CS 1105-01 – AY2025-T4 | Verified study set complete Solutions | A+
Graded | 2026 Updated | 100% correct
CS 1105-01 - AY2025-T4
Assignment Activity Unit 3
Designing a Binary Counter Display Project
Scenario Description and Justification:
For this assignment, we will design a binary counter display. This scenario involves sequential
circuits where registers and counters are essential. The counter increments in binary with each
clock pulse, and the binary output is displayed via LEDs.
Justification:
A binary counter display is an excellent choice because:
1. It demonstrates how counters and registers work together to store and manipulate
data.
2. It provides a simple, interactive, and visual way for students to observe sequential
circuit behavior.
3. Binary counters are foundational in real-world applications like timers, event counters,
and digital clocks.
Step-by-Step Circuit Design Analysis:
1. Overview of the Design:
o We will use a 4-bit binary counter driven by a clock signal. o The counter
outputs are stored in 4 D flip-flops (registers) and displayed on 4
LEDs. o Each LED represents one bit of the binary
counter.
o A reset button allows the counter to restart from 0.
Graded | 2026 Updated | 100% correct
CS 1105-01 - AY2025-T4
Assignment Activity Unit 3
Designing a Binary Counter Display Project
Scenario Description and Justification:
For this assignment, we will design a binary counter display. This scenario involves sequential
circuits where registers and counters are essential. The counter increments in binary with each
clock pulse, and the binary output is displayed via LEDs.
Justification:
A binary counter display is an excellent choice because:
1. It demonstrates how counters and registers work together to store and manipulate
data.
2. It provides a simple, interactive, and visual way for students to observe sequential
circuit behavior.
3. Binary counters are foundational in real-world applications like timers, event counters,
and digital clocks.
Step-by-Step Circuit Design Analysis:
1. Overview of the Design:
o We will use a 4-bit binary counter driven by a clock signal. o The counter
outputs are stored in 4 D flip-flops (registers) and displayed on 4
LEDs. o Each LED represents one bit of the binary
counter.
o A reset button allows the counter to restart from 0.