EE240 Circuits 1Fall 2020
Department of Electrical Engineering
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Assignment | Due Date | Solutions |
Assignment 01 | 05 Oct. | Solutions |
Assignment 02 | 31 Oct. | Solutions |
Assignment 03 | 28 Nov. | Solutions |
Assignment 04 | 07 Dec. | Solutions |
Assignment 05 | 13 Dec. | Solutions |
Quiz | Solutions |
Quiz 01 | Solutions |
Quiz 02 | Solutions |
Quiz 03 | Solutions |
Quiz 04 | Solutions |
Quiz 05 | Solutions |
Week 01 (Notes)
Course Introduction
Fundamental concepts: Chrage, Current, Voltage, Power, Energy, Passive Sign Convention
Review of fundamental concepts
V,I ideal sources
Passive Elements: Resistor, IV characteristics
Week 02 (Notes)
Passive Elements: Capacitor, capacitance, IV characteristics, Examples
Passive Elements: Inductor, induactance
R,L,C summary
Series, parallel connection
Week 04 (Notes)
Series, parallel connection of sources
Practical models of R,L,C
V,I practical sources
Controlled Sources
Mutual Inductance
Dot Convention
Graphical Representation
Week 05, 06 (Notes)
Circuit Analysis Overview
Kirchhof's Current Law (KCL) for Nodal Analysis
Kirchhof's Voltage Law (KVL) fo Loop Analysis
Network Equations for mutually coupled circuits
Matrix Formulation
Examples
Week 07 (Notes)
Equivalent Networks Concept
Source Transformation
Moving Sources
Superposition Principle
Week 08
Week 09 (Notes)
Thevenin's Theorem
Norton's Theorem
Examples
Maximum Power Transfer Theorem
Week 10 (Notes)
First Order Circuits
Solution of first order differential equation
Series RC Circuit
Series RL circuit
Solving First Order Complicated Circuit with DC sources
Problems on First Order Circuits
Week 11 (Problems on Initial Conditions)
Initial Conditions
Problems on Initial Conditions (Chapter 5)
Week 12, 13 (Notes and Problems)
Second Order Circuits - Solution of Homogeneous Differential Equation
Solution of Homogeneous 2nd order Differential Equation - Standard form formulation
Series, Parallel RLC Circuit
Higher order differential equations, time varying forcing function