
7. Assess a concept of an electromechanical device

Compacted lecturing in first part of the term

project and team work

project and team work

support in team work

1. Classification of electromechanical interactions.
2. Network representation of electromechanical interactions.
3. Lossless electromechanical coupling.
4. Coenergy – an alternate energy function.
5. Basic capacitive transducer types.
6. Rotational transducers.
7. Practical devices.
8. Midterm exam.
9. Basic inductive transducer geometries.
10. Rotational magnetic transducers.
11. Permanent magnet transducers.
12. Practical devices.
13. Linearised transducers.
14. Circuit models; Stability considerations.
15. Final exam.