| Module Name | Download |
|---|---|
| noc18_ee18_Assignment1 | noc18_ee18_Assignment1 |
| noc18_ee18_Assignment2 | noc18_ee18_Assignment2 |
| noc18_ee18_Assignment3 | noc18_ee18_Assignment3 |
| noc18_ee18_Assignment4 | noc18_ee18_Assignment4 |
| noc18_ee18_Assignment5 | noc18_ee18_Assignment5 |
| noc18_ee18_Assignment6 | noc18_ee18_Assignment6 |
| noc18_ee18_Assignment7 | noc18_ee18_Assignment7 |
| noc18_ee18_Assignment8 | noc18_ee18_Assignment8 |
| noc18_ee18_Assignment9 | noc18_ee18_Assignment9 |
| Sl.No | Chapter Name | MP4 Download |
|---|---|---|
| 1 | Preliminaries | Download |
| 2 | Current | Download |
| 3 | Voltage | Download |
| 4 | Electrical elements and circuits | Download |
| 5 | Kirchhoff's current law(KCL) | Download |
| 6 | Kirchhoff's voltage law(KVL) | Download |
| 7 | Voltage source | Download |
| 8 | Current source | Download |
| 9 | Resistor | Download |
| 10 | Capacitor | Download |
| 11 | Inductor | Download |
| 12 | Mutual inductor | Download |
| 13 | Linearity of elements | Download |
| 14 | Series connection-Voltage sources in series | Download |
| 15 | Series connection of R, L, C, current source | Download |
| 16 | Elements in parallel | Download |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download |
| 18 | Extreme cases: Open and short circuits | Download |
| 19 | Summary | Download |
| 20 | Voltage controlled voltage source(VCVS) | Download |
| 21 | Voltage controlled current source(VCCS) | Download |
| 22 | Current controlled voltage source(CCVS) | Download |
| 23 | Current controlled current source(CCCS) | Download |
| 24 | Scaling an element's value using controlled sources | Download |
| 25 | Example calculation | Download |
| 26 | Power and energy absorbed by electrical elements | Download |
| 27 | Power and energy in a resistor | Download |
| 28 | Power and energy in a capacitor | Download |
| 29 | Power and energy in an inductor | Download |
| 30 | Power and energy in a voltage source | Download |
| 31 | Power and energy in a current source | Download |
| 32 | Goals of circuit analysis | Download |
| 33 | Number of independent KCL equations | Download |
| 34 | Number of independent KVL equations and branch relationships | Download |
| 35 | Analysis of circuits with a single independent source | Download |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download |
| 37 | Superposition: Example | Download |
| 38 | What is nodal analysis | Download |
| 39 | Setting up nodal analysis equations | Download |
| 40 | Structure of the conductance matrix | Download |
| 41 | How elements appear in the nodal analysis formulation | Download |
| 42 | Completely solving the circuit starting from nodal analysis | Download |
| 43 | Nodal analysis example | Download |
| 44 | Matrix inversion basics | Download |
| 45 | Nodal analysis with independent voltage sources | Download |
| 46 | Supernode for nodal analysis with independent voltage sources | Download |
| 47 | Nodal analysis with VCCS | Download |
| 48 | Nodal analysis with VCVS | Download |
| 49 | Nodal analysis with CCVS | Download |
| 50 | Nodal analysis with CCCS | Download |
| 51 | Planar circuits | Download |
| 52 | Mesh currents and their relationship to branch currents | Download |
| 53 | Mesh analysis | Download |
| 54 | Mesh analysis with independent current sources-Supermesh | Download |
| 55 | Mesh analysis with current controlled voltage sources | Download |
| 56 | Mesh analysis with current controlled current sources | Download |
| 57 | Mesh analysis using voltage controlled sources | Download |
| 58 | Nodal analysis versus Mesh analysis | Download |
| 59 | Superposition theorem | Download |
| 60 | Pushing a voltage source through a node | Download |
| 61 | Splitting a current source | Download |
| 62 | Substitution theorem: Current source | Download |
| 63 | Substitution theorem: Voltage source | Download |
| 64 | Substituting a voltage or current source with a resistor | Download |
| 65 | Extensions to Superposition and Substitution theorem | Download |
| 66 | Thevenin's theorem | Download |
| 67 | Worked out example: Thevenin's theorem | Download |
| 68 | Norton's theorem | Download |
| 69 | Worked out example: Norton's theorem | Download |
| 70 | Maximum power transfer theorem | Download |
| 71 | Preliminaries | Download |
| 72 | Two port parameters | Download |
| 73 | y parameters | Download |
| 74 | y parameters: Examples | Download |
| 75 | z parameters | Download |
| 76 | z parameters: Examples | Download |
| 77 | h parameters | Download |
| 78 | h parameters: Examples | Download |
| 79 | g parameters | Download |
| 80 | g parameters: Examples | Download |
| 81 | Calculations with a two-port element | Download |
| 82 | Calculations with a two-port element | Download |
| 83 | Degenerate cases | Download |
| 84 | Relationships between different two-port parameters | Download |
| 85 | Equivalent circuit representation for two ports | Download |
| 86 | Reciprocity | Download |
| 87 | Proof of reciprocity of resistive two-ports | Download |
| 88 | Proof for 4-terminal two-ports | Download |
| 89 | Reciprocity in terms of different two-port parameters | Download |
| 90 | Reciprocity in circuits containing controlled sources | Download |
| 91 | Examples | Download |
| 92 | Feedback amplifier using an opamp | Download |
| 93 | Ideal opamp | Download |
| 94 | Negative feedback around the opamp | Download |
| 95 | Finding opamp signs for negative feedback | Download |
| 96 | Example: Determining opamp sign for negative feedback | Download |
| 97 | Analysis of circuits with opamps | Download |
| 98 | Inverting amplifier | Download |
| 99 | Summing amplifier | Download |
| 100 | Instrumentation amplifier | Download |
| 101 | Negative resistance and Miller effect | Download |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download |
| 103 | Opamp supply voltages and saturation | Download |
| 104 | KCL with an opamp and supply currents | Download |
| 105 | Circuits with storage elements(capacitors and inductors) | Download |
| 106 | First order circuit with zero input-natural response | Download |
