Project name: "A Journey from Saint Martin to Singapore"

🚢 Project Title: A Journey from Saint Martin to Singapore

For my 7th-semester Computer Graphics course, my team and I developed a multi-scene 2D animation project. It tells the visual story of a ship’s journey across different environments, featuring dynamic weather, day-night cycles, and interactive controls.

🌟 Project Overview

The project is divided into 5 distinct scenes, each handled by a different team member. We used OpenGL primitives (polygons, lines, and circles) to draw every element from scratch—from the massive cargo ships to the tiny raindrops.

🛠️ How the Project Works

The project is interactive. Instead of just watching a video, the user controls the world using the keyboard and mouse. Here is a breakdown of the features:

1. Dynamic Scenes

• Scene 1 & 2: Features a large cargo ship and a bridge. You can toggle between a bright morning and a dark night.

• Scene 3 & 5: Includes coastal views with windmills and palm trees. Scene 5 even features a beautiful sea-side resort with a swimming pool.

• Scene 4: A more "urban" transition showing a road and a human character moving along the path.

2. Interactive Weather & Physics

We implemented several "real-time" effects:

• Rain System: By pressing 'R', a randomized particle system generates rain, accompanied by actual rain sound effects.

• Animation: Clouds drift across the sky, windmill blades rotate, and ships move across the water using timer functions ($glutTimerFunc$) to keep the movement smooth.

• Sound Effects: We integrated Windows Multimedia headers to play sounds for sea waves, ship horns, and even a helicopter.

3. User Controls

• Switching Scenes: Use keys 1 to 5 to jump between different parts of the journey.

• Mouse Interaction: In several scenes, clicking the Right Mouse Button starts the ship's engine, while the Left Mouse Button can slow it down or change the time of day.

💻 Technical Details

• Language: C++

• Graphics Library: OpenGL / GLUT

• Development Environment: Code::Blocks

• Key Concepts: Transformation (Translation, Rotation), Coordinate Systems ($gluOrtho2D$), and Color Buffering.

📝 Conclusion

This project was a great way to understand how math and code come together to create art. Moving from a blank white screen to a fully animated world with sound was a challenging but rewarding experience for our 7th semester!

Project name: "Online Bookstore Management System." 

My 4th Semester Journey: Building the Online Bookstore Management System

University life is full of challenges, and for me, the 4th semester was all about diving deep into the world of data. As part of my Introduction to Database course at AIUB (Summer 2022-2023), my team and I were tasked with creating a system that could handle a real-world business. We chose to build the Online Bookstore Management System.

The Heart of the Project: Planning & Design

We started by imagining how a real bookstore works. We needed to connect customers, books, authors, and orders. * The ER Diagram: We used "Visual Diagram" to draw our ER model. It shows how a Customer places an Order, how Books are written by Authors, and how Publishers manage the stock.

• Normalization: To make sure our database was efficient and had no "messy" data, we followed 1NF, 2NF, and 3NF rules. This helped us split the information into 10 clean tables like Books, Customers, Payments, and Address .

Bringing it to Life with Oracle 10g

After the design was ready, it was time to get our hands dirty with code! Using Oracle 10g, we performed the following:

1. Table Creation: We wrote SQL commands to build the structure of our store. For example, the Orders table tracks the date and total amount, while the Books table keeps track of prices and stock levels.

2. Data Insertion: We added sample data to see our store in action—books like "Tale of Glory" and "Rise of Rivals" were added to our digital shelves.

3. Smart Queries: We tested the system with various queries. We practiced everything from simple SELECT commands to complex Inner and Outer Joins to see which author wrote which book. We even created Views to make it easier for a manager to see "Book Order Details" at a glance.

Why this Project Matters

Building this system wasn't just about getting a grade; it was about understanding how the "backbone" of modern websites works. It taught us how a well-organized database can improve customer experience and help a business grow.

Looking back at my 4th semester, this project stands out as a big milestone in my journey as a student.

Note: You can find the full project documentation and the PDF on my GitHub.

Project name: "Automatic Plant Watering Project."

Keeping Your Plants Happy: Our Automatic Plant Watering Project

Have you ever forgotten to water your plants or worried about them while you were away? Our team at the American International University - Bangladesh decided to tackle this common problem. As part of our Faculty of Engineering studies, we built an Automatic Plant Watering System designed to take the guesswork out of gardening.

