GATE Electronic and Communication Engineering (Batch 6)
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Introduction to Analog Circuits
2.44
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Diode and Its Equation
6.38
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Diode Parameters
3.32
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Diode Clipper Circuits - A
11.55
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Diode Clipper Circuits - B
7.45
-
Biased Clipper
9.09
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Clipper Using Zener Diode
13.42
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Introduction to Number System
10.55
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Number System Conversion
24.04
-
Numericals Based on Number System-Part 1
21.36
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Numericals Based on Number System-Part 2
18.14
-
Complement Number Representation
19.31
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Clamper Using Diode
22.16
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Voltage Doubler /Tripler/Quadrupler
10.57
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Rectifier Using Diode
12.4
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Signed Number Representation for Binary
32
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Important Properties of 1's and 2's Complement Numbers
17.43
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Concept of Overflow and Sign Extension
18.52
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Subtraction Using R's and (R-1)'s Complement Method
34.04
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DC Load Line of Diode
7.55
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Diode Numerical Session 1
13.39
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Diode Numerical Session 2
8.41
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Diode Numerical Session 3
12.15
-
Diode Numerical Session 4
9.36
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Diode Numerical Session 5
8.11
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Binary Codes
30.06
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Generation of Gray Code
14.41
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Conversion of Binary to Gray and Gray to Binary Codes
12.57
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Gate Numerical on Number System Part 1
28
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Gate Numerical on Number System Part 2
25.07
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BJT Introduction
9.04
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BJT CE Configuration
11.03
-
BJT BJT Q Point & Stability
13.51
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BJT Biasing Circuits
15.01
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Boolean Laws
25.16
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Concept of Minterms and Maxterm
22.32
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Problems Based on Minterms and Maxterms
32.37
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Complementing the Function
11.25
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BJT Small Signal Models
16.38
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BJT Small Signal AC Analysis
13.05
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BJT Frequency Response
24.01
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Introduction to K-Map
15.49
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Grouping Techniques in K-Map
31.56
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Numerical Based on Boolean Algebra
28.24
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BJT As a Switch & CB/CC Amplifier
10.36
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BJT Numerical Session 1
16.11
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BJT Numerical Session 2
11
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BJT Numerical Session 3
11.13
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BJT Numerical Session 4
8.35
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BJT Numerical Session 5
9.56
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Basic Logic Gates
6.26
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Universal Logic Gates
16.25
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Numericals Based on Universal Logic Gates
22.3
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Ex-OR Gate
13.37
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Important Properties of Ex-OR Gate