| 107 | First order RC circuit with zero input-Example | Download |
| 108 | First order circuit with a constant input | Download |
| 109 | General form of the first order circuit response | Download |
| 110 | First order RC circuit with a constant input-Example | Download |
| 111 | First order circuit with piecewise constant input | Download |
| 112 | First order circuit with piecewise constant input-Example | Download |
| 113 | First order circuit-Response of arbitrary circuit variables | Download |
| 114 | Summary: Computing first order circuit response | Download |
| 115 | Does a capacitor block DC? | Download |
| 116 | Finding the order of a circuit | Download |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download |
| 118 | Summary: Computing first order circuit response with discontinuities | Download |
| 119 | First order RL circuits | Download |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download |
| 121 | First order RC circuit with an exponential input | Download |
| 122 | First order RC response to its own natural response | Download |
| 123 | First order RC response to a sinusoidal input | Download |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download |
| 126 | Three methods of calculating the sinusoidal steady state response | Download |
| 127 | Calculating the total response including initial conditions | Download |
| 128 | Why are sinusoids used in measurement? | Download |
| 129 | Second order system natural response | Download |
| 130 | Second order system as a cascade of two first order systems | Download |
| 131 | Second order system natural response-critically damped and underdamped | Download |
| 132 | Generalized form of a second order system | Download |
| 133 | Numerical example | Download |
| 134 | Series and parallel RLC circuits | Download |
| 135 | Forced response of a second order system | Download |
| 136 | Steady state response calculation and Phasors | Download |
| 137 | Phasors cont'd | Download |
| 138 | Magnitude and Phase plots | Download |
| 139 | Magnitude and phase plotes of a second order system | Download |
| 140 | Maximum power transfer and Conjugate matching | Download |
| Sl.No | Chapter Name | English |
|---|---|---|
| 1 | Preliminaries | Download Verified |
| 2 | Current | Download Verified |
| 3 | Voltage | Download Verified |
| 4 | Electrical elements and circuits | Download Verified |
| 5 | Kirchhoff's current law(KCL) | Download Verified |
| 6 | Kirchhoff's voltage law(KVL) | Download Verified |
| 7 | Voltage source | Download Verified |
| 8 | Current source | Download Verified |
| 9 | Resistor | Download Verified |
| 10 | Capacitor | Download Verified |
| 11 | Inductor | Download Verified |
| 12 | Mutual inductor | Download Verified |
| 13 | Linearity of elements | Download Verified |
| 14 | Series connection-Voltage sources in series | Download Verified |
| 15 | Series connection of R, L, C, current source | Download Verified |
| 16 | Elements in parallel | Download Verified |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download Verified |
| 18 | Extreme cases: Open and short circuits | Download Verified |
| 19 | Summary | Download Verified |
| 20 | Voltage controlled voltage source(VCVS) | Download Verified |
| 21 | Voltage controlled current source(VCCS) | Download Verified |
| 22 | Current controlled voltage source(CCVS) | Download Verified |
| 23 | Current controlled current source(CCCS) | Download Verified |
| 24 | Scaling an element's value using controlled sources | Download Verified |
| 25 | Example calculation | Download Verified |
| 26 | Power and energy absorbed by electrical elements | Download Verified |
| 27 | Power and energy in a resistor | Download Verified |
| 28 | Power and energy in a capacitor | Download Verified |
| 29 | Power and energy in an inductor | Download Verified |
| 30 | Power and energy in a voltage source | Download Verified |
| 31 | Power and energy in a current source | Download Verified |
| 32 | Goals of circuit analysis | Download Verified |
| 33 | Number of independent KCL equations | Download Verified |
| 34 | Number of independent KVL equations and branch relationships | Download Verified |
| 35 | Analysis of circuits with a single independent source | Download Verified |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download Verified |
| 37 | Superposition: Example | Download Verified |
| 38 | What is nodal analysis | Download Verified |
| 39 | Setting up nodal analysis equations | Download Verified |
| 40 | Structure of the conductance matrix | Download Verified |
| 41 | How elements appear in the nodal analysis formulation | Download Verified |
| 42 | Completely solving the circuit starting from nodal analysis | Download Verified |
| 43 | Nodal analysis example | Download Verified |
| 44 | Matrix inversion basics | Download Verified |
| 45 | Nodal analysis with independent voltage sources | Download Verified |
| 46 | Supernode for nodal analysis with independent voltage sources | Download Verified |
| 47 | Nodal analysis with VCCS | Download Verified |
| 48 | Nodal analysis with VCVS | Download Verified |
| 49 | Nodal analysis with CCVS | Download Verified |
| 50 | Nodal analysis with CCCS | Download Verified |
| 51 | Planar circuits | Download Verified |
| 52 | Mesh currents and their relationship to branch currents | Download Verified |
| 53 | Mesh analysis | Download Verified |
| 54 | Mesh analysis with independent current sources-Supermesh | Download Verified |
| 55 | Mesh analysis with current controlled voltage sources | Download Verified |
| 56 | Mesh analysis with current controlled current sources | Download Verified |
| 57 | Mesh analysis using voltage controlled sources | Download Verified |
| 58 | Nodal analysis versus Mesh analysis | Download Verified |
| 59 | Superposition theorem | Download Verified |
| 60 | Pushing a voltage source through a node | Download Verified |
| 61 | Splitting a current source | Download Verified |
| 62 | Substitution theorem: Current source | Download Verified |
| 63 | Substitution theorem: Voltage source | Download Verified |
