1. Fundamentals of Electrical Components and Circuits
1. Fundamentals of Electrical Components and Circuits
1.1 Basic Concepts
Ohm’s Law
Electric voltage, current, power and energy
Conducting and insulating materials
Series and parallel electric circuits
Star-delta and delta-star conversion
Kirchhoff’s laws
Linear and non-linear circuits
Bilateral and unilateral circuits
Active and passive circuits
1.2 Network Theorems
Superposition Theorem
Thevenin’s Theorem
Norton’s Theorem
Maximum Power Transfer Theorem
Analysis of R-L, R-C, and R-L-C circuits
Resonance in AC series and parallel circuits
Active and reactive power
1.3 Alternating Current Fundamentals
Generation of alternating voltages and currents
AC equations and waveforms
Average, peak, and RMS values
Three-phase systems
1.4 Electric Circuit Response (Transient Analysis)
Steady-state analysis of R-L, R-C, and R-L-C circuits
Transient analysis of R-L, R-C, and R-L-C circuits
1.5 Analysis of One-Port and Two-Port Networks
Transfer functions, poles and zeros, and their relationship to system response
One-port passive circuits: impedance and admittance functions
Two-port parameters:
Short-circuit admittance parameters
Open-circuit impedance parameters
Transmission parameters
Hybrid parameters
Inter-relationships between two-port parameters
Series, parallel, and cascade networks
1.6 Synthesis of One-Port and Two-Port Networks
Hurwitz polynomials and positive real functions
Foster and Cauer canonical forms
Synthesis of RL, RC, and LC networks
Resistively terminated active and passive two-port networks
Ladder networks
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