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Udemy - The Beginner'S Guide To Digital Design - OneDDL - 03-09-2025
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Free Download Udemy - The Beginner'S Guide To Digital Design
Published: 3/2025
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 7.97 GB | Duration: 15h 18m
Digital Electronics
What you'll learn
Understand Decimal and Binary Number Systems.
Convert Between Binary and Decimal Systems.
Understand the Basics of Hexadecimal Numbers.
Interpret Bytes and Nibbles.
Perform Binary Addition.
Identify and Resolve Overflow Issues in Binary Arithmetic.
Understand Signed Number Representation.
Work with Two's Complement Representation.
Handle Two's Complement Overflow.
Perform Binary Subtraction Using Two's Complement.
Extend Sign Bits in Signed Numbers.
Recognize and Resolve Range Issues in Signed Numbers.
Understand Basic Logic Gates including AND, OR, NOT, NAND, NOR, XOR, and XNOR.
Interpret and Create Truth Tables.
Simplify Boolean Expressions.
Design Digital Circuits.
Understand the Role of Buffers.
Analyze Multi-Input Logic Gates.
Work with Parity Circuits.
Solve Practical Problems Using Logic Gates.
Understand and Implement Gate-Level Minimization.
Understand Digital Abstraction Concepts.
Identify Different Supply Voltages.
Define and Work with Logic Levels.
Calculate and Interpret Noise Margins.
Understand DC Transfer Characteristics.
Explain the Role of Semiconductors in Electronics.
Describe the Function of Diodes in Circuits.
Understand the Role and Operation of Capacitors.
Describe MOSFET Operation.
Differentiate Between Types of MOSFETs.
Analyze nMOS and pMOS Transistor Operation.
Design CMOS Circuits.
Implement Basic Logic Gates Using Transistors.
Work with Series and Parallel Transistor Configurations.
Create and Analyze Two-Input Logic Gates Using CMOS.
Boolean Equations
Sum-of-Products (SOP) and Product-of-Sums (POS)
Boolean Axioms and Laws (Identity, Null, Idempotent, Complement, De Morgan's Law, etc.)
Equation Minimization Techniques
Converting Boolean Equations to Schematics
Priority Encoders
Multi-Level Combinational Logic
Karnaugh Maps (K-Maps)
Prime Implicants and Redundant Prime Implicants
Logic Minimization using K-Maps
SOP and POS Forms for 3 and 4 Variables
Binary Coded Decimal (BCD) and 7-Segment Display Encoding
Bubble Pushing
High Impedance ('z') and Unknown Values ('x')
Pull-Up and Pull-Down Resistors
Tristate Buffers
Gray Code
Implementing logic functions using 2:1 MUX
NAND, NOR, XOR, and XNOR using 2:1 MUX
Exercises and solutions for 8x1 and 16x1 Multiplexers
3:8 and 4:16 Decoders with exercises and solutions
Contamination and Propagation Delay
Critical and Short Path Analysis
Glitches in Combinational Circuits
Understanding the difference between combinational and sequential circuits.
Role of clock signals in sequential circuits.
Concept of triggering and bistable elements.
SR Latch
JK Latch
D Latch
T Latch
Functional behavior and use cases of each latch type.
D Flip-Flop
Registers
Flip-Flop with Enable
Flip-Flop with Synchronous and Asynchronous Reset
Settable Flip-Flops
How flip-flops store and transfer data in digital circuits.
Understanding FSMs and their role in digital design.
Mealy State Machine vs. Moore State Machine.
State Encoding in FSMs.
Practical FSM designs like a Traffic Light Controller.
Designing sequence detectors using both Moore and Mealy FSMs.
Requirements
Understanding of basic arithmetic operations (addition, subtraction, multiplication, division).
Familiarity with exponents and powers.
Ability to understand and apply logical reasoning.
Basic problem-solving skills.
Curiosity about how numbers and data are represented in computers and digital systems.
The course is designed for beginners with no prior experience in number systems or digital electronics.
All necessary concepts and techniques will be introduced and explained from the ground up.