| 64 | Substituting a voltage or current source with a resistor | Download Verified |
| 65 | Extensions to Superposition and Substitution theorem | Download Verified |
| 66 | Thevenin's theorem | Download Verified |
| 67 | Worked out example: Thevenin's theorem | Download Verified |
| 68 | Norton's theorem | Download Verified |
| 69 | Worked out example: Norton's theorem | Download Verified |
| 70 | Maximum power transfer theorem | Download Verified |
| 71 | Preliminaries | Download Verified |
| 72 | Two port parameters | Download Verified |
| 73 | y parameters | Download Verified |
| 74 | y parameters: Examples | Download Verified |
| 75 | z parameters | Download Verified |
| 76 | z parameters: Examples | Download Verified |
| 77 | h parameters | Download Verified |
| 78 | h parameters: Examples | Download Verified |
| 79 | g parameters | Download Verified |
| 80 | g parameters: Examples | Download Verified |
| 81 | Calculations with a two-port element | Download Verified |
| 82 | Calculations with a two-port element | Download Verified |
| 83 | Degenerate cases | Download Verified |
| 84 | Relationships between different two-port parameters | Download Verified |
| 85 | Equivalent circuit representation for two ports | Download Verified |
| 86 | Reciprocity | Download Verified |
| 87 | Proof of reciprocity of resistive two-ports | Download Verified |
| 88 | Proof for 4-terminal two-ports | Download Verified |
| 89 | Reciprocity in terms of different two-port parameters | Download Verified |
| 90 | Reciprocity in circuits containing controlled sources | Download Verified |
| 91 | Examples | Download Verified |
| 92 | Feedback amplifier using an opamp | Download Verified |
| 93 | Ideal opamp | Download Verified |
| 94 | Negative feedback around the opamp | Download Verified |
| 95 | Finding opamp signs for negative feedback | Download Verified |
| 96 | Example: Determining opamp sign for negative feedback | Download Verified |
| 97 | Analysis of circuits with opamps | Download Verified |
| 98 | Inverting amplifier | Download Verified |
| 99 | Summing amplifier | Download Verified |
| 100 | Instrumentation amplifier | Download Verified |
| 101 | Negative resistance and Miller effect | Download Verified |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download Verified |
| 103 | Opamp supply voltages and saturation | Download Verified |
| 104 | KCL with an opamp and supply currents | Download Verified |
| 105 | Circuits with storage elements(capacitors and inductors) | Download Verified |
| 106 | First order circuit with zero input-natural response | Download Verified |
| 107 | First order RC circuit with zero input-Example | Download Verified |
| 108 | First order circuit with a constant input | Download Verified |
| 109 | General form of the first order circuit response | Download Verified |
| 110 | First order RC circuit with a constant input-Example | Download Verified |
| 111 | First order circuit with piecewise constant input | Download Verified |
| 112 | First order circuit with piecewise constant input-Example | Download Verified |
| 113 | First order circuit-Response of arbitrary circuit variables | Download Verified |
| 114 | Summary: Computing first order circuit response | Download Verified |
| 115 | Does a capacitor block DC? | Download Verified |
| 116 | Finding the order of a circuit | Download Verified |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download Verified |
| 118 | Summary: Computing first order circuit response with discontinuities | Download Verified |
| 119 | First order RL circuits | Download Verified |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download Verified |
| 121 | First order RC circuit with an exponential input | Download Verified |
| 122 | First order RC response to its own natural response | Download Verified |
| 123 | First order RC response to a sinusoidal input | Download Verified |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download Verified |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download Verified |
| 126 | Three methods of calculating the sinusoidal steady state response | Download Verified |
| 127 | Calculating the total response including initial conditions | Download Verified |
| 128 | Why are sinusoids used in measurement? | Download Verified |
| 129 | Second order system natural response | Download Verified |
| 130 | Second order system as a cascade of two first order systems | Download Verified |
| 131 | Second order system natural response-critically damped and underdamped | Download Verified |
| 132 | Generalized form of a second order system | Download Verified |
| 133 | Numerical example | Download Verified |
| 134 | Series and parallel RLC circuits | Download Verified |
| 135 | Forced response of a second order system | Download Verified |
| 136 | Steady state response calculation and Phasors | Download Verified |
| 137 | Phasors cont'd | Download Verified |
| 138 | Magnitude and Phase plots | Download Verified |
| 139 | Magnitude and phase plotes of a second order system | Download Verified |
| 140 | Maximum power transfer and Conjugate matching | Download Verified |
| Sl.No | Chapter Name | Gujarati |
|---|---|---|
| 1 | Preliminaries | Download |
| 2 | Current | Download |
| 3 | Voltage | Download |
| 4 | Electrical elements and circuits | Download |
| 5 | Kirchhoff's current law(KCL) | Download |
| 6 | Kirchhoff's voltage law(KVL) | Download |
| 7 | Voltage source | Download |
| 8 | Current source | Download |
| 9 | Resistor | Download |
| 10 | Capacitor | Download |
| 11 | Inductor | Download |
| 12 | Mutual inductor | Download |
| 13 | Linearity of elements | Download |
| 14 | Series connection-Voltage sources in series | Download |
| 15 | Series connection of R, L, C, current source | Download |
| 16 | Elements in parallel | Download |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download |
| 18 | Extreme cases: Open and short circuits | Download |
| 19 | Summary | Download |
| 20 | Voltage controlled voltage source(VCVS) | Download |
