Digital System Learning Through Circuit Simulation
Published 8/2025
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 5.46 GB | Duration: 8h 43m
Published 8/2025
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 5.46 GB | Duration: 8h 43m
Number systems, logic gates, Boolean logic
What you'll learn
understanding of digital systems
Enables students to build and test logic circuits virtually.
Enhances conceptual clarity by allowing real-time interaction with digital components.
Strengthens circuit design skills
Requirements
Number systems
Description
Course Description:This course offers a foundational understanding of digital electronics, focusing on essential topics such as number systems, Boolean algebra, logic gates, and complements. Designed for beginners and electronics enthusiasts, the course begins by exploring various number systems including binary, octal, decimal, and hexadecimal, along with the techniques to convert values from one system to another. Learners will then dive into the principles of Boolean algebra, learning how to apply fundamental postulates, theorems, and DeMorgan’s laws to simplify logical expressions.A dedicated section on complements (1’s and 2’s, & 9's complement and 10's complements in r's and (r–1)’s) provides the tools needed for efficient binary arithmetic and error detection. As students progress, they will gain hands-on experience in understanding the operation of basic and universal logic gates (AND, OR, NOT, NAND, NOR, XOR, and XNOR), including their real-time implementation using simulation platforms like Tinkercad.By the end of the course, the learners will be equipped with the skills to analyze and design basic digital circuits, laying the groundwork for more advanced studies in digital system design and embedded systems. This course is ideal for engineering students, diploma holders, and self-learners seeking to strengthen their digital electronics fundamentals as well as circuit designing.
Overview
Section 1: Introduction
Lecture 1 Important of This course
Section 2: Conversion from one radix to other radix
Lecture 2 Conversion from one radix to other radix
Lecture 3 Conversions with examples
Section 3: Postulates and Theorems of Boolean Algebra
Lecture 4 Postulates and Theorems of Boolean Algebra
Lecture 5 Principle of Duality in Boolean Algebra
Section 4: DeMorgan's Theorem
Lecture 6 DeMorgan's Theorems
Lecture 7 Axiomatic_Boolean_Algebra
Section 5: radix Complements
Lecture 8 Complements
Section 6: r's Complements
Lecture 9 r's Complements
Lecture 10 subtraction using r's complements
Lecture 11 r's Complement and (r–1)'s Complement with examples
Section 7: simulation using tinkercad
Lecture 12 simulation using tinkercad introduction
Lecture 13 Logic Gates
Lecture 14 Logic Gates design
Lecture 15 Basic gates designing universal gates
Lecture 16 OR gate using NAND Gate
Lecture 17 OR Gate Using NOR Gate
Section 8: Special Logic gates using Universal Gates
Lecture 18 EX-OR and EX-NOR Gates
Section 9: K-map
Lecture 19 K-map and Gate minimization importance
Lecture 20 K-map Representation
Lecture 21 example of K-map
Lecture 22 Example of K-map with 3 variables
Lecture 23 K-map with 4 variables
Lecture 24 K-map simplification and realization with NAND-NAND & NOR-NOR
This course is intended for engineering students, hobbyists, and beginners who want to gain practical knowledge of digital systems through interactive simulations. It is especially valuable for learners seeking hands-on experience in logic circuit design without requiring physical hardware.