Description
The course on Digital Logic Design and Sequential Circuits offers a comprehensive introduction to digital electronics, covering essential topics from fundamental number systems and logic gates to advanced sequential circuits and finite state machines (FSMs). The curriculum is designed to provide a strong foundation in both combinational and sequential logic, enabling learners to design and analyze complex digital systems. It includes topics such as decimal, binary, and hexadecimal numbers, binary addition, and signed numbers. The course delves into the functionality and applications of various logic gates, including AND, OR, NOT, XOR, NAND, NOR, and XNOR, along with N-input gates and parity gates. Analog concepts such as digital abstraction, supply voltage, noise margins, and logic levels are also covered, along with an introduction to transistors and DC transfer characteristics. Learners will explore combinational circuits, including Boolean equations, simplification techniques, Sum-of-Products (SOP), Product-of-Sums (POS) forms, Karnaugh Maps, Gray Code, Binary Coded Decimal (BCD), and practical components like multiplexers, decoders, and tristate buffers. The sequential circuits section covers critical topics such as clock signals, triggering, bistable elements, latches, and flip-flops, leading to finite state machines, including Mealy and Moore machines, with practical examples such as traffic light controllers and sequence detectors. The course also addresses advanced topics, including contamination and propagation delays, critical and short path analysis, and handling glitches in combinational circuits. By the end of this course, participants will gain the knowledge and skills to design, simulate, and optimize both combinational and sequential logic circuits, making it ideal for electronics and computer engineering students, VLSI freshers, and professionals seeking to enhance their expertise in digital design and verification.
Overview
Section 1: Number Systems
Lecture 1 Decimal Numbers
Lecture 2 Decimal Numbers
Lecture 3 Binary Numbers
Lecture 4 Binary Numbers
Lecture 5 Binary Numbers Continued
Lecture 6 Binary Numbers Continued
Lecture 7 Binary To Decimal Conversion
Lecture 8 Binary To Decimal Conversion
Lecture 9 Decimal To Binary Conversion
Lecture 10 Decimal To Binary Conversion
Lecture 11 Hexadecimal Numbers
Lecture 12 Hexadecimal Numbers
Lecture 13 Bytes and Nibbles
Lecture 14 Bytes and Nibbles
Lecture 15 Decimal To Hexadecimal Conversion
Lecture 16 Decimal To Hexadecimal Conversion
Lecture 17 Binary Addition
Lecture 18 Binary Addition
Lecture 19 Binary Addition Example
Lecture 20 Binary Addition Example
Lecture 21 Overflow
Lecture 22 Overflow
Lecture 23 Signed Numbers
Lecture 24 Signed Numbers
Lecture 25 Two's Complement Representation Example
Lecture 26 Two's Complement Representation Example
Lecture 27 Two's Complement Representation Example
Lecture 28 Two's Complement Representation Example
Lecture 29 Two's Complement Addition
Lecture 30 Two's Complement Addition
Lecture 31 Two's Complement Subtraction
Lecture 32 Two's Complement Subtraction
Lecture 33 Two's Complement of Zero
Lecture 34 Two's Complement of Zero
Lecture 35 Two's Complement Range and Overflow
Lecture 36 Two's Complement Range and Overflow
Lecture 37 Two's Complement Overflow Example
Lecture 38 Two's Complement Overflow Example
Lecture 39 Sign Extension
Lecture 40 Sign Extension
Section 2: Logic Gates
Lecture 41 Truth Table and Binary Equation
Lecture 42 Truth Table and Binary Equation
Lecture 43 NOT Gate
Lecture 44 NOT Gate
Lecture 45 Buffer
Lecture 46 Buffer
Lecture 47 AND Gate
Lecture 48 AND Gate
Lecture 49 OR Gate
Lecture 50 OR Gate
Lecture 51 XOR Gate
Lecture 52 XOR Gate
Lecture 53 NAND Gate
Lecture 54 NAND Gate
Lecture 55 NOR Gate
Lecture 56 NOR Gate
Lecture 57 XNOR Gate
Lecture 58 XNOR Gate
Lecture 59 N-input AND Gate
Lecture 60 N-input AND Gate
Lecture 61 N-input OR Gate
Lecture 62 N-input OR Gate
Lecture 63 N-Input XOR Gate (Parity Gate)
Lecture 64 N-input XOR Gate(Parity Gate)
Lecture 65 Three-Input NOR Gate Example
Lecture 66 Three -Input NOR Gate Example
Lecture 67 Exercise
Section 3: Analog