| 21 | Voltage controlled current source(VCCS) | Download |
| 22 | Current controlled voltage source(CCVS) | Download |
| 23 | Current controlled current source(CCCS) | Download |
| 24 | Scaling an element's value using controlled sources | Download |
| 25 | Example calculation | Download |
| 26 | Power and energy absorbed by electrical elements | Download |
| 27 | Power and energy in a resistor | Download |
| 28 | Power and energy in a capacitor | Download |
| 29 | Power and energy in an inductor | Download |
| 30 | Power and energy in a voltage source | Download |
| 31 | Power and energy in a current source | Download |
| 32 | Goals of circuit analysis | Download |
| 33 | Number of independent KCL equations | Download |
| 34 | Number of independent KVL equations and branch relationships | Download |
| 35 | Analysis of circuits with a single independent source | Download |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download |
| 37 | Superposition: Example | Download |
| 38 | What is nodal analysis | Download |
| 39 | Setting up nodal analysis equations | Download |
| 40 | Structure of the conductance matrix | Download |
| 41 | How elements appear in the nodal analysis formulation | Download |
| 42 | Completely solving the circuit starting from nodal analysis | Download |
| 43 | Nodal analysis example | Download |
| 44 | Matrix inversion basics | Download |
| 45 | Nodal analysis with independent voltage sources | Download |
| 46 | Supernode for nodal analysis with independent voltage sources | Download |
| 47 | Nodal analysis with VCCS | Download |
| 48 | Nodal analysis with VCVS | Download |
| 49 | Nodal analysis with CCVS | Download |
| 50 | Nodal analysis with CCCS | Download |
| 51 | Planar circuits | Download |
| 52 | Mesh currents and their relationship to branch currents | Download |
| 53 | Mesh analysis | Download |
| 54 | Mesh analysis with independent current sources-Supermesh | Download |
| 55 | Mesh analysis with current controlled voltage sources | Download |
| 56 | Mesh analysis with current controlled current sources | Download |
| 57 | Mesh analysis using voltage controlled sources | Download |
| 58 | Nodal analysis versus Mesh analysis | Download |
| 59 | Superposition theorem | Download |
| 60 | Pushing a voltage source through a node | Download |
| 61 | Splitting a current source | Download |
| 62 | Substitution theorem: Current source | Download |
| 63 | Substitution theorem: Voltage source | Download |
| 64 | Substituting a voltage or current source with a resistor | Download |
| 65 | Extensions to Superposition and Substitution theorem | Download |
| 66 | Thevenin's theorem | Download |
| 67 | Worked out example: Thevenin's theorem | Download |
| 68 | Norton's theorem | Download |
| 69 | Worked out example: Norton's theorem | Download |
| 70 | Maximum power transfer theorem | Download |
| 71 | Preliminaries | Download |
| 72 | Two port parameters | Download |
| 73 | y parameters | Download |
| 74 | y parameters: Examples | Download |
| 75 | z parameters | Download |
| 76 | z parameters: Examples | Download |
| 77 | h parameters | Download |
| 78 | h parameters: Examples | Download |
| 79 | g parameters | Download |
| 80 | g parameters: Examples | Download |
| 81 | Calculations with a two-port element | Download |
| 82 | Calculations with a two-port element | Download |
| 83 | Degenerate cases | Download |
| 84 | Relationships between different two-port parameters | Download |
| 85 | Equivalent circuit representation for two ports | Download |
| 86 | Reciprocity | Download |
| 87 | Proof of reciprocity of resistive two-ports | Download |
| 88 | Proof for 4-terminal two-ports | Download |
| 89 | Reciprocity in terms of different two-port parameters | Download |
| 90 | Reciprocity in circuits containing controlled sources | Download |
| 91 | Examples | Download |
| 92 | Feedback amplifier using an opamp | Download |
| 93 | Ideal opamp | Download |
| 94 | Negative feedback around the opamp | Download |
| 95 | Finding opamp signs for negative feedback | Download |
| 96 | Example: Determining opamp sign for negative feedback | Download |
| 97 | Analysis of circuits with opamps | Download |
| 98 | Inverting amplifier | Download |
| 99 | Summing amplifier | Download |
| 100 | Instrumentation amplifier | Download |
| 101 | Negative resistance and Miller effect | Download |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download |
| 103 | Opamp supply voltages and saturation | Download |
| 104 | KCL with an opamp and supply currents | Download |
| 105 | Circuits with storage elements(capacitors and inductors) | Download |
| 106 | First order circuit with zero input-natural response | Download |
| 107 | First order RC circuit with zero input-Example | Download |
| 108 | First order circuit with a constant input | Download |
| 109 | General form of the first order circuit response | Download |
| 110 | First order RC circuit with a constant input-Example | Download |
| 111 | First order circuit with piecewise constant input | Download |
| 112 | First order circuit with piecewise constant input-Example | Download |
| 113 | First order circuit-Response of arbitrary circuit variables | Download |
| 114 | Summary: Computing first order circuit response | Download |
| 115 | Does a capacitor block DC? | Download |
| 116 | Finding the order of a circuit | Download |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download |
| 118 | Summary: Computing first order circuit response with discontinuities | Download |
| 119 | First order RL circuits | Download |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download |
| 121 | First order RC circuit with an exponential input | Download |
| 122 | First order RC response to its own natural response | Download |
| 123 | First order RC response to a sinusoidal input | Download |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download |
| 126 | Three methods of calculating the sinusoidal steady state response | Download |
| 127 | Calculating the total response including initial conditions | Download |
