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Electromagnetism and Circuit theory
01URLYE, 01URLLM, 01URLOA, 01URLYF
A.A. 2026/27
Electromagnetism and Circuit theory (Circuit Theory)
The main objective of the course is to introduce students to the basic laws governing lumped electrical circuits, giving suitable and general methods for their analysis. In particular, the course provides fundamental tools to analyze dynamic circuits in the time and in the frequency domain. An introduction to automated circuit analysis via computer-based simulation is also provided. The theory is complemented by several practical classes.
Electromagnetism and Circuit theory (Circuit Theory)
The main objective of the course is to introduce students to the basic laws governing lumped electrical linear circuits, giving suitable and general methods for their analysis. In particular, the course provides fundamental tools to analyze resistive and dynamic circuits in the time and in the frequency domain. An introduction to automated circuit analysis via computer-based simulation is also provided. The theory is complemented by several practical classes.
Electromagnetism and Circuit theory (Circuit Theory)
Knowledge of the basic laws governing electrical circuits. Knowledge of analysis methods for electrical circuits. Ability to compute and explain the responses of electrical circuits. Ability to use a modern computer program for Computer-aided Circuit Analysis (SPICE).
Electromagnetism and Circuit theory (Circuit Theory)
The expected outcomes for this course are: - Knowledge of the basic laws governing electrical circuits. - Knowledge of analysis methods for electrical circuits. - Ability to compute and explain the responses of electrical circuits. - Ability to use a modern computer program for Computer-aided Circuit Analysis (SPICE).
Electromagnetism and Circuit theory (Circuit Theory)
Physics: power and energy, basic electromagnetics. Mathematics: linear algebra and matrix analysis, first-order linear differential equations, algebra of complex numbers.
Electromagnetism and Circuit theory (Circuit Theory)
Physics: power and energy, basic electromagnetics. Mathematics: linear algebra and matrix analysis, first-order linear differential equations, algebra of complex numbers.
Electromagnetism and Circuit theory (Circuit Theory)
The course is structured in two parts: a ?basic? part (2 credits) and a ?core? part (5 credits). - Basic part (2 credits) Lumped circuits; voltage, current and power. Reference directions. Kirchhoff?s laws. Tellegen?s theorem. Basic circuit elements. Series and Parallel connection of the resistive one-port elements. Current and Voltage division rule. Millman?s theorem. Maximum power transfer. Nodal Analysis. - Core part (5 credits) 2.a. General resistive circuits (1.5 credits). Dependent sources, ideal operational amplifier. Network theorems: substitution theorem, Thevenin and Norton theorem, superposition theorem. 2.b Dynamic circuits (1.5 credits) Linear capacitors and inductors, series and parallel connection of inductors and capacitors. First order RC and RL circuits with constant sources and ideal switches. Second order circuits. Formulation and solution of the state equations. 2.c Sinusoidal steady state (2 credits) Circuit equations in sinusoidal steady state (AC), symbolic analysis and phasors, AC power. Network functions: impedance, admittance and transfer functions. Bode plots.
Electromagnetism and Circuit theory (Circuit Theory)
The course is structured in two parts: a "basic" part (2 credits) and a "core" part (5 credits). 1. Basic part (2 credits) Lumped circuits; voltage, current and power. Reference directions. Kirchhoff's laws. Tellegen's theorem. Basic circuit elements. Series and Parallel connection of the resistive one-port elements. Current and Voltage division rule. Millman's theorem. Maximum power transfer. Nodal Analysis. 2. Core part (5 credits) 2.a. General resistive circuits (1.5 credits). Dependent sources, ideal operational amplifier. Network theorems: substitution theorem, Thevenin and Norton theorem, superposition theorem. 2.b Dynamic circuits (1.5 credits) Linear capacitors and inductors, series and parallel connection of inductors and capacitors. First order RC and RL circuits with constant sources and ideal switches. Second order circuits. Formulation and solution of the state equations. 2.c Sinusoidal steady state (2 credits) Circuit equations in sinusoidal steady state (AC), symbolic analysis and phasors, AC power. Network functions: impedance, admittance and transfer functions. Bode plots.
Electromagnetism and Circuit theory (Circuit Theory)
Electromagnetism and Circuit theory (Circuit Theory)
Electromagnetism and Circuit theory (Circuit Theory)
The course is organized into lectures and practical classes. Practical classes (approximately 30% of each credit) are aimed at applying the general circuit analysis methods presented during the lectures. During practical classis, active participation of the students is required. A few hours are dedicated to a basic introduction to computer-based circuit simulation programs (SPICE).
Electromagnetism and Circuit theory (Circuit Theory)
The course is organized into lectures and practical classes. Practical classes (approximately 30% of each credit) are aimed at applying the general circuit analysis methods presented during the lectures. During practical classis, active participation of the students is required. A few hours are dedicated to a basic introduction to computer-based circuit simulation programs (SPICE).
Electromagnetism and Circuit theory (Circuit Theory)
Reference textbook: Clayton R. Paul, Fundamentals of Electric Circuit Analysis, Wiley 2001. Additional texts: Charles A. Desoer and Ernest S. Kuh, Basic circuit theory. McGraw- Hill, 1969 R. Perfetti, Circuiti elettrici, Zanichelli, Bologna, 2003. M. Biey, M. Bonnin, F. Corinto, Esercitazioni di elettrotecnica, CLUT, Torino, 2012. M. Biey, Spice e PSpice: introduzione all'uso, CLUT, Torino, 2001. Besides the above references, all learning material, including an exercise book, are available for download from the course web page. The exercise book is the reference material for all practical classes. The course web page is the official communication channel of the course.
