ID: DCE 08069
Course name: Electric circuits (Circuitos eletricos)
Department: Computing science and electronics
Undergraduate program: Petroleum engineering
Requirements: Electromagnetism I (Eletromagnetismo I)
Credits: 2
Hours (h): 45 (30T + 15E)
Semester: 2022-2
Lecture: Thursday; 8h to 10h
Exercise: Thursday; 7h to 8h
Introduction to electric circuits
Basic Concepts
Basic Laws
Methods of Analysis
Circuit Theorems
Operational Amplifiers
Capacitors and Inductors
Sinusoids and Phasors
Introduction to AC Power Analysis
Schedule (link)
Alexander, 2013; Alexander A and Sadiku M, Fundamentos de circuitos eletricos, 5 ed., 2013 (lib. id.: 621.3.012 A375f 5.ed. )
eBook: Select the option "Plataforma Digital Minha Biblioteca" in "bibliotecas-digitais.ufes.br"
Nilsson, 2016; Nilsson J and Riedel S, Circuitos eletricos, Pearson, 10 ed., 2016 (lib. id.: 621.3.012 N712c 10.ed.)
Nilsson, 2009; Nilsson J and Riedel S, Circuitos eletricos, Prentice Hall, 8 ed., 2009 (lib. id.: 621.3.012 N712c 8.ed)
Burian, 2006; Burian Y and Lyra A, Circuitos eletricos, Prentice Hall, 2006 (lib. id.: 621.3.049 B961c)
Irwin, 2009; Irwin D, Analise de circuitos em engenharia, Pearson, 4 ed., 2009 (lib. id.: 621.3.012 172a 4.ed)
lib. id.: library identifier
Contents:
A general view of the Electrical engineering
Pre-class activities:
Reading of Section 1.1 (pages 1-6) [2] (link)
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Contents:
Systems of Units; Charge and Current; Voltage; Power and Energy; Circuit Elements
Pre-class activities:
Reading of Sections 1.1-1.6 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 1.1-1.7 [1]
Contents:
Ohm’s Law; Nodes, Branches, and Loops; Kirchhoff’s Laws; Series Resistors and Voltage Division; Parallel Resistors and Current Division; Wye-Delta Transformations
Pre-class activities:
Reading of Sections 2.2-2.6 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 2.1-2.15 [1]
Contents:
Nodal Analysis; Mesh Analysis
Pre-class activities:
Reading of Sections 3.1; 3.2; 3.4 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 3.1; 3.2; 3.5; 3.6 [1]
Contents:
Linearity Property; Superposition; Source Transformation; Thevenin’s Theorem; Norton’s Theorem; Maximum Power Transfer
Pre-class activities:
Reading of Sections 4.1-4.6; 4.8 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 4.1-4.13 [1]
Contents:
Operational Amplifiers; Ideal Op Amp; Inverting Amplifier; Noninverting Amplifier; Summing Amplifier; Difference Amplifier; Cascaded Op Amp Circuits
Pre-class activities:
Reading of Sections 5.1-5.6 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 5.3-5.6
Contents:
Capacitors; Series and Parallel Capacitors; Inductors; Series and Parallel Inductors. Applications: Integrator; Differentiator; Analog Computer
Pre-class activities:
Reading of Sections 6.1-6.5 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 6.1-6.12 [1]
Contents:
Phasors; Phasor Relationships for Circuit Elements; Impedance and Admittance; Kirchhoff’s Laws in the Frequency Domain; Impedance Combinations
Pre-class activities:
Reading of Sections 9.1-9.5; 9.7 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 9.1-9.11
Contents:
Instantaneous and Average Power; Maximum Average Power Transfer; Effective or RMS Value; Apparent Power and Power Factor; Complex Power
Pre-class activities:
Reading of Sections 11.1-11.6 [1]
Filling in a form with evaluation questions
Class activities:
Lecture and discussion
Post-class activities:
Solving of practical problems 11.1-11.4 [1]
Computing charge from current function using spreadsheet program (link)
Computing charge from current function using scientific program (link)
Plotting current function from charge function using spreadsheet (link)
Solving Cramer's rule using spreadsheet program (link)
Voltage division circuit using circuit simulator program (1a, 1b, 2)
Computing maximum power transfer using circuit simulator program (link)
University schedule 2022 (link)
Qucs: DC simulation associated to parametric analysis (yt)