| 128 | Why are sinusoids used in measurement? | Download |
| 129 | Second order system natural response | Download |
| 130 | Second order system as a cascade of two first order systems | Download |
| 131 | Second order system natural response-critically damped and underdamped | Download |
| 132 | Generalized form of a second order system | Download |
| 133 | Numerical example | Download |
| 134 | Series and parallel RLC circuits | Download |
| 135 | Forced response of a second order system | Download |
| 136 | Steady state response calculation and Phasors | Download |
| 137 | Phasors cont'd | Download |
| 138 | Magnitude and Phase plots | Download |
| 139 | Magnitude and phase plotes of a second order system | Download |
| 140 | Maximum power transfer and Conjugate matching | Download |
| Sl.No | Chapter Name | Malayalam |
|---|---|---|
| 1 | Preliminaries | Download |
| 2 | Current | Download |
| 3 | Voltage | Download |
| 4 | Electrical elements and circuits | Download |
| 5 | Kirchhoff's current law(KCL) | Download |
| 6 | Kirchhoff's voltage law(KVL) | Download |
| 7 | Voltage source | Download |
| 8 | Current source | Download |
| 9 | Resistor | Download |
| 10 | Capacitor | Download |
| 11 | Inductor | Download |
| 12 | Mutual inductor | Download |
| 13 | Linearity of elements | Download |
| 14 | Series connection-Voltage sources in series | Download |
| 15 | Series connection of R, L, C, current source | Download |
| 16 | Elements in parallel | Download |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download |
| 18 | Extreme cases: Open and short circuits | Download |
| 19 | Summary | Download |
| 20 | Voltage controlled voltage source(VCVS) | Download |
| 21 | Voltage controlled current source(VCCS) | Download |
| 22 | Current controlled voltage source(CCVS) | Download |
| 23 | Current controlled current source(CCCS) | Download |
| 24 | Scaling an element's value using controlled sources | Download |
| 25 | Example calculation | Download |
| 26 | Power and energy absorbed by electrical elements | Download |
| 27 | Power and energy in a resistor | Download |
| 28 | Power and energy in a capacitor | Download |
| 29 | Power and energy in an inductor | Download |
| 30 | Power and energy in a voltage source | Download |
| 31 | Power and energy in a current source | Download |
| 32 | Goals of circuit analysis | Download |
| 33 | Number of independent KCL equations | Download |
| 34 | Number of independent KVL equations and branch relationships | Download |
| 35 | Analysis of circuits with a single independent source | Download |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download |
| 37 | Superposition: Example | Download |
| 38 | What is nodal analysis | Download |
| 39 | Setting up nodal analysis equations | Download |
| 40 | Structure of the conductance matrix | Download |
| 41 | How elements appear in the nodal analysis formulation | Download |
| 42 | Completely solving the circuit starting from nodal analysis | Download |
| 43 | Nodal analysis example | Download |
| 44 | Matrix inversion basics | Download |
| 45 | Nodal analysis with independent voltage sources | Download |
| 46 | Supernode for nodal analysis with independent voltage sources | Download |
| 47 | Nodal analysis with VCCS | Download |
| 48 | Nodal analysis with VCVS | Download |
| 49 | Nodal analysis with CCVS | Download |
| 50 | Nodal analysis with CCCS | Download |
| 51 | Planar circuits | Download |
| 52 | Mesh currents and their relationship to branch currents | Download |
| 53 | Mesh analysis | Download |
| 54 | Mesh analysis with independent current sources-Supermesh | Download |
| 55 | Mesh analysis with current controlled voltage sources | Download |
| 56 | Mesh analysis with current controlled current sources | Download |
| 57 | Mesh analysis using voltage controlled sources | Download |
| 58 | Nodal analysis versus Mesh analysis | Download |
| 59 | Superposition theorem | Download |
| 60 | Pushing a voltage source through a node | Download |
| 61 | Splitting a current source | Download |
| 62 | Substitution theorem: Current source | Download |
| 63 | Substitution theorem: Voltage source | Download |
| 64 | Substituting a voltage or current source with a resistor | Download |
| 65 | Extensions to Superposition and Substitution theorem | Download |
| 66 | Thevenin's theorem | Download |
| 67 | Worked out example: Thevenin's theorem | Download |
| 68 | Norton's theorem | Download |
| 69 | Worked out example: Norton's theorem | Download |
| 70 | Maximum power transfer theorem | Download |
| 71 | Preliminaries | Download |
| 72 | Two port parameters | Download |
| 73 | y parameters | Download |
| 74 | y parameters: Examples | Download |
| 75 | z parameters | Download |
| 76 | z parameters: Examples | Download |
| 77 | h parameters | Download |
| 78 | h parameters: Examples | Download |
| 79 | g parameters | Download |
| 80 | g parameters: Examples | Download |
| 81 | Calculations with a two-port element | Download |
| 82 | Calculations with a two-port element | Download |
| 83 | Degenerate cases | Download |
| 84 | Relationships between different two-port parameters | Download |
| 85 | Equivalent circuit representation for two ports | Download |
| 86 | Reciprocity | Download |
| 87 | Proof of reciprocity of resistive two-ports | Download |
| 88 | Proof for 4-terminal two-ports | Download |
| 89 | Reciprocity in terms of different two-port parameters | Download |
| 90 | Reciprocity in circuits containing controlled sources | Download |
| 91 | Examples | Download |
| 92 | Feedback amplifier using an opamp | Download |
| 93 | Ideal opamp | Download |
| 94 | Negative feedback around the opamp | Download |
| 95 | Finding opamp signs for negative feedback | Download |
| 96 | Example: Determining opamp sign for negative feedback | Download |
| 97 | Analysis of circuits with opamps | Download |
| 98 | Inverting amplifier | Download |
| 99 | Summing amplifier | Download |
| 100 | Instrumentation amplifier | Download |
| 101 | Negative resistance and Miller effect | Download |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download |
