NETWORK THEORY (Hindi)

   Thursday, September 17, 2020   

Starting a new Lecture Notes Series on NETWORK THEORY

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Lecture Description of this above Topic:

Lecture 1: Introduction of Network Theory

Lecture 2: Basic Concept of Network Theory

Lecture 3: Basic concept of Charges and Current

Lecture 4: Basic Concept of Electromotive Force (e.m.f) Energy and Power

Lecture 5: Ohm's Law and Resistance || Part 01

Lecture 6: Ohm's Law and Resistance || Part 02

Lecture 7: Basic concept of Inductor and Inductance

Lecture 8: Basic concept of Inductor and InductanceBasic Concept of Capacitor and Capacitance

Lecture 9: Type of Elements in Network theory

Lecture 10: Dependent and Independent sources

Lecture 11: Introduction of Kirchhoff's Current Law (KCL)

Lecture 12: Important Question Discussion on KCL || Part 01

Lecture 13: Important Question Discussion on KCL || Part 02

Lecture 14: Kirchhoff's Voltage Law (KVL) and Question Discussion on KVL || Part 01

Lecture 15: Important GATE Questions on KVL || Part 02

Lecture 16: Question Discussion On KVL || KCL || Ohm's Law Part 1

Lecture 17: Question Discussion On KVL || KCL || Ohm's Law Part 2

Lecture 18: Some Important Rule For Solving Equivalent Circuit

Lecture 19: GATE Questions on Equivalent Circuit w.r.t Source

Lecture 20: Equivalent Resistance Problem

Lecture 21: Equivalent Resistance of Infinite ladder

Lecture 22: Equivalent Resistance of Cube

Lecture 23: Equivalent Capacitance Problem

Lecture 24: Star and Delta Method for Finding Equivalent Resistance

Lecture 25: Star Delta Conversion || GATE Question Discussion

Lecture 26: Current Division Rule in Electrical Circuit

Lecture 27: Voltage Division Rule in Electrical Circuit

Lecture 28: Basic Nodal Analysis technique

Lecture 29: Question discussion on nodal analysis

Lecture 30: Question discussion on nodal analysis Part 02

Lecture 31: Concept of Mesh Analysis

Lecture 32: Question discussion on mesh analysis

Lecture 33: Comparative analysis of ohm's law, kvl-kcl and nodal and mesh

Lecture 34: Source Transformation technique

Lecture 35: Power and Energy calculation with question discussion

Lecture 36: Incandescent Bulb problems

Lecture 37: Singularity Function

Lecture 38: Introduction of AC circuit analysis

Lecture 39: Lagging and leading concept in AC circuit

Lecture 40: Sinusoid and basic Trigonometric function

Lecture 41: Mean or Average value of AC

Lecture 42: What is RMS value | Easiest Explanation

Lecture 43: Phasor and phasor diagram

Lecture 44: Phasor analysis of R and L circuit

Lecture 45: Phasor analysis of C circuit

Lecture 46: Phasor analysis of series R-L circuit

Lecture 47: Phasor analysis of RC and RLC circuit

Lecture 48: Phasor analysis of parallel R-L/R-C/R-L-C circuit

Lecture 49: GATE questions | AC ANALYSIS part 01

Lecture 50: Mirror Discussion | Competition | Practice strategy | Accuracy | Time Management

Lecture 51: Concept of Power and Power factor in AC Analysis

Lecture 52: GATE ||Question discussion || AC analysis Part 02

Lecture 53: Introduction of RESONANCE

Lecture 54: Relation between QUALITY FACTOR, BANDWIDTH and RESONANT FREQUENCY || SERIES RESONANCE

Lecture 55: Relationships between damping factor and Quality factor || SERIES RESONANCE

Lecture 56: Introduction to Network theorems | Superposition theorem

Lecture 57: Superposition theorem | Question discussion

Lecture 58: Exceptions in super position theorem

Lecture 59: Introduction || Thevenin's theorem || Norton's theorem

Lecture 60: Thevenin's & Norton's theorem

Lecture 61: GATE QUESTION || Thevenin's & Norton's theorem

Lecture 62: Introduction || MAXIMUM POWER TRANSFER THEOREM

Lecture 63: GATE QUESTION || MAXIMUM POWER TRANSFER THEOREM

Lecture 64: RECIPROCITY THEOREM

Lecture 65: MILLMAN'S THEOREM

Lecture 66: TELLEGEN'S THEOREM || COMPENSATION THEOREM

Lecture 67: Introduction of Transient

Lecture 68: Behavior of R L C at t=0+ || concept of 0- | 0 | 0+ in Transient analysis

Lecture 69: Behavior of R L C at t=infinity || Concept of Time Constant

Lecture 70: Transient Analysis Summary and Question Discussion

Lecture 71: Question discussion on Transient

Lecture 72: Concept of Transient Analysis

Lecture 73: Important GATE Question || Transient Analysis

Lecture 74: Laplace Transform in Transient Analysis

Lecture 75: Introduction of Two Port Network

Lecture 76: Impedance Parameter || Z parameter || Two Port Network

Lecture 77: GATE Question Discussion || Z Parameter || Impedance Parameter

Lecture 78: Y Parameter || Admittance Parameter || Two Port Network

Lecture 79: ABCD or Transmission Parameter || Two Port Network

Lecture 80: Hybrid Parameter || H Parameter || Two Port Network

Lecture 81: nverse H or G Parameter and Relationship among Two Port Parameters

Lecture 82: Interconnection of Two Port Network

Lecture 83: Important GATE Question || Two Port Network || Network Theory

Lecture 84: Magnetic Coupled Circuit

Lecture 85: DOT Convention || Magnetic Coupled Circuit

Lecture 86: Linear Transformer with Dot Polarity || Magnetic Coupled Circuit

Lecture 87: Ideal Transformer with Dot Convention || Magnetic Coupled Circuit

Lecture 88: Important GATE QUESTION || Transformer with Dot

Lecture 89: Concept of Duality

Lecture 90: Introduction of Single Phase || Two Phase || Three Phase System

Lecture 91: Generation of Three Phase AC || Three Phase AC System

Lecture 92: Star Delta Connections || Three Phase System

Lecture 93: Introduction of Low Pass Filter and High Pass Filter

Lecture 94: Introduction to Graph Theory

Lecture 95: Introduction of Locus Diagram