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Course Unit Title Course Unit Code Type of Course Unit Level of Course Unit Year of Study Semester ECTS Credits
Circuit Analysis MEL202 Compulsory Bachelor's degree 2 Spring 5

Name of Lecturer(s)

Prof. Dr. Nurettin ABUT
Prof. Dr. Ayşen BASA ARSOY
Prof. Dr. Ali Bekir YILDIZ

Learning Outcomes of the Course Unit

1) Solving resistive circuits by graph theory
2) Obtaining the state equations
3) Doing transient-state solutions of dynamic circuits in time domain
4) Applying Laplace transformations into circuit analysis
5) Obtaining network functions
6) Defining fundemantal concepts relating to Graph theory

Program Competencies-Learning Outcomes Relation

  Program Competencies
1 2 3 4 5 6 7 8 9 10
Learning Outcomes
1 Middle Low Middle No relation No relation No relation Low No relation No relation Low
2 Low Low High No relation Low No relation Low Low Low No relation
3 Middle Middle High No relation No relation No relation Middle No relation No relation Low
4 Middle Middle High No relation Low No relation Low No relation No relation Low
5 Low Low High No relation Low No relation No relation Low No relation Low
6 High Middle Low No relation No relation No relation No relation No relation No relation No relation

Mode of Delivery

Face to Face

Prerequisites and Co-Requisites

None

Recommended Optional Programme Components

Electric Circuits I, Electric Circuits II

Course Contents

This lesson covers Graph theory, General definitions, Voltage and current Laws. Mathematical models for elementary circuit components. Solutions of resistive circuits using graph theory. Chord currents method and Branch voltages method. Solutions of dynamical circuits using graph theory. State variables method. Obtaining the state-model. Time-domain solutions of state equations. State transition matrix in analysis of high-order circuits. Analysis of switching circuits in time-domain. Circuit analysis in s (Laplace) domain. Circuit elements, circuit theorems and state equations in s domain. Network functions, transfer functions and driving point functions, Fourier series and circuit analysis applications

Weekly Schedule

1) Graph theory, General definitions, graph matrices and basic transforms, Voltage and current Laws
2) Mathematical models for circuit elements
3) Solutions of resistive circuits using graph theory. Chord currents method
4) Solutions of resistive circuits using graph theory, Branch voltages method.
5) Solutions of dynamical circuits using graph theory
6) State variables method. Obtaining the state-model
7) State variables method. Obtaining the state-model
8) Midterm examination/Assessment
9) Time-domain solutions of state equations
10) State transition matrix in analysis of high-order circuits
11) Analysis of switching circuits in time-domain
12) Circuit analysis in s (Laplace) domain
13) Circuit elements, circuit theorems and state equations in s domain.
14) Network functions, transfer functions and driving point functions.
15) Fourier series and circuit Applications, 2-port circuit parameters
16) Final examination

Recommended or Required Reading

1- Y. TOKAD, Devre Analizi Dersleri Kısım I, Çağlayan Kitapevi, 1992
2- C. ACAR, Elektrik Devrelerinin Analizi, İTÜ Elektrik-Elekronik Fak., 1995
3- A. KASAPOĞLU, Devre Analizi, Yıldız Tek. Ünv. Müh. Fak., 1994
4- R.E. THOMAS and A.J. ROSA, The Analysis and Design of Linear Circuits, John& Willey Sons, inc. 2006
5- C.K. ALEXANDER and M.N. SADIKU, Fundamentals of Electric Circuits, McGraw Hill, 2007
6- J.W. NILSSON and S.A. RIEDEL, Electric Circuits, Prentice Hall, 2006

Planned Learning Activities and Teaching Methods

1) Lecture
2) Drill and Practice
3) Simulation
4) Lab / Workshop
5) Project Based Learning


Assessment Methods and Criteria

Contribution of Midterm Examination to Course Grade

50%

Contribution of Final Examination to Course Grade

50%

Total

100%

Language of Instruction

Turkish

Work Placement(s)

Not Required