🌌 OOP Solar System Simulation

An object-oriented 2D solar system simulation built in Processing for a school project. This simulation models gravitational interactions, orbital motion, and collisions between celestial bodies — demonstrating key OOP principles, physics logic, and scalable simulation design.

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🚀 Features

• 🌍 Realistic orbital motion and gravitational pull
• ☄️ Collision detection and fusion logic for asteroids and planets
• 🔭 Auto-scaling camera that keeps all objects in frame
• 🪐 Customizable scenarios (e.g., solar system, binary stars, supernova events)
• 🧩 Fully object-oriented structure for modular and extensible code

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🧠 Project Structure

/CelestialBodies
│
├── CelestialBodies.pde     # Main Processing sketch (entry point)
├── Camera.pde              # Handles camera scaling and center-of-mass tracking
├── CelestialDynamics.pde   # Core physics logic and gravity calculations
├── HelperFunctions.pde     # Utility functions (collision effects, drawing helpers)
└── Scenerios.pde           # Manages scenario data and celestial configurations

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## 🛠️ How to Run

1. Install **[Processing](https://processing.org/download/)**.
2. Clone this repository:

   ```bash
   git clone https://github.com/deepakawicked/OOP-Solar-System.git

3. Open Simulation.pde in Processing.
4. Click Run ▶️ to start the simulation.

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⚙️ Customization

• Add new bodies by creating subclasses of Celestial.
• Modify parameters like mass, velocity, or position.
• Adjust camera padding and time steps in autoScaleCamera() for smoother zooming.
• Experiment with Scenario.java to create unique systems.

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📘 Notes

• Created for a school project to demonstrate object-oriented programming and basic physics simulation.
• Physics are simplified for visualization and learning purposes.
• Free to modify, fork, and expand upon.

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📄 License

This project is released under the MIT License. Feel free to use, modify, or learn from it.

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