| 103 | Opamp supply voltages and saturation | Download |
| 104 | KCL with an opamp and supply currents | Download |
| 105 | Circuits with storage elements(capacitors and inductors) | Download |
| 106 | First order circuit with zero input-natural response | Download |
| 107 | First order RC circuit with zero input-Example | Download |
| 108 | First order circuit with a constant input | Download |
| 109 | General form of the first order circuit response | Download |
| 110 | First order RC circuit with a constant input-Example | Download |
| 111 | First order circuit with piecewise constant input | Download |
| 112 | First order circuit with piecewise constant input-Example | Download |
| 113 | First order circuit-Response of arbitrary circuit variables | Download |
| 114 | Summary: Computing first order circuit response | Download |
| 115 | Does a capacitor block DC? | Download |
| 116 | Finding the order of a circuit | Download |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download |
| 118 | Summary: Computing first order circuit response with discontinuities | Download |
| 119 | First order RL circuits | Download |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download |
| 121 | First order RC circuit with an exponential input | Download |
| 122 | First order RC response to its own natural response | Download |
| 123 | First order RC response to a sinusoidal input | Download |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download |
| 126 | Three methods of calculating the sinusoidal steady state response | Download |
| 127 | Calculating the total response including initial conditions | Download |
| 128 | Why are sinusoids used in measurement? | Download |
| 129 | Second order system natural response | Download |
| 130 | Second order system as a cascade of two first order systems | Download |
| 131 | Second order system natural response-critically damped and underdamped | Download |
| 132 | Generalized form of a second order system | Download |
| 133 | Numerical example | Download |
| 134 | Series and parallel RLC circuits | Download |
| 135 | Forced response of a second order system | Download |
| 136 | Steady state response calculation and Phasors | Download |
| 137 | Phasors cont'd | Download |
| 138 | Magnitude and Phase plots | Download |
| 139 | Magnitude and phase plotes of a second order system | Download |
| 140 | Maximum power transfer and Conjugate matching | Download |
| Sl.No | Chapter Name | Tamil |
|---|---|---|
| 1 | Preliminaries | Download |
| 2 | Current | Download |
| 3 | Voltage | Download |
| 4 | Electrical elements and circuits | Download |
| 5 | Kirchhoff's current law(KCL) | Download |
| 6 | Kirchhoff's voltage law(KVL) | Download |
| 7 | Voltage source | Download |
| 8 | Current source | Download |
| 9 | Resistor | Download |
| 10 | Capacitor | Download |
| 11 | Inductor | Download |
| 12 | Mutual inductor | Download |
| 13 | Linearity of elements | Download |
| 14 | Series connection-Voltage sources in series | Download |
| 15 | Series connection of R, L, C, current source | Download |
| 16 | Elements in parallel | Download |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download |
| 18 | Extreme cases: Open and short circuits | Download |
| 19 | Summary | Download |
| 20 | Voltage controlled voltage source(VCVS) | Download |
| 21 | Voltage controlled current source(VCCS) | Download |
| 22 | Current controlled voltage source(CCVS) | Download |
| 23 | Current controlled current source(CCCS) | Download |
| 24 | Scaling an element's value using controlled sources | Download |
| 25 | Example calculation | Download |
| 26 | Power and energy absorbed by electrical elements | Download |
| 27 | Power and energy in a resistor | Download |
| 28 | Power and energy in a capacitor | Download |
| 29 | Power and energy in an inductor | Download |
| 30 | Power and energy in a voltage source | Download |
| 31 | Power and energy in a current source | Download |
| 32 | Goals of circuit analysis | Download |
| 33 | Number of independent KCL equations | Download |
| 34 | Number of independent KVL equations and branch relationships | Download |
| 35 | Analysis of circuits with a single independent source | Download |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download |
| 37 | Superposition: Example | Download |
| 38 | What is nodal analysis | Download |
| 39 | Setting up nodal analysis equations | Download |
| 40 | Structure of the conductance matrix | Download |
| 41 | How elements appear in the nodal analysis formulation | Download |
| 42 | Completely solving the circuit starting from nodal analysis | Download |
| 43 | Nodal analysis example | Download |
| 44 | Matrix inversion basics | Download |
| 45 | Nodal analysis with independent voltage sources | Download |
| 46 | Supernode for nodal analysis with independent voltage sources | Download |
| 47 | Nodal analysis with VCCS | Download |
| 48 | Nodal analysis with VCVS | Download |
| 49 | Nodal analysis with CCVS | Download |
| 50 | Nodal analysis with CCCS | Download |
| 51 | Planar circuits | Download |
| 52 | Mesh currents and their relationship to branch currents | Download |
| 53 | Mesh analysis | Download |
| 54 | Mesh analysis with independent current sources-Supermesh | Download |
| 55 | Mesh analysis with current controlled voltage sources | Download |
| 56 | Mesh analysis with current controlled current sources | Download |
| 57 | Mesh analysis using voltage controlled sources | Download |
| 58 | Nodal analysis versus Mesh analysis | Download |
| 59 | Superposition theorem | Download |
| 60 | Pushing a voltage source through a node | Download |
| 61 | Splitting a current source | Download |
| 62 | Substitution theorem: Current source | Download |
| 63 | Substitution theorem: Voltage source | Download |
| 64 | Substituting a voltage or current source with a resistor | Download |
| 65 | Extensions to Superposition and Substitution theorem | Download |
| 66 | Thevenin's theorem | Download |
| 67 | Worked out example: Thevenin's theorem | Download |
| 68 | Norton's theorem | Download |
