• Introduction
• NOR gate
• XOR gate
• (AND Gate) bit counter
• (OR Gate) bit counter
• (D Flip-Flop) bit counter
• 3-bit Binary Adder
• JK Flip-flop Binary Counter
• Other projects

Imagine tiny switches – transistors – like the alphabet of a secret code. Today, we crack that code, learning how to combine these switches into simple gates like AND, OR, and NOT. Then, like building words from letters, we'll use these gates to build amazing things: counters that keep track, adders that sum numbers, and even timers that tick away! Get ready to journey from the building blocks of electronics to mini-machines that work their magic – all from simple logic and a spark of imagination!

This project is all about making a "NOT-OR" machine, also known as a NOR gate, using building blocks: resistors and transistors. These tiny parts act like switches, letting us control electricity and perform cool logic tricks.

This project delves into the construction and operation of Exclusive-OR (XOR) gates using discrete components, specifically transistors, resistors, and diodes. This exploration aims to provide a hands-on understanding of fundamental digital logic circuits and their practical realization.

This project proposes the design and construction of a four-bit binary counter utilizing discrete AND gates. This initiative delves into the fundamental principles of digital logic, providing a captivating and practical learning experience.

This project leverages the unique properties of OR gates to achieve binary counting logic, offering an alternative approach to traditional counter designs employing other gate types.

This project aims to design and implement a 4-bit binary counter using D-type flip flops. The counter will increment its binary count by 1 with each clock pulse, sequentially cycling through all 16 possible combinations (0000 to 1111).

This project aims to design and implement a 3-bit binary adder using only three fundamental logic gates: OR, AND, and XOR. This adder will take two 3-bit binary numbers as input and generate a 4-bit sum output

This project focuses on the development of a 4-bit binary counter circuit, capable of sequentially iterating through 16 distinct states upon receiving clock pulses. Utilizing JK flip-flops as the core storage elements, the counter leverages their inherent toggle functionality to achieve precise and synchronized state transitions.

Temperature-Monitoring-with-Control-System	Elevator-Project-with-Proteus-and-Arduino