Meet the Team

This project was a group effort by four dedicated students from the Department of Electrical & Electronics Engineering (Section N, Group 03), under the supervision of Dr. Shuvra Mondal:

• Foysal Munsy

• Tasnia Ahmed

• Tahasin Rana

• MD. Towfiq Bin Hasan

Why an Automatic System?

The goal was simple: create a system that ensures plant health through precise watering. By monitoring soil moisture in real-time, the system only triggers irrigation when the plant actually needs it. This gives owners peace of mind and prevents both underwatering and overwatering.

The "Brain" and the Tools

To build this, we used several key electronic components:

• Arduino Uno: The main controller (the "brain").

• Soil Moisture Sensor: To check how wet or dry the soil is.

• Water Pump & Pipe: To deliver the water.

• 5-Volt Relay Module: Acts as a switch to turn the pump on and off.

• Connecting Wires: To link all the parts together.

How We Put It Together

The assembly involves two main parts: the sensor and the pump control.

1. The Sensor: We connected the soil moisture sensor to the Arduino. Its digital output (DO) pin goes to Arduino pin 6, and it receives power from the 3.5V pin.

2. The Pump: The relay module is connected to Arduino pin 3. This module then sits between a 5V power supply and the water pump, acting as the gatekeeper for electricity.

How It Works in 4 Steps

Once set up, the system follows a clear logic:

1. Check: The sensor constantly monitors the soil's wetness.

2. Signal: When the soil gets too dry, the sensor tells the Arduino.

3. Action: The Arduino activates the relay, which turns on the water pump.

4. Stop: The pump waters the plant until the sensor detects enough moisture, then the Arduino shuts it off to save water.

This project shows how simple technology can make everyday life a little easier and a lot greener!

Project name: "An IoT-Based Robotic Rover with ESP32-CAM."

Meet DisasterX: The IoT Rover Saving Lives in Danger Zones

Imagine a building collapses or a hazardous chemical leak occurs. Sending people into these areas is incredibly dangerous. This is exactly where DisasterX comes in a smart, remote-controlled robot designed to go where humans can't.

Created by a team of students at American International University-Bangladesh (AIUB), this project shows how affordable technology can solve massive real-world problems.

What Exactly is DisasterX?

DisasterX is an IoT-based robotic rover. Think of it as a high-tech explorer on wheels. It’s equipped with a camera and a robotic arm, allowing an operator to see what the robot sees and interact with the environment from a safe distance.

How Does It Work?

The "brain" of the robot is an Arduino Uno, which coordinates all its movements. Here is the breakdown of its main features:

• Real-Time Video: Using an ESP32-CAM module, the rover streams live video directly to a phone or computer over Wi-Fi.

• The Robotic Arm: It has a servo-powered arm that can pick up lightweight objects or clear small pieces of debris.

• Go-Anywhere Wheels: A four-wheel-drive system powered by DC motors helps it navigate rough and uneven terrain.

• Wireless Control: The operator uses a remote transmitter (RC) to steer the rover and move the arm with precision.

Testing and Results

The team didn't just build it; they put it to the test! Here is what they found:

• Stability: The rover can operate continuously for up to 2 hours.

• Range: It stays connected to the operator within a 30-40 meter range.

• Speedy Response: There is only a tiny delay (about 100-120 milliseconds) between the operator's command and the robot's movement, making it feel very responsive.

Why This Matters

Building advanced robots usually costs a fortune. However, the DisasterX was built for about 25,330 Tk (roughly $215 USD) using easy-to-find parts. This makes it a scalable and affordable solution for emergency teams who need reliable tools without the massive price tag.

What's Next?

The current version is a great start, but the team is already looking at ways to make it even better. Future plans include:

• Autonomous Navigation: Adding sensors so the robot can avoid obstacles on its own.

• Environmental Monitoring: Adding sensors to detect gas leaks or temperature changes.

• Ruggedizing: Making it waterproof and dustproof for even harsher environments.

DisasterX proves that with a bit of creativity and the right tech, we can build tools that keep people safe and make disaster response faster and smarter.