| 69 | Worked out example: Norton's theorem | Download |
| 70 | Maximum power transfer theorem | Download |
| 71 | Preliminaries | Download |
| 72 | Two port parameters | Download |
| 73 | y parameters | Download |
| 74 | y parameters: Examples | Download |
| 75 | z parameters | Download |
| 76 | z parameters: Examples | Download |
| 77 | h parameters | Download |
| 78 | h parameters: Examples | Download |
| 79 | g parameters | Download |
| 80 | g parameters: Examples | Download |
| 81 | Calculations with a two-port element | Download |
| 82 | Calculations with a two-port element | Download |
| 83 | Degenerate cases | Download |
| 84 | Relationships between different two-port parameters | Download |
| 85 | Equivalent circuit representation for two ports | Download |
| 86 | Reciprocity | Download |
| 87 | Proof of reciprocity of resistive two-ports | Download |
| 88 | Proof for 4-terminal two-ports | Download |
| 89 | Reciprocity in terms of different two-port parameters | Download |
| 90 | Reciprocity in circuits containing controlled sources | Download |
| 91 | Examples | Download |
| 92 | Feedback amplifier using an opamp | Download |
| 93 | Ideal opamp | Download |
| 94 | Negative feedback around the opamp | Download |
| 95 | Finding opamp signs for negative feedback | Download |
| 96 | Example: Determining opamp sign for negative feedback | Download |
| 97 | Analysis of circuits with opamps | Download |
| 98 | Inverting amplifier | Download |
| 99 | Summing amplifier | Download |
| 100 | Instrumentation amplifier | Download |
| 101 | Negative resistance and Miller effect | Download |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download |
| 103 | Opamp supply voltages and saturation | Download |
| 104 | KCL with an opamp and supply currents | Download |
| 105 | Circuits with storage elements(capacitors and inductors) | Download |
| 106 | First order circuit with zero input-natural response | Download |
| 107 | First order RC circuit with zero input-Example | Download |
| 108 | First order circuit with a constant input | Download |
| 109 | General form of the first order circuit response | Download |
| 110 | First order RC circuit with a constant input-Example | Download |
| 111 | First order circuit with piecewise constant input | Download |
| 112 | First order circuit with piecewise constant input-Example | Download |
| 113 | First order circuit-Response of arbitrary circuit variables | Download |
| 114 | Summary: Computing first order circuit response | Download |
| 115 | Does a capacitor block DC? | Download |
| 116 | Finding the order of a circuit | Download |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download |
| 118 | Summary: Computing first order circuit response with discontinuities | Download |
| 119 | First order RL circuits | Download |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download |
| 121 | First order RC circuit with an exponential input | Download |
| 122 | First order RC response to its own natural response | Download |
| 123 | First order RC response to a sinusoidal input | Download |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download |
| 126 | Three methods of calculating the sinusoidal steady state response | Download |
| 127 | Calculating the total response including initial conditions | Download |
| 128 | Why are sinusoids used in measurement? | Download |
| 129 | Second order system natural response | Download |
| 130 | Second order system as a cascade of two first order systems | Download |
| 131 | Second order system natural response-critically damped and underdamped | Download |
| 132 | Generalized form of a second order system | Download |
| 133 | Numerical example | Download |
| 134 | Series and parallel RLC circuits | Download |
| 135 | Forced response of a second order system | Download |
| 136 | Steady state response calculation and Phasors | Download |
| 137 | Phasors cont'd | Download |
| 138 | Magnitude and Phase plots | Download |
| 139 | Magnitude and phase plotes of a second order system | Download |
| 140 | Maximum power transfer and Conjugate matching | Download |
| Sl.No | Chapter Name | Telugu |
|---|---|---|
| 1 | Preliminaries | Download |
| 2 | Current | Download |
| 3 | Voltage | Download |
| 4 | Electrical elements and circuits | Download |
| 5 | Kirchhoff's current law(KCL) | Download |
| 6 | Kirchhoff's voltage law(KVL) | Download |
| 7 | Voltage source | Download |
| 8 | Current source | Download |
| 9 | Resistor | Download |
| 10 | Capacitor | Download |
| 11 | Inductor | Download |
| 12 | Mutual inductor | Download |
| 13 | Linearity of elements | Download |
| 14 | Series connection-Voltage sources in series | Download |
| 15 | Series connection of R, L, C, current source | Download |
| 16 | Elements in parallel | Download |
| 17 | Current source in series with an element; Voltage source in parallel with an element | Download |
| 18 | Extreme cases: Open and short circuits | Download |
| 19 | Summary | Download |
| 20 | Voltage controlled voltage source(VCVS) | Download |
| 21 | Voltage controlled current source(VCCS) | Download |
| 22 | Current controlled voltage source(CCVS) | Download |
| 23 | Current controlled current source(CCCS) | Download |
| 24 | Scaling an element's value using controlled sources | Download |
| 25 | Example calculation | Download |
| 26 | Power and energy absorbed by electrical elements | Download |
| 27 | Power and energy in a resistor | Download |
| 28 | Power and energy in a capacitor | Download |
| 29 | Power and energy in an inductor | Download |
| 30 | Power and energy in a voltage source | Download |
| 31 | Power and energy in a current source | Download |
| 32 | Goals of circuit analysis | Download |
| 33 | Number of independent KCL equations | Download |
| 34 | Number of independent KVL equations and branch relationships | Download |
| 35 | Analysis of circuits with a single independent source | Download |
| 36 | Analysis of circuits with multiple independent sources using superposition | Download |
| 37 | Superposition: Example | Download |