20.02
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Gate Numericals on Logic Gates
36.04
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Introduction to Timer IC 555
10.54
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555 MMV
11.01
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555 AMV
10.35
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Introduction to Combinational Logic Circuit
11.24
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Half Adder
7.14
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Half Subtractor
7.17
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Full Adder
12.23
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Implementing Full Adder with Half Adder
10.46
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Concept of Comparator
20.47
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4-Bit Parallel/ Ripple Adder
15.55
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4-Bit Serial Adder
18.46
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MOSFET Basics
12.1
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MOSFET Biasing
9.3
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MOSFET AC Model & Amplifier
10.51
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As Square Wave Generator
4.33
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Timer-555 : Numerical Session 1
7.07
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Timer-555 : Numerical Session 2
6.28
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4-Bit Adder/ Subtractor
11.03
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Encoder
8.11
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Decoder
11.36
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Full Adder Using 3:8 Decoder
14.56
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Decoder Expansion
17.34
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Concept of Demultiplexer
7.37
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Decoder Using Demultiplexer
6.35
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Concept of Multiplexer
8.47
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Multiplexer Expansion
14.4
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CMOS using MOSFET
9.44
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MOSFET Frequency Response
7.49
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MOSFET Numerical Session 1
10.05
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MOSFET Numerical Session 2
7.5
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MOSFET Numerical Session 3
10
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MOSFET Numerical Session 4
8.26
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MOSFET Numerical Session 5
4.21
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Implementing 2:1 Mux Using 4:1 Mux
8.4
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2:1 Multiplexer as Universal Logic Circuit
16.03
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4:1 Multiplexer as Universal Logic Gate
5.52
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Gate Problems on Mux, Decoder and Decoder
29.13
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Introduction to Sequential Logic Circuit
14.44
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NOR Latch
14.54
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NAND Latch
10.32
-
Introduction
14.57
-
Comparison and Analysis of Negative Feedback Amplifier
16.44
-
Negative Feedback Numerical Session 1
7.06
-
Problem with RS Latch
17.43
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Delay Latch/Flip Flop
4.49
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JK Latch and T- Latch
7.48
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Excitation Table for all Latches/Flip Flops
19.52
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Latch/Flip Flop Conversion Concept
23.22
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SR Latch to JK Latch Conversion
18.09
-
DA using BJT
14.37
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DA Gain Equation
8.47
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Negative Feedback Numerical Session 2
8.16
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Negative Feedback Numerical Session 3
8.28
-
Negative Feedback Numerical Session 4
6
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D Latch to JK Latch Conversion
8.58
-
D Latch to T Latch Conversion
6.46
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Concept of Triggering
14.17
