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XuetangX

Fundamentals of Circuit Analysis

North China Electric Power University via XuetangX

Overview

This course mainly introduces the basic concepts, laws and analytical calculation methods of circuits. It is a bridge to subsequent professional courses. The theory is rigorous and logical, having a broad engineering application. It can cultivate students' abstract thinking skills and improve their analysis and problem-solving capabilities.


Syllabus

  • Chapter1 Basic Laws and Constraints of Circuits
    • 001 Introduction
    • 002 Real Circuit and Circuit Model
    • 003 Basic Physical Quantities of Circuits
    • 004 Reference Direction
    • 005 Kirchhoff’s Current Law
    • 006 Kirchhoff’s Voltage Law
    • 007 Linear Resistor
    • 008 Capacitor
    • 009 Inductor
    • 010 Independent Voltage Source
    • 011 Independent Current Source
    • 012 Controlled Source
    • 013 Single-loop Circuit and Two-node Circuit
    • 014 Application of Two Types of Constraints
  • Chapter2 Equivalent Analysis of Linear Resistive Circuits
    • 015 Two-terminal Circuits and Equivalent Two-terminal Circuits
    • 016 Series and Parallel Equivalent of Similar Somponents
    • 017 Equivalent Transformation of Real Power Supply Model
    • 018 Equivalent Transformation of the Controlled Source
    • 019 Wye-Delta Transformations
    • 020 Input Resistance of Circuit with Controlled Source
  • Chapter3 Equational Analysis Methods of Linear Resistive Circuits
    • 021 Branch Analysis
    • 022 Node Voltage Method(1)
    • 023 Node Voltage Method(2)
    • 024 Nodal Analysis of Circuit with Controlled Source
    • 025 Mesh Current Method(1)
    • 026 Mesh Current Method(2)
    • 027 Mesh Analysis of Circuit with Controlled Source
  • Chapter4 Circuit Theorems
    • 028 Superposition Theorem(1)
    • 029 Superposition Theorem(2)
    • 030 Superposition Theorem applied to the Circuit with Controlled Source
    • 031 Thevenin’s Theorem(1)
    • 032 Thevenin’s Theorem(2)
    • 033 Thevenin's Theorem of Circuit with Controlled Source
    • 034 Norton’s Theorem
    • 035 Maximum Power Transfer Theorem
  • Chapter5 Simple Nonlinear Resistance Circuits
    • 036 Nonlinear Resistor
    • 037 Difference Between Nonlinear Resistors and Linear Resistors
    • 038 Determination of DC Operating Point of Nonlinear Resistance Circuits
    • 039 Small-Signal Analysis
  • Chapter6 Fundamentals of Phasor Method of Sinusoidal Steady-state Circuits
    • 040 The Current War
    • 041 Three Elements of Sinusoidal Quantity
    • 042 Phasor
    • 043 Calculation of Phasors
    • 044 Properties of the Phasor
    • 045 Phasor Form of KCL and KVL
    • 046 Phasor Form of Component VAR
    • 047 Phasor Model of Circuit
    • 048 Impedance and Admittance(1)
    • 049 Impedance and Admittance(2)
  • Chapter7 Steady-state Analysis of Periodic Signal Circuits
    • 050 Phasor Method to Solve Sinusoidal Steady-state Circuit
    • 051 Phasor Diagram Method to Solve Sinusoidal Steady-state Circuit
    • 052 Active Power of Sinusoidal Steady-state Circuit
    • 053 Reactive Power of Sinusoidal Steady-state Circuit
    • 054 Apparent Power and Power Factor of Sinusoidal Steady-state Circuit
    • 055 Complex Power of Sinusoidal Steady-state Circuit
    • 056 Theorem of Maximum Power Transmission in Sinusoidal Steady State
    • 057 Balanced Three-Phase Voltage
    • 058 Three-Phase Circuits
    • 059 Balanced Three-Phase Circuits
    • 060 Single-Phase Equivalent Circuit
    • 061 Three-Phase Power
    • 062 Unbalanced Three-Phase Circuits
    • 063 Non-sinusoidal Periodic Signal and its RMS Value
    • 064 Average Power of Non-sinusoidal Periodic Signal Circuits
    • 065 Harmonic Analysis
  • Chapter8 Frequency Characteristics and Resonance under Sinusoidal Steady-state
    • 066 Series Resonance(1)
    • 067 Series Resonance(2)
    • 068 Parallel Resonance
    • 069 Method of Calculating Resonant Frequency
  • Chapter9 Coupling Inductance and Transformer
    • 070 Coupling Inductance and its Equations
    • 071 Dotted Terminals
    • 072 Decoupling Equivalent Circuit of Three-terminal Coupling Inductance
    • 073 Decoupling Equivalent Circuit of Two-terminal Coupling Inductance
    • 074 Decoupling Analysis of the Circuit with Coupling Inductance
    • 075 Loop Analysis of the Circuit with Coupling Inductance
    • 076 Method of Reflected Impedance
    • 077 Ideal Transformer
  • Chapter10 Two-Port Networks
    • 078 Concepts of Two-Port Network
    • 079 Z Parameters of Two-Port Network
    • 080 Y Parameters of Two-Port Network
    • 081 T Parameters of Two-Port Network
    • 082 H Paremeters of Two-Port Network
    • 083 Interconnection of Two-Port Networks
    • 084 Equivalent Circuit of the Two-Port Network
    • 085 Port Analysis
  • Chapter11 Time Domain Analysis of Linear Dynamic Circuits
    • 086 Transition Process of Linear Dynamic Circuits
    • 087 Input-Output Equation for the First-order Linear Dynamic Circuit
    • 088 Solution to the Time Constant
    • 089 Input-Output Equation for the Second-order Linear Dynamic Circuit
    • 090 Initial Value(1)
    • 091 Initial Value(2)
    • 092 Classical Solution of First-Order Linear Circuits
    • 093 Three-Key Principle of First-Order Circuit
    • 094 Zero-State Responce and Zero-Input Responce
    • 095 Step Function
    • 096 Impulse Function
    • 097 Unit Step Response
    • 098 Impulse Response
    • 099 Zero-Input Responce for Second-Order Circuit(1)
    • 100 Zero-Input Responce for Second-Order Circuit(2)
  • Final Exam

    Taught by

    Ge Yumin , Ran Huijuan, Guo Haichao, Wu Yan, and Sun Shuting

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