Course Description
The Electric Circuits & Network Analysis course provides a comprehensive understanding of electrical systems and networks, from fundamental principles to advanced analysis techniques. Through a combination of theoretical foundations and practical applications, students will develop the skills needed to analyze, design, and troubleshoot complex electrical networks.
Curriculum Overview
- Ohm's Law and power calculations
- Kirchhoff's Voltage and Current Laws
- Series and parallel circuits
- Node voltage and mesh current methods
- Superposition theorem
- Thevenin's and Norton's theorems
- Maximum power transfer theorem
- Reciprocity theorem
- Millman's theorem
- Tellegen's theorem
- Phasor representation of AC quantities
- Complex impedance and admittance
- Power in AC circuits
- Resonance in RLC circuits
- Frequency response analysis
- Balanced three-phase systems
- Wye and delta connections
- Power in three-phase systems
- Unbalanced three-phase systems
- Three-phase power measurement
- Laplace transform applications
- Transfer functions
- Two-port network parameters
- Bode plots and filter design
- State variable analysis
Learning Outcomes
Analytical Skills
Develop the ability to analyze and solve complex electrical circuits using various techniques
Design Competence
Gain proficiency in designing electrical networks for specific applications
Problem Solving
Enhance troubleshooting and optimization skills for electrical systems
Practical Applications
Apply theoretical knowledge to real-world engineering challenges
Recommended Resources
Fundamentals of Electric Circuits
Comprehensive coverage of circuit analysis with practical examples and exercises.
View DetailsElectric Circuits
Classic text with systematic approach to circuit theory and applications.
View Details