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Difference Between Latch and Flipflop
10.59
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Behaviour of Flip Flop in Toggle Mode
13.19
-
Race Around Condition in JK Latch
14.44
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Master-Slave JK Flip Flop
9.03
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Introduction to Shift Register
9.17
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CCS and CM
11.36
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DA Using MOSFET and CCS & CM
8.59
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DA Numerical Session 1
13.37
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DA Numerical Session 2
7.34
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DA Numerical Session 3
4.53
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Classification of Shift Register
28.48
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Ring Counter
17.46
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Twisted Ring Counter
14.12
-
Introduction to Asynchronous Counter
10.03
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Asynchronous Up Counter
15.14
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Asynchronous Down Counter
19.45
-
Introduction and Two Stage Analysis
25.48
-
Cascode Amplifier and Darlington Amplifier
15.25
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Asynchronous Up/Down Counter
14.1
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Introduction To Asynchronous MOD Counter
17.3
-
Designing Asynchronous MOD 10 Counter
11.53
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Introduction to Synchronous Counter
11.55
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Designing Synchronous Counter - Part 1
12.59
-
Designing Synchronous Counter - Part 2
15.03
-
Finite State Machine
10.45
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Three Stage Amplifier
5.24
-
Multistage Amplifier Numerical Session 1
15.54
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Multistage Amplifier Numerical Session 2
8.28
-
Multistage Amplifier Numerical Session 3
12.18
-
Multistage Amplifier Numerical Session 4
8.43
-
Non Overlapping Sequence Detector
16.52
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Overlapping Sequence Detector
28.48
-
Gate Numericals Based on Sequential Logic Circuit
33.18
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Gate Numericals on FSM
22.36
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OP-AMP Introduction
17.14
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OP-AMP As Square Wave Generator
9.12
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OP-AMP First Order Active Filters
15.43
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Introduction to ADC and DAC
10.4
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Concept of Specifications of DAC
16.53
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Binary Weighted Resistor Type DAC
18.53
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R-2R Ladder Type DAC
7.43
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Numerical on DAC
14
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Counter Type ADC
23.27
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Successive Approximation Register Type DAC
20.18
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Flash Type ADC
28.52
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OP-AMP Second Order Active Filters and Instrumentation Amplifier
13.01
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OP-AMP Oscillator and Triangular Wave Generator
14.57
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OP-AMP Log Circuits and Precision Rectifier
16.14
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Introduction Registered Organisation Memory Basics
24.51
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Introduction to Register Set
17.34
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Single Accumulator Organization : Size 1
18.39
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Single Accumulator Organization : Purpose 2
26.5
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Single Accumulator Organization : Connections 3
21.41
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OP-AMP SCHMITT Trigger Circuits
9.42
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OP-AMP As Comparator
4.45
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OP-AMP and Application Numerical Session 1
7.32
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OP-AMP and Application Numerical Session 2