Electromagnetism and Circuit theory (Circuit Theory)
Reference textbook: Clayton R. Paul, Fundamentals of Electric Circuit Analysis, Wiley 2001. Charles K Alexander and Matthew Sadiku, Fundamentals of Electric Circuits, 6Th Edition, McGraw-Hill Education. M. Biey, M. Bonnin, F. Corinto, Esercitazioni di elettrotecnica, CLUT, Torino, 2012. M. Biey, Spice e PSpice: introduzione all'uso, CLUT, Torino, 2001. Additional texts: Charles A. Desoer and Ernest S. Kuh, Basic circuit theory. McGraw-Hill, 1969. R. Perfetti, Circuiti elettrici, Zanichelli, Bologna, 2003. Besides the above references, all learning material, including an exercise book, are available for download from the course web page. The exercise book is the reference material for all practical classes. The course web page is the official communication channel of the course.
Electromagnetism and Circuit theory (Circuit Theory)
Modalita di esame:
Electromagnetism and Circuit theory (Circuit Theory)
Exam:
Electromagnetism and Circuit theory (Circuit Theory)
The knowledge and the abilities gained in this course will be verified during the final examination, which is structured in a written test, followed by an optional oral test. The written part has a duration of 90min (1h and 30min). The test includes three elementary multiple-choice questions each of which has only one correct answer (duration 15min up to 6 points) and circuit analysis problems with open questions (duration 75min, up to 24 points). A correct answer to a multiple-choice question gives 2 points. An incorrect answer gives a penalty of 2 points. There is no penalty for blanks. The exam is graded iff the candidate gets at least 2 points from the multiple-choice questions. During the text, it is possible to use a scientific calculator; no texts, books and notes are admitted. The written test is passed with at least 18/30. The oral test can be requested by students with a mark of the written part larger than 24/30 or can be imposed by the examination board in case of difficulties in assessing the written test of the candidate. The basis for the final mark is provided by the score of the written test, which can be increased (or decreased) based on the possible oral test (optional). Important: A single final mark is registered for the Electromagnetics and Circuits course (12 CFU). The grade will be determined by a weighted average of the grade obtained in both modules (i.e., Electromagnetics (5 CFU) and Circuit Theory (7 CFU)). The examination of the two modules must be taken in the same academic year.
Electromagnetism and Circuit theory (Circuit Theory)
Exam:
Electromagnetism and Circuit theory (Circuit Theory)
The exam for the course "Electromagnetism and Circuit Theory" (12 CFU) aims to verify the knowledge acquired by the student in both the "Physics II" module (5 CFU) and the "Circuit Theory" module (7 CFU). The student who intends to take the exam for "Electromagnetism and Circuit Theory" (12 CFU) must register for both the Physics II and Circuit Theory modules. In one exam session, it is not possible to take the exam for a single module only. ************************************************************************* The exam consists of: - PC TEST (in the classroom or LAIB): - WRITTEN TEST (in the classroom or LAIB); The PC TEST includes 15 multiple-choice questions on the content of the Physics II module and lasts 30 minutes. Each question is scored as follows: correct answer = 2 points; incorrect answer = -0.66 points; unanswered = 0 points. The score V_TF of the PC TEST is obtained by summing the points for each multiple-choice question. The maximum value of V_TF is 30 points. Only students with V_TF of at least 15 points can proceed to the WRITTEN TEST. The WRITTEN TEST lasts 90 minutes and includes: - 6 multiple-choice exercises for the Circuit Theory module (4 exercises worth 2 points each and 2 exercises worth 3 points each). Each multiple-choice exercise is scored as follows: correct answer = exercise points; incorrect answer = -1/3 of the exercise points; unanswered = 0 points. The score V_E1 for the 6 multiple-choice exercises of the Circuit Theory module is obtained by summing the points for each short exercise. The maximum value of V_E1 is 14 points. - 1 problem on the content of the Circuit Theory module worth 5 points. The maximum score V_E2 for this problem is 5 points. - 1 problem/question on the content of the Physics II module worth 5 points. The maximum score V_F for this problem/question is 5 points. Books and/or notes cannot be used during the entire exam, but the use of a scientific calculator is allowed. *************************************************************************** The overall score V for the PC TEST and the WRITTEN TEST is obtained by summing the points according to the following criteria: V=0.3*V_TF+V_F+V_E1+V_E2 The maximum value of V is 33 points, of which, based on the CFU assigned to each module of the "Electromagnetism and Circuit Theory" course (12 CFU), 14 points are related to Physics II module (5 CFU) and 19 points are related to Circuit Theory module (7 CFU). The exam for the course "Electromagnetism and Circuit Theory" is considered passed if V is greater than or equal to 18 points. The grade recorded for the exam "Electromagnetism and Circuit Theory" is: - rounded to the nearest whole number if V is less than 29.5; - 30/30 if V is greater or equal to 29.5 and less than 31.5; - 30L/30 if V is greater or equal to 31.5.