| 38 | What is nodal analysis | Download |
| 39 | Setting up nodal analysis equations | Download |
| 40 | Structure of the conductance matrix | Download |
| 41 | How elements appear in the nodal analysis formulation | Download |
| 42 | Completely solving the circuit starting from nodal analysis | Download |
| 43 | Nodal analysis example | Download |
| 44 | Matrix inversion basics | Download |
| 45 | Nodal analysis with independent voltage sources | Download |
| 46 | Supernode for nodal analysis with independent voltage sources | Download |
| 47 | Nodal analysis with VCCS | Download |
| 48 | Nodal analysis with VCVS | Download |
| 49 | Nodal analysis with CCVS | Download |
| 50 | Nodal analysis with CCCS | Download |
| 51 | Planar circuits | Download |
| 52 | Mesh currents and their relationship to branch currents | Download |
| 53 | Mesh analysis | Download |
| 54 | Mesh analysis with independent current sources-Supermesh | Download |
| 55 | Mesh analysis with current controlled voltage sources | Download |
| 56 | Mesh analysis with current controlled current sources | Download |
| 57 | Mesh analysis using voltage controlled sources | Download |
| 58 | Nodal analysis versus Mesh analysis | Download |
| 59 | Superposition theorem | Download |
| 60 | Pushing a voltage source through a node | Download |
| 61 | Splitting a current source | Download |
| 62 | Substitution theorem: Current source | Download |
| 63 | Substitution theorem: Voltage source | Download |
| 64 | Substituting a voltage or current source with a resistor | Download |
| 65 | Extensions to Superposition and Substitution theorem | Download |
| 66 | Thevenin's theorem | Download |
| 67 | Worked out example: Thevenin's theorem | Download |
| 68 | Norton's theorem | Download |
| 69 | Worked out example: Norton's theorem | Download |
| 70 | Maximum power transfer theorem | Download |
| 71 | Preliminaries | Download |
| 72 | Two port parameters | Download |
| 73 | y parameters | Download |
| 74 | y parameters: Examples | Download |
| 75 | z parameters | Download |
| 76 | z parameters: Examples | Download |
| 77 | h parameters | Download |
| 78 | h parameters: Examples | Download |
| 79 | g parameters | Download |
| 80 | g parameters: Examples | Download |
| 81 | Calculations with a two-port element | Download |
| 82 | Calculations with a two-port element | Download |
| 83 | Degenerate cases | Download |
| 84 | Relationships between different two-port parameters | Download |
| 85 | Equivalent circuit representation for two ports | Download |
| 86 | Reciprocity | Download |
| 87 | Proof of reciprocity of resistive two-ports | Download |
| 88 | Proof for 4-terminal two-ports | Download |
| 89 | Reciprocity in terms of different two-port parameters | Download |
| 90 | Reciprocity in circuits containing controlled sources | Download |
| 91 | Examples | Download |
| 92 | Feedback amplifier using an opamp | Download |
| 93 | Ideal opamp | Download |
| 94 | Negative feedback around the opamp | Download |
| 95 | Finding opamp signs for negative feedback | Download |
| 96 | Example: Determining opamp sign for negative feedback | Download |
| 97 | Analysis of circuits with opamps | Download |
| 98 | Inverting amplifier | Download |
| 99 | Summing amplifier | Download |
| 100 | Instrumentation amplifier | Download |
| 101 | Negative resistance and Miller effect | Download |
| 102 | Finding opamp signs for negative feedback-circuits with multiple opamps | Download |
| 103 | Opamp supply voltages and saturation | Download |
| 104 | KCL with an opamp and supply currents | Download |
| 105 | Circuits with storage elements(capacitors and inductors) | Download |
| 106 | First order circuit with zero input-natural response | Download |
| 107 | First order RC circuit with zero input-Example | Download |
| 108 | First order circuit with a constant input | Download |
| 109 | General form of the first order circuit response | Download |
| 110 | First order RC circuit with a constant input-Example | Download |
| 111 | First order circuit with piecewise constant input | Download |
| 112 | First order circuit with piecewise constant input-Example | Download |
| 113 | First order circuit-Response of arbitrary circuit variables | Download |
| 114 | Summary: Computing first order circuit response | Download |
| 115 | Does a capacitor block DC? | Download |
| 116 | Finding the order of a circuit | Download |
| 117 | First order RC circuits with discontinuous capacitor voltages | Download |
| 118 | Summary: Computing first order circuit response with discontinuities | Download |
| 119 | First order RL circuits | Download |
| 120 | First order RL circuit with discontinuous inductor current-Example | Download |
| 121 | First order RC circuit with an exponential input | Download |
| 122 | First order RC response to its own natural response | Download |
| 123 | First order RC response to a sinusoidal input | Download |
| 124 | First order RC response to a sinusoidal input-via the complex exponential | Download |
| 125 | Summary: Linear circuit response to sinusoidal input via the complex exponential | Download |
| 126 | Three methods of calculating the sinusoidal steady state response | Download |
| 127 | Calculating the total response including initial conditions | Download |
| 128 | Why are sinusoids used in measurement? | Download |
| 129 | Second order system natural response | Download |
| 130 | Second order system as a cascade of two first order systems | Download |
| 131 | Second order system natural response-critically damped and underdamped | Download |
| 132 | Generalized form of a second order system | Download |
| 133 | Numerical example | Download |
| 134 | Series and parallel RLC circuits | Download |
| 135 | Forced response of a second order system | Download |
| 136 | Steady state response calculation and Phasors | Download |
| 137 | Phasors cont'd | Download |
| 138 | Magnitude and Phase plots | Download |
| 139 | Magnitude and phase plotes of a second order system | Download |
| 140 | Maximum power transfer and Conjugate matching | Download |