10.23
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OP-AMP and Application Numerical Session 3
10.03
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General Register Organization 1
17.34
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General Register Organization 2
14.23
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General Register Organization 3
8.11
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Flag Register
23.16
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Stack Organization 1
29.07
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Stack Organization 2
9.35
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Numerical Session 1
8.25
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Numerical Session 2
8.01
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Numerical session 3
9.29
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Numerical session 4
8.37
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OP-AMP and Application Numerical Session 4
7.17
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OP-AMP and Application Numerical Session 5
11.25
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Instruction Cycle 1
11.52
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Instruction Cycle 2
15.14
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Instruction Cycle 3
12.01
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Instruction Formats : Number of Operands 1
16.2
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Instruction Formats : Number of Operands 2
15.41
-
Instruction Formats : Number of Operands 3
14.53
-
Instruction Formats : Location of the Operand 1
10.29
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Instruction Formats : Location of the Operand 2
17.59
-
Definition and Parameters
10.04
-
Zener Voltage Regulator
11.14
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Voltage Regulator Numerical Session 1
11.23
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Voltage Regulator Numerical Session 2
7.59
-
Instruction Formats : Location of the Operand 3
16.54
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Instruction Formats : Location of the Operand 4
16.5
-
Instruction Formats : Sub Routine Call and Return
22.31
-
Instruction Formats : Register Reference Instructions
23.25
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Instruction Formats : I O Reference Instructions
11.28
-
Voltage Regulator Numerical Session 3
7.47
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Voltage Regulator Numerical Session 4
6.57
-
Voltage Regulator Numerical Session 5
10.17
-
Types of Instructions1
18.57
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Types of Instructions2
14.59
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Types of Instructions 3
13.2
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Addressing Modes 1
16.08
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Addressing Modes 2
15.49
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Addressing Modes 3
17.53
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Introduction
10.23
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Class A Power Amplifier
12.53
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Class B Power Amplifier
12.13
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Class AB Power Amplifier
6.35
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Class C PA and Heat Sink
9.25
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Comparison
5.17
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Power Amplifier Numerical Session 1
7.41
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Power Amplifier Numerical Session 2
6.55
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Power Amplifier Numerical Session 3
5.07
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Control Unit 1
12
-
Control Unit 2
17.22
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Control Unit 3
22.29
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ALU Design 1
16.47
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ALU Design 2
15.08
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ALU Design 3
28.02
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Model Gate Question On Instruction Size
15.46
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GATE Question 1
5.41
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GATE Question 2
6.43
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GATE Question 3
5.02
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GATE Question 4