Lecture 68 Digital Abstraction
Lecture 69 Digital Abstraction
Lecture 70 Supply Voltage
Lecture 71 Supply Voltage
Lecture 72 Logic Levels
Lecture 73 Logic Levels
Lecture 74 Noise Margins
Lecture 75 Noise Margins
Lecture 76 Example of Noise Margin
Lecture 77 Example of Noise Margin
Lecture 78 DC Transfer Characteristics and Logic Levels
Lecture 79 DC Transfer Characteristics and Logic Levels
Lecture 80 Understanding Semiconductors
Lecture 81 Understanding Semiconductors
Lecture 82 Diodes
Lecture 83 Diodes
Lecture 84 Understanding Capacitors
Lecture 85 Understanding Capacitors
Lecture 86 MOSFET
Lecture 87 MOSFET
Lecture 88 Types of MOSFETs
Lecture 89 Types of MOSFETs
Lecture 90 Operation of nMOS Transistor
Lecture 91 Operation of nMOS Transistor
Lecture 92 Operation of pMOS Transistor
Lecture 93 Operation of pMOS Transistor
Lecture 94 CMOS Technology
Lecture 95 CMOS Technology
Lecture 96 CMOS NOT Gate
Lecture 97 CMOS NOT Gate
Lecture 98 NMOS and PMOS Transistor Configurations
Lecture 99 NMOS and PMOS Transistor Configurations
Lecture 100 nMOS Series Configuration
Lecture 101 nMOS Series Configuration
Lecture 102 pMOS Series Configuration
Lecture 103 pMOS Series Configuration
Lecture 104 nMOS Parallel Configuration
Lecture 105 nMOS Parallel Configuration
Lecture 106 pMOS Parallel Configuration
Lecture 107 pMOS Parallel Configuration
Lecture 108 pMOS and nMOS Networks
Lecture 109 pMOS and nMOS Networks
Lecture 110 CMOS Two Inputs NAND Gate
Lecture 111 CMOS Two Inputs NAND Gate
Lecture 112 CMOS Two Inputs NOR Gate
Lecture 113 CMOS Two Inputs NOR Gate
Lecture 114 CMOS n-input NAND and NOR Gate
Lecture 115 CMOS n-input NAND and NOR Gate
Lecture 116 Two-input AND Gate Schematic
Lecture 117 Two-input AND Gate Schematic
Section 4: Combination Circuits
Lecture 118 Boolean Equation
Lecture 119 Boolean Equation
Lecture 120 Sum-of-Products
Lecture 121 Sum-of-Products
Lecture 122 Product-of-Sums
Lecture 123 Product-of-Sums
Lecture 124 SOP and POS Example
Lecture 125 SOP and POS Example
Lecture 126 Boolean Axioms
Lecture 127 Boolean Axioms
Lecture 128 Identity Law
Lecture 129 Identity Law
Lecture 130 Null Law (Null Element Law)
Lecture 131 Null Law (Null Element Law)
Lecture 132 Idempotent Law
Lecture 133 Idempotent Law
Lecture 134 Involution Law
Lecture 135 Involution Law
Lecture 136 Complement Law
Lecture 137 Complement Law
Lecture 138 Commutativity Law
Lecture 139 Commutativity Law
Lecture 140 Associativity Law
Lecture 141 Associativity Law
Lecture 142 Distributivity Law
Lecture 143 Distributivity Law
Lecture 144 Covering Law
Lecture 145 Covering Law
Lecture 146 Combining Law
Lecture 147 Combining Law
Lecture 148 Consensus Law
Lecture 149 Consensus Law
Lecture 150 De Morgan's Law
Lecture 151 De Morgan's Law
Lecture 152 Deriving the Product-of-Sums
Lecture 153 Deriving the Product-of-Sums
Lecture 154 Equations Minimization
Lecture 155 Equations Minimization
Lecture 156 Simplifying Equation Another Example
Lecture 157 Simplifying Equation Another Example
Lecture 158 Boolean Equation to Schematic
Lecture 159 Boolean Equation to Schematic
Lecture 160 Another Example of Boolean Equation to Schematic
Lecture 161 Another Example of Boolean Equation to Schematic
Lecture 162 Priority Encoder
Lecture 163 Priority Encoder
Lecture 164 Multi-Level Combinational Logic
Lecture 165 Multi-Level Combinational Logic
Lecture 166 Bubble Pushing
Lecture 167 Bubble Pushing
Lecture 168 Bubble Pushing Example
Lecture 169 Bubble Pushing Example
Lecture 170 Unknown Value 'x'
Lecture 171 Unknown Value 'x'
Lecture 172 High Impedance 'z'
Lecture 173 High Impedance 'z'
Lecture 174 Pull-Up and Pull-Down Resistors
Lecture 175 Pull-Up and Pull-Down Resistors
Lecture 176 Tristate Buffers
Lecture 177 Tristate Buffers
Lecture 178 Gray Code
Lecture 179 Gray Code
Lecture 180 Karnaugh Maps Overview
Lecture 181 Karnaugh Maps Overview
Lecture 182 Implicants
Lecture 183 Implicants
Lecture 184 Prime Implicants (PI)
Lecture 185 Prime Implicants (PI)
Lecture 186 Redundant Prime Implicants (RPI)
Lecture 187 Redundant Prime Implicants (RPI)
Lecture 188 Selective Prime Implicants (SPI)
Lecture 189 Selective Prime Implicants (SPI)
Lecture 190 Prime Implicants Example 1
