Facoltà di Ingegneria - Guida degli insegnamenti (Syllabus)

Basic understanding of linear algebra, geometry, numerical analysis and algorithmic programming.

The course allows the students to acquire basic notions about the behavior of the electrical circuits, of the phenomenological models based on the electrical circuits and on the circuits for intelligent signal processing. Such contents will complete the set of notions acquired in the courses of physics, electromagnetism, calculus, geometry and programming and will enable the students to understand the fundamental equations that govern the linear and non-linear circuits, with and without memory, and some automated computation techniques instrumental in their analysis.

The students will be able to analyze reasonably complex circuits by using method of decomposition of complex problems into simpler sub-problems and by using automated computation techniques as well as to understand the more general topics covered by the course. In addition, the students will be able to asserve the instruments acquired in the course, even in a synergy with other courses such as data structures and data-processing algorithm, robotics, movement analysis to their own creativity with the aim to deal with real-world and applied themes, either singularly or teamed up.

The development of didactic projects, that are carried on within small groups, will improve the students' ability to interact and communicate, the ability to learn and to draw conclusions, the degree of general independent judgment and the awareness about the real-world problems to be faced in information and automation engineering.

The course is divided in two parts. The first part is devoted to the study of the fundamental elements, linear, time-invariant and memoryless and to the study of basic methods to analyze electrical circuits. The second part is devoted to the modeling of physical phenomena and engineering processes by means of non-linear dynamical circuits and to their solution by a computer. Part I: Elementary bipoles, 2-port elements and linear, time-invariant, memoryless circuits. Bipoles and generating functions (resistors, inductors, capacitor, indipenendent sources), 2-port nets (transformers, gyrator, nullor, Z and Y nets, driven sources). Circuit analysis based on mesh currents and on node potentials. Thevenin's and Norton's theorems. Part II: Modeling of complex phenomena and processes by non-linear dynamical circuits and numerical solution techniques. Cases-study of non-linear, dynamical models and of their differential-type resolving systems (free and constrained) and numerical methods for their solution (Euler and Euler-Riemann methods). Elements of algorithmic programming in MATLAB/OCTAVE and examples of calculation of the dynamic response of non-linear dynamical systems.

Learning evaluation methods: - a written test, to be completed in 90 minuts, about the solution of an electrical circuit; - a written test, to be completed in 30 minutes, consisting in the discussion of a theoretical topic. The theory test may be replaced, upon request, by an applied project of algorithmic programming in MATLAB/OCTAVE. Both tests may be taken in different exam sessions and in any order.

In order to pass both tests, the candidate will need to show a good understanding of the proposed problems, to propose one or more correct solutions as well as to show a good ability to explain the proposed solutions correctly and by using an adequate technical language. The maximum score will be given to those candidates that will show a deep understanding of the course's contents.

Both tests will be graded by an integer in the range 0-30. The final evaluation will be calculated as the mean value of the two. In case of non-integer mean value, the rounding will be determined after a short interview with the candidate.

The maximum score will be given to those candidates that will show a deep understanding of the course's contents and a very good ability to explain them. The distinction mark will be given to those candidates who prove an outstanding ability.

G. Martinelli e M. Salerno, Fondamenti di Elettrotecnica - Circuiti a costanti concentrate lineari e permanenti, Vol. I, Edizioni Scientifiche Siderea (Roma) G. Martinelli e M. Salerno, Fondamenti di Elettrotecnica - Circuiti a costanti concentrate lineari e permanenti, Vol. II, Edizioni Scientifiche Siderea (Roma) Additional handouts prepared by the instructor will be made available on the LMS/Moodles platform

- Ingegneria Informatica e dell'Automazione (Corso di Laurea Triennale (DM 270/04))

**Università Politecnica delle Marche**

P.zza Roma 22, 60121 Ancona

Tel (+39) 071.220.1, Fax (+39) 071.220.2324

P.I. 00382520427