Introduction
Electrical circuits are the backbone of the power and electronics industries. The Electrical Circuit Analysis course provides students with in-depth knowledge of network theorems, transient and steady-state responses, AC analysis, and two-port networks. These concepts are critical for designing and analyzing electrical systems in both academic and industrial settings.
Syllabus Overview
Unit 1: Network Theorems
- Topics Covered:
- Superposition theorem
- Thevenin and Norton theorems
- Maximum power transfer theorem
- Reciprocity and compensation theorems
- Node and mesh analysis
- Duality and dual networks
- Key Applications:
- Simplification and analysis of complex electrical circuits for practical applications.
- Hours: 10 | Weightage: 20%
Unit 2: Solution of First and Second Order Networks
- Topics Covered:
- Series and parallel R-L, R-C, and RLC circuits
- Initial and final conditions in network elements
- Forced and free response
- Time constants, steady-state, and transient responses
- Key Applications:
- Understanding transient and steady-state behaviors in power and electronic circuits.
- Hours: 8 | Weightage: 20%
Unit 3: Sinusoidal Steady-State Analysis
- Topics Covered:
- Sine function representation as a rotating phasor
- Phasor diagrams, impedances, and admittances
- AC circuit analysis
- RMS and average power, complex power
- Three-phase circuits and mutual coupled circuits
- Dot convention and ideal transformers
- Key Applications:
- AC power systems, transformer design, and reactive power management.
- Hours: 8 | Weightage: 20%
Unit 4: Electrical Circuit Analysis Using Laplace Transforms
- Topics Covered:
- Review of Laplace transforms and inverse Laplace transforms
- Analysis of electrical circuits for standard inputs
- Convolution integral
- Transformed networks with initial conditions
- Transfer functions, poles, zeros, and frequency response
- Series and parallel resonances
- Key Applications:
- Advanced circuit analysis for control systems and signal processing.
- Hours: 8 | Weightage: 20%
Unit 5: Two-Port Networks and Network Functions
- Topics Covered:
- Terminal pairs and relationships between two-port variables
- Impedance, admittance, transmission, and hybrid parameters
- Interconnection of two-port networks
- Key Applications:
- Design and analysis of communication networks and power transmission systems.
- Hours: 8 | Weightage: 20%