Lecture 191 Prime Implicants Example 1
Lecture 192 Prime Implicants Example 2
Lecture 193 Prime Implicants Example 2
Lecture 194 Prime Implicants Example 3
Lecture 195 Prime Implicants Example 3
Lecture 196 Logic Minimization
Lecture 197 Logic Minimization
Lecture 198 SOP Form - 3 variables
Lecture 199 SOP Form - 3 variables
Lecture 200 SOP Form - 4 variables
Lecture 201 SOP Form - 4 variables
Lecture 202 POS Form - 3 Variables
Lecture 203 POS Form - 3 Variables
Lecture 204 POS Form - 4 Variables
Lecture 205 POS Form - 4 Variables
Lecture 206 Binary Coded Decimal (BCD)
Lecture 207 Binary Coded Decimal (BCD)
Lecture 208 BCD to 7-segment Display
Lecture 209 BCD to 7-segment Display
Lecture 210 Exercise
Lecture 211 Solution
Lecture 212 Multiplexer
Lecture 213 Multiplexer
Lecture 214 Exercise 8x1 Multiplexer
Lecture 215 Solution 8x1 Multiplexer
Lecture 216 Exercise 16x1 Multiplexer
Lecture 217 Solution: 16x1 Multiplexer
Lecture 218 Implementing 4x1 mux using 2x1 mux
Lecture 219 Implementing 4x1 mux using 2x1 mux
Lecture 220 NAND Gate using 2x1 Mux
Lecture 221 NAND Gate using 2x1 Mux
Lecture 222 NOR Gate using 2x1 mux
Lecture 223 NOR Gate using 2x1 mux
Lecture 224 XOR Gate using 2x1 mux
Lecture 225 XOR Gate using 2x1 mux
Lecture 226 Exercise: XNOR Gate using 2x1 mux
Lecture 227 Solution: XNOR Gate using 2x1 mux
Lecture 228 Decoders
Lecture 229 Decoders
Lecture 230 Exercise: 3:8 Decoder
Lecture 231 Solution: 3:8 Decoder
Lecture 232 Exercise: 4:16 Decoder
Lecture 233 Solution: 4:16 Decoder
Lecture 234 Contamination and Propagation Delay
Lecture 235 Contamination and Propagation Delay
Lecture 236 Critical and Short Path
Lecture 237 Critical and Short Path
Lecture 238 Example of Contamination and Propagation Delays
Lecture 239 Example of Contamination and Propagation Delays
Lecture 240 Glitch in Combinational Circuit
Lecture 241 Glitch in Combinational Circuit
Section 5: Sequencial Circuits
Lecture 242 What is a Sequential Circuit?
Lecture 243 What is a Sequential Circuit?
Lecture 244 Clock Signal
Lecture 245 Clock Signal
Lecture 246 Triggering
Lecture 247 Triggering
Lecture 248 Bistable Element
Lecture 249 Bistable Element
Lecture 250 Latches
Lecture 251 Latches
Lecture 252 SR Latch
Lecture 253 SR Latch
Lecture 254 JK Latch
Lecture 255 JK Latch
Lecture 256 D Latch
Lecture 257 D Latch
Lecture 258 T Latch
Lecture 259 T Latch
Lecture 260 D-Flip
Lecture 261 D-Flip
Lecture 262 Register
Lecture 263 Register
Lecture 264 Flip Flop with Enable
Lecture 265 Flip Flop with Enable
Lecture 266 Flip-Flop with Synchronous Reset
Lecture 267 Flip-Flop with Synchronous Reset
Lecture 268 Flip-Flop with Asynchronous Reset
Lecture 269 Flip-Flop with Asynchronous Reset
Lecture 270 Settable Flip-Flops
Lecture 271 Settable Flip-Flops
Lecture 272 Finite State Machine
Lecture 273 Finite State Machine
Lecture 274 Mealy State Machine
Lecture 275 Mealy State Machine
Lecture 276 Moore State Machine
Lecture 277 Moore State Machine
Lecture 278 Traffic Light Controller
Lecture 279 Traffic Light Controller
Lecture 280 State Encoding in FSMs
Lecture 281 State Encoding in FSMs
Lecture 282 Overlaping Sequence Detector using Moore
Lecture 283 Overlaping Sequence Detector using Moore
Lecture 284 Overlaping Sequence Detector using Mealy
Lecture 285 Overlaping Sequence Detector using Mealy
Students studying computer science, electrical engineering, or related fields who need to understand number systems and their applications.,Hobbyists and enthusiasts interested in learning about the fundamentals of how numbers are represented and manipulated in digital systems.,Individuals looking to start a career in programming, software development, or embedded systems who need a solid understanding of number systems.,Those preparing for technical interviews or certification exams where knowledge of number systems is required.,Professionals in IT, engineering, or related fields who want to refresh their understanding of number systems and their applications in modern technology.,Teachers and trainers looking for comprehensive material to teach number systems to their students or trainees.
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