4.1
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GATE Question 5
7.41
-
GATE Question 6
8.1
-
GATE Question 7
20.15
-
GATE Question 8
14.13
-
GATE Question 9
11.13
-
GATE Question 10
5.12
-
GATE Question 11
12.13
-
GATE Question 12
4.38
-
GATE Question 13
9.55
-
GATE Question 14
3.23
-
GATE Question 15
5.08
-
GATE Question 16
10.57
-
GATE Question 17
10.05
-
GATE Question 18
9.1
-
GATE Question 19
11.34
-
GATE Question 20
13.58
-
Introduction to Pipelining: Throughput
8.48
-
Introduction to Pipelining: Parallel Processing
11.55
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Data Pipeline 1
10.04
-
Data Pipeline 2
18.26
-
Speed Up
23.01
-
Speed Up Example
6.02
-
Instruction Pipeline 1
13.14
-
Instruction Pipeline 2
11.25
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Hazards in Pipeline 1
8.29
-
Hazards in Pipeline 2
9.4
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Hazards in Pipeline 3
8.5
-
Handling Hazards 1
6.16
-
Handling Hazards 2
14.46
-
Handling Hazards 3
6.15
-
Handling Hazards 4
18.17
-
Important Formulae
12.43
-
Example 1
6.13
-
Pipelining Gate Question 1
8.51
-
Pipelining Gate Question 2
3.43
-
Pipelining Gate Question 3
22.3
-
Pipelining Gate Question 4
19.13
-
Pipelining Gate Question 5
3.41
-
Pipelining Gate Question 6
4.38
-
Pipelining Gate Question 7
6.41
-
Pipelining Gate Question 8
8.02
-
Pipelining Gate Question 9
13.5
-
Pipelining Gate Question 10
5.04
-
Pipelining Gate Question 11
6.29
-
Pipelining Gate Question 12
6.52
-
Pipelining Gate Question 13
4.29
-
Pipelining Gate Question 14
9.05
-
Pipelining Gate Question 15
5.03
-
Pipelining Gate Question 16
9.28
-
Types of Elements
13.57
-
Energy Sources
12.03
-
Problem Based on Energy Sources
8.18
-
Kirchoff's Law
18.32
-
Introduction of Control System
37.26
-
Need of Laplace Transform in Control System
31.05
-
Problems on Laplace Transform
11.14
-
Transfer Function - Part 1
28.21
-
Energy and Power for R, L and C
9.18
-
Problems Based on Energy and Power
36.42
-
Equivalent Circuits
26.04
-
Problems Based on Equivalent Cicuits Part 1
22.02
-
Problems Based on Equivalent Cicuits Part 2
24.34
-
Transfer Function - Part 2
41.01
-
Problems Based on Transfer Function
37.05
-
Initial Value and Final Value Theorem
43.48
-
Solving DC Circuits Using KVL/KCL - Part1
9.26
-
Solving DC Circuits Using KVL/KCL - Part2
23.01
-
Solving DC Circuits Using KVL/KCL - Part3
26.22
-
Solving DC Circuits Using KVL/KCL - Part4
20.03
-
Block Diagram Reduction Rules
45.37
-
Problem Based on Block Diagram Reduction - Part 1
14.51
-
Problem Based on Block Diagram Reduction - Part 2
19.59
-
Introduction to Signal Flow Graph
24.5
-
Problem Based on Signal Flow Graph - Part 1
24.38
-
Problem Based on Signal Flow Graph - Part 2
16.44
-
Problem Based on Signal Flow Graph - Part 3
30.01
-
Introduction to Thevenin's and Norton's Theorem
17.43
-
Problems on TEC and NEC- Part 1
21.15
-
Problems on TEC and NEC- Part 2
24.19
-
GATE Problem Based on Block Diagram and SFG
22.53
-
Introduction to Time Domain Analysis
29.14
-
Standard 1st Order System Analysis
23.24
-
Introduction to Superposition Theorem
11.42
-
Introduction to Maximum Power Transfer Theorem
40.58
-
Standard 2nd Order System Analysis - Part 1
54.23
-
Standard 2nd Order System Analysis - Part 2
47.58
-
Problems on M.P.T. - Part 1
16.32
-
Introduction to Two Port Network
23.16
-
Equivalent Circuits in Two Port Network
21.33
-
Standard 2nd Order System Analysis - Part 3
25.02
-
Time Domain Specifications
20.5
-
Location of Poles and Time Domain Specifications
15.49
-
Problems on 1st Order and 2nd Order Systems
43.46
-
Interconnection of Two Port Networks
18.48
-
Symmetricity and Reciprocity in Two Port Network
34
-
Introduction to Steady State Error
7.53
-
Static Error Analysis - Part 1
27.19
-
Static Error Analysis - Part 2
49.51
-
Standard Two Port Networks and Parameters
20.57
-
Numericals on Two Port Network - Part 1
28.43
-
Numericals on Two Port Network - Part 2
20.35
-
Numericals on Two Port Network - Part 3
30.24
-
Dynamic Error analysis
26.55
-
Problems on Error Analysis
46.51
-
Introduction to Transient Analysis
22.46
-
Behaviour of R, L and C for t>0
11.15
-
Numericals on Transients - Part 1
15.25
-
Concept of Stability
8.1
-
Routh Hurwitz's Criterion Part 1
10.58
-
Routh Hurwitz's Criterion Part 2
50.15
-
Routh Hurwitz's Criterion Part 3
23.27
-
Numericals on Transients - Part 2
51.42
-
Routh Hurwitz's Criterion Part 4
16.23
-
Introduction to Root Locus
22.44
-
Root Locus - Part 1
47.28
-
Root Locus - Part 2
25.04
-
Numericals on Transients - Part 3
