Network analysis is a structured technique used to mathematically analyze a circuit. Most electrical networks are very complex. To analyze them, circuit theorems, techniques and laws are really important. Superposition Theorem, Thevenin Theorem, Norton Theorem, Maximum Power Transfer Theorem, Substitution Theorem, Millman Theorem and Reciprocity Theorem are the fundamental laws used for network analysis. All these circuit theorems help us to find the basic electrical parameters like voltage and current in a simpler way. 
This course is designed to help students to understand the fundamentals of network analysis including three phase systems, reactive power compensation and filters.
After completing this course, students will have fundamental knowledge on the network techniques, like node analysis and loop analysis, to write equations for large linear circuits.

WHO SHOULD COMPLETE THIS COURSE

• Electrical engineers
• Electrical supervisors
• Maintenance technicians
• Managers in-charge of electrical installations
• Project engineers

COURSE OUTLINE
OHM'S LAW

• Relation between Voltage, current and resistance
• Ohm's law problem and solutions

CIRCUITS

• Voltage and current
• Resistors in series and parallel

KIRCHHOFF'S LAW

• Current (1st Law)
• Voltage (2nd Law)

NETWORK ANALYSIS

• Thevenin's theorem
• Norton's theorem
• Superposition principal

WHEATSTONE BRIDGE

• Introduction
• Problem and solution

INDUCTORS, CAPACITORS AND VECTORS

• Inductors in series and parallel
• Capacitor types
• Capacitor in series and parallel
• Vectors in electrical networks
• Problems

PHASE RELATIONSHIP BETWEEN CURRENTS AND VOLTAGES IN CAPACITORS AND INDUCTORS

• Voltage current relationship
• Resistive vs. reactive current
• Inductive circuit and reactance
• Resistive circuit and reactance
• Capacitive circuit and reactance

STEP RESPONSE OF RL AND RC CIRCUIT

• Step response of RL circuit
• Step response of RC circuit
• Problem and solution

REAL NUMBERS AND IMAGINARY NUMBERS

• Real number
• Imaginary number
• Complex number
• Argand diagram
• Sum and subtraction of complex numbers
• Multiplication and division of complex numbers

CALCULATION OF RMS AND PEAK VALUES OF VOLTAGE AND CURRENT

• Peak values of voltage and current
• RMS value
• RMS value of voltage and current

CALCULATION OF INDUCTIVE AND CAPACITIVE REACTANCE

• Inductive reactance
• Capacitive reactance
• Impedance of series and parallel circuit

SINGLE AND THREE PHASE POWER

• Single phase supply
• Three phase supply

ELECTRIC POWER AND AVERAGE POWER CONSUMPTION

• Electric Power
• AC Power
• Average values
• Apparent power
• Real or true Power
• Imaginary power

POWER FACTOR AND ITS IMPLICATIONS

• Power triangle 
• Power factor
• Problems and solution
• Drawbacks of poor power factor

REACTIVE POWER COMPENSATION

• Benefits of power factor improvement
• Total power for three phase system
• Problems and solutions

THREE PHASE SYSTEM CONNECTION

• 3 phase circuit relationships
• Three phase system loads
• Power calculation

NOISE IN CIRCUITS

• Noise
• Noise – Common mode
• Noise – Transverse mode
• Transverse noise

FILTER

• Introduction
• Signal attenuation
• Low pass filter
• High pass filter
• Band pass filter
• Band stop filter

ORDER OF FILTER

• Bode plot
• Simple 1st order high pass filter
• 2nd order high pass filter

TWO PORT NETWORKS

• T network
• Balanced T network
• Pi network
• Balanced pi network

HI-PASS FILTER CHARACTERTIC

• Cutoff frequency
• Calculation example
• Network impedance
• High pass symmetrical filter

FILTER DESIGN

• Series Resonance
• Active filter
• Passive filter
• Shunt filter
• Series filter