28.28
-
Numericals on Transients - Part 4
35.43
-
Root Locus - Part 3
38.47
-
Problems on Routh Hurwitz's Criterion
25.03
-
Problems on Root Locus
20.41
-
Introduction to Laplace Transformation
12.05
-
Application of Laplace Transform in Electrical Circuits
13.3
-
Numericals on Laplace Transformation - Part 1
18.09
-
Numericals on Laplace Transformation - Part 2
25.58
-
Introduction to Frequency Domain Analysis
24.02
-
FDA for 2nd Order System
38.03
-
Polar Plot - Part 1
24.31
-
Polar Plot - Part 2
57.45
-
A.C. Fundamentals
8.4
-
Concept of Average and RMS Values
17.26
-
Numericals on Average and RMS Values
25.27
-
Polar Plot - Part 3
37.45
-
Polar Plot - Part 4
48.48
-
Polar Plot - Part 5
57.31
-
Vector Representation
15.57
-
Behaviour of R, L and C in A.C. Circuits
22.11
-
RL Series Circuit
10.59
-
RC Series Circuit
12.45
-
Stability in Frequency Domain
9.42
-
Nyquist Plot - Part 1
41.13
-
Nyquist Plot - Part 2
16.37
-
Nyquist Stability Criteria
28.36
-
RLC Series Circuit
9.49
-
Classification of Power
14.06
-
Numericals on Fundamentals of A.C. Circuit - Part 1
24.35
-
Numericals on Fundamentals of A.C. Circuit - Part 2
19.02
-
Examples on Nyquist Stability Criteria
42.17
-
Numericals on Nyquist Stability Criteria
31.32
-
Relative Stability in Frequency Domain
40.22
-
Numericals on Fundamentals of A.C. Circuit - Part 3
19.19
-
Numericals on Fundamentals of A.C. Circuit - Part 4
14.49
-
Numericals on Fundamentals of A.C. Circuit - Part 5
16.35
-
Introduction to Bode Plot
37.2
-
How to Draw Bode Plot
56.19
-
Numericals on Bode plot
12.26
-
Relative Stability using Bode Plot
11.5
-
Numericals on Fundamentals of A.C. Circuit - Part 6
20.14
-
Series Resonance in A.C. Circuits
24.06
-
Parallel RL Circuit
9.44
-
Introduction to Controllers and Compensators
12.07
-
Compensators
49.06
-
Controllers
21.4
-
Numericals on Controllers and Compensators
10.5
-
Parallel RC Circuit
8.01
-
Parallel RLC Circuit
7.06
-
Parallel Resonance in A.C. Circuits - Part 1
24.15
-
Parallel Resonance in A.C. Circuits - Part 2
12.38
-
Introduction to State Space Analysis
69.29
-
State Space Analysis in Electrical Circuits
27.01
-
Concept of Q-Factor
4.2
-
Q-Factor Calculation in RL, RC and RLC Circuits
9.43
-
Relation Between Q Factor and Bandwidth
6.22
-
GATE Numericals on A.C. Circuits - Part 1
31.44
-
Transfer Function from State Space Model
48.37
-
Introduction to Canonical Forms
12.52
-
Controllable Canonical Form
45.24
-
GATE Numericals on A.C. Circuits - Part 2
17.3
-
GATE Numericals on A.C. Circuits - Part 3
19
-
GATE Numericals on A.C. Circuits - Part 4
30.39
-
Observable Canonical Form
9.26
-
Examples on Controllable Canonical Form and Observable Canonical Form
16.49
-
Diagonal Canonical Form
25.24
-
Jordan’s Canonical Form
12.39
-
Examples on Diagonal Canonical Form and Jordan Canonical Form
37.29
-
Introduction to Graph Theory
19.22
-
Incidence, Cutset and Tieset Marix
29.17
-
GATE Numericals on Graph Theory - Part 1
12.48
-
GATE Numericals on Graph Theory - Part 2
12.45
-
Stability Using State Space
25.03
-
Solution to State Space Equations (Inverse Laplace Transform Approach)
58.19
-
Solution to State Space Equations (Cayley Hamilton Theorem)
39.06
-
Introduction to Coupling Factor and Mutual Inductance
18.24
-
Numericals on Magnetically Coupled Circuit
14.36
-
Solution to State Space Equations When Input is Non-Zero
50.05
-
Concept of Controllability and Observability
23.36
-
Numericals on State Space Analysis
36.29
-
Numericals Part 01
60.01
-
Numericals Part 02
41.26
-
Numericals Part 03
26.36
-
Numericals Part 04
46.42
-
Numericals Part 05
22.05
-
Cartesian Coordinate System
11.29
-
Line Integration, Surface Integration and Volume Integration in Cartesian Coordinate System
13.41
-
Numerical 1 on Line Integration
3.02
-
Numerical 1 on Surface Integration
2.36
-
Numerical 1 on Volume Integration
2.26
-
Concept of Signal
33.03
-
Operation on Continuous Time Signal - Part 1
36.07
-
Operation on Continuous Time Signal - Part 2
21.27
-
Preliminary Topics 1
26.09
-
Preliminary Topics 2
19.21
-
Numerical Based on Signal
35.49
-
Elementary Continuous Time Signals
8.04
-
Operation on Step Signal
22.14
-
Numericals on Step Signal
13.1
-
Generation of Signum Function
24.07
-
Cylindrical Coordinate System
12.50
-
Vector Conversion Between Cylindrical and Cartesian Coordinate System
8.16
-
Numerical 1 for Vector Conversion Between Cartesian and Cylindrical Coordinate System
3.15
-
Line Integration, Surface Integration and Volume Integration in Cylindrical Coordinate System
6.49
-
Numerical 2 on Line Integration
7.27
-
Numerical 2 on Surface Integration
9.43
-
Spherical Coordinate System
10.06
-
Vector Conversion Between Spherical and Cartesian Coordinate System
2.36
-
Numerical 1 for Vector Conversion Between Spherical and Cartesian Coordinate System
3.15
-
Generation of DC Signal and GATE Function
13.56
-
Elementary Continuous Time Signal (Impulse Signal)
17.29
-
Elementary Continuous Time Signal (Ramp Signal)
14.26
-
Numericals on Elementary Continuous Time Signals
18.09
-
Interrelationship Between Elementary Continuous Time Signal
11.45
-
Operations with Continuous Time Impulse Signal
14.31
-
Bond Model of Semiconductor - Part-1
45.16
-
Divergence of Vector and Divergence Theorem
8.40
-
Numerical 1 on Divergence
1.47
-
Numerical 2 on Divergence
2.33
-
Numerical 1 on Divergence Theorem
2.53
-
Numerical 2 on Divergence Theorem
3.32
-
Curl and Stoke's Theorem
6.03
-
Numerical 1 on Curl
2.48
-
Numerical 2 on Curl
2.33
-
Product Property of Continuous Time Impulse Signal
11.2
-
Elementary Discrete Time Signals - Part 1 (Unit Impulse)
7.58
-
Elementary Discrete Time Signals - Part 2 (Unit Step)
7.35
-
Elementary Discrete Time Signals - Part 3 (Unit Ramp)
6.27
-
Elementary Discrete Time Signals - Part 4 (Exponential Signal)
7.28
-
Classification of Signals - Part 1 (Even and Odd)
29.08
-
Classification of Signals - Part 2 (Even Conjugate and Odd Conjugate)
23.05
-
Bond Model of Semiconductor - Part-2
73.02
-
Numerical 1 on Stoke's Theorem
5.14
-
Gradient of Scalar
2.59
-
Numerical 1 on Gradient
3.15
-
Numerical 2 on Gradient
1.35
-
Classification of Signals - Part 3 (Periodic and Nonperiodic Signals)
42.22
-
Numericals Based on Periodicity of Signal
36.1
-
Classification of Signals - Part 4 (Energy and Power)
16.54
-
Energy Band Model
36.21
-
Introduction and Coulomb's Law
6.45
-
Numerical 1 on Coulomb's Law
2.45
-
Electric Field Intensity
2.16
-
Numerical 1 on Electric Field Intensity
2.02
-
Distributed Charges Line Charge Surface Charge and Volume Charge
5
-
Electric Field Intensity Due to Line Charge
7.54
-
Numerical 1 on Line Charge Electric Field
3.27
-
Numericals Based on Energy and Power
37.52
-
Effect of Time Shifting, Scaling and Reversal on Energy and Power
34.12
-
Introduction to Systems
6.42
-
Static and Dynamic Systems
19.03
-
Different Types of Semi- Conductors
6.56
-
Band Diagram of Intrinsic , n Type , p Type Semiconductor
12.59
-
Electric Field Intensity Due to Surface Charge
7.32
-
Numerical 1 on Surface Charge Electric Field
2.34
-
Numerical 2 on Line and Surface Charge Electric Field
5.17
-
Flux Density and Gauss's Law, Maxwell Equation
5.34
-
Numerical 1 on Gauss's Law
5.01
-
Invertible and Non Invertible System
15.31
-
Causal and Non Causal System
11
-
Stable and Unstable System
16.58
-
Time Variant and Time Invariant System
22.26
-
Linear and Non Linear System
21.34
-
Conductivity of P Type Semiconductor
2.22
-
Conductivity Variation with Temperature
3.19
-
Current Density
2.14
-
Leakage Current in Semiconductor
7.51
-
Conductivity Sensitivity of Semiconductor
3.43
-
Comparison of Electrical Properties of Si and Ge
5.25
-
Recombination and Generation of Carriers
6.1
-
Numerical 2 on Gauss's Law
5.33
-
Numerical 3 on Gauss's Law
3.04
-
Numerical 4 on Gauss's Law
3.45
-
Work Done and Electric Potential and Maxwell Equation
6.46
-
Numerical 1 on Work Done
2.42
-
Numerical 2 on Work Done
5.21
-
Impulse Response
23.12
-
Introduction to Convolution
17.18
-
Discrete Time Convolution - Part 1
40.26
-
Numerical 1 Based on Different Type of Semiconductors
4.1
-
Numerical 2 Based on Different Type of Semiconductors
2.37
-
Numerical 3 Based on Different Type of Semiconductors
2.17
-
Numerical 4 Based on Different Type of Semiconductors
3.4
-
Drift Phenomenon
4.13
-
Diffusion Phenomenon
4.41
-
Concentration Gradient
6.5
-
Electron and Hole Diffusion Current
5.37
-
Numerical 1 on Potential V
3.35
-
Relationship Between E and V
2.35
-
Numerical 2 on Potential V
1.57
-
Electric Boundary Condition (Dielectric Dielectric Interface)
9.24
-
Discrete Time Convolution - Part 2
25.4
-
Convolution of Input with Impulse Function
33.01
-
Convolution of Input with Step Function
27.36
-
Diffusion Length
3.46
-
Total Current Components in Semiconductor
3.44
-
Fermi Energy
4.26
-
Fermi Energy level
2.58
-
Band Diagram of Intrinsic , n Type , p Type Semiconductor
5.41
-
Concept of Effective Mass
8.1
-
Numerical Based on Band Diagram
5.06
-
Numerical 1 on Boundary Condition
10.06
-
Electric Field Behaviour on Conductor
4
-
Electric Boundary Condition (Dielectric Conductor Interface)
1.51
-
Numerical 2 on Boundary Condition
2.59
-
Poission's and Laplace's Equations
4.54
-
Numerical 1 on Laplace's Equation
2.46
-
Continuous Time Convolution of Rectangular Pulses
36.01
-
Numerical Based on Continuous Time Convolution
25.39
-
Convolution of Exponential Signals
27.48
-
Numerical Based on Convolution of Exponential Signal
12.16
-
Electron Concentration in the Conduction Band in Intrinsic Semiconductor
9.03
-
Hole Concentration inside the Valance Band in Intrinsic Semiconductor
10.03
-
Equation for Intrinsic Carriers Concentration in Semiconductor
10.11
-
Numerical 2 on Laplace's Equation
3.29
-
Numerical 3 on Laplace's Equation
4.18
-
Parallel Plate Capacitor
6.03
-
Coaxial Capacitor
4.35
-
Spherical Capacitor
3.38
-
Numerical 1 on Capacitor
3.09
-
Method of Images (Image Theory)
3.34
-
Properties of Convolution
40.47
-
Causality and Stability Based on Impulse Response
31.14
-
Injection of Minority Carriers in Extrinsic Semiconductor
11.43
-
Numericals on Minority carriers Injection
14.3
-
Law of Electrical Neutrality
5.48
-
Numerical 1 on Image Theory
4.29
-
Numerical 2 on Image Theory
2.12
-
Continuity Equation and Relaxation Time
8.28
-
Electric Dipole
5.01
-
Numerical 1 on Electric Dipole
2.31
-
Energy Density in Electrostatic Field
4.40
-
Numerical 1 on Energy Density
1.5
-
Introduction to Fourier Series
28.23
-
Fourier Series - Part 1
22.46
-
Fourier Series - Part 2
12.54
-
Fourier Series - Part 3
59.43
-
Procedure to Calculate Minority & Majority Carriers- Part I
6.56
-
Procedure to Calculate Minority & Majority Carriers- Part II
11.34
-
Definition of Compensated Semiconductor
6.11
-
Calculation for Majority &b Minoriity Carrier Concentration for N type Compensated Semi Conductor
10.43
-
Introduction and Biot Savart Law
5.57
-
Magnetic Field Intensity Due to Infinite Long Current Carrying Wire
6.25
-
Numerical 1 Magnetic Field Due to Wire
2.49
-
Magnetic Field Intensity Due to Finite Length Current Carrying Wire
5.11
-
Numerical 2 Magnetic Field Due to Wire
4.09
-
Magnetic Field Due to Circular Loop
5.16
-
Fourier Series - Part 4
38.06
-
Fourier Series - Part 5
25.11
-
Fourier Series - Part 6
33.43
-
Calculation for Majority &b Minoriity Carrier Concentration for P type Compensated Semi Conductor
4.39
-
Numerical 1 on Compensated Semiconductor
6.59
-
Numerical 2 on Compensated Semiconductor
9.37
-
Numerical 3 on Compensated Semiconductor
7.26
-
Numerical 4 on Compensated Semiconductor
3
-
Numerical 1 on Magnetic Field Due to Circular Loop
2.12
-
Ampere's Law and Maxwell Equation
2.36
-
Numerical 1 on Ampere's Law
4.06
-
Numerical 2 on Ampere's Law
3.19
-
Magnetic Flux Density and Maxwell Equation
3.21
-
Magnetic Vector and Scalar Potential
4.2
-
Numerical 1 on Magnetic Vector Potential
2.36
-
Properties of Fourier Series - Part 1
29.31
-
Properties of Fourier Series - Part 2
22.3
-
Numericals on Fourier Series
36.55
-
Numerical 5 on Compensated Semiconductor
10.09
-
Numerical 6 on Compensated Semiconductor
2.22
-
Critical Wavelength of Semiconductor
9.42
-
Numerical 01 on Critical Wavelength
5.56
-
Magnetic Boundary Condition
8.57
-
Numerical 1 on Magnetic Boundary Condition
4.42
-
Numerical 2 on Magnetic Boundary Condition
5.17
-
Lorentz Force
3.07
-
Force on Current Carrying Wire in Magnetic Field
6.45
-
Introduction to Fourier Transform
42.45
-
Fourier Transform - Part 1
29.34
-
Numerical 02 on Critical Wavelength
7.17
-
Drift Velocity WRT Scattering Time
4.38
-
Numerical on Drift Velocity WRT Scattering Time
4.56
-
Value of Electron and Hole Concentration When Conductivity is Minimum
9.07
-
Calculation of Minimum Conductivity in Semiconductor
5.48
-
Faraday's Law
2.32
-
Transformer and Motional EMF
3.22
-
Numerical 1 on Transformer and Motional EMF
4.10
-
Modification in Ampere's Law for Time Varying Field
5.57
-
Maxwell's Equation for Time Varying Field
2.05
-
Numerical 1 on Displacement Current
1.56
-
Fourier Transform - Part 2
51.3
-
Fourier Transform - Part 3
51.55
-
Donor Concentration Value in the n-Type Semiconductor at Minimum Conductivity
4.14
-
Acceptor Concentration Value in the p-Type Semiconductor at Minimum Conductivity
4.27
-
Perfect Temperature to Operate p Type and n Type Semiconductor
13.5
-
Uniform Doping
5.2
-
Further Detailing of Non Uniform Doping
8.08
-
Introduction and EM Wave Equation in Different Mediums(Helmholtz Equation)
14.34
-
Intrinsic Impedance
4.12
-
Numerical 1 on EM Wave
5.15
-
Numerical 2 on EM Wave
4.56
-
Numerical 3 on EM Wave
6.5
-
Numerical 4 on EM Wave
6.53
-
Fourier Transform - Part 4
45.02
-
Fourier Transform - Part 5
40.18