An interactive, web-based simulation for exploring image augmentation techniques used in machine learning and computer vision. This simulation helps learners understand how different augmentation methods transform images and their impact on model training.
- Side-by-side comparison: Original and augmented images displayed simultaneously
- Real-time updates: See changes instantly as you adjust parameters
- Multiple sample images: Choose from different image types to experiment with
- Flip Horizontal/Vertical: Mirror images across axes
- Rotation: Rotate images by any angle (-180° to 180°)
- Cropping: Simulate center cropping with adjustable intensity
- Brightness: Adjust image brightness (0% to 200%)
- Contrast: Modify image contrast for better visibility
- Saturation: Control color intensity and vibrancy
- Noise: Add random noise to simulate real-world imperfections
- Blur: Apply Gaussian blur effects
- Slider controls: Fine-tune augmentation parameters with real-time feedback
- Toggle buttons: Quick on/off for flip transformations
- Reset functionality: Return all parameters to default values
- Image selector: Switch between different sample images
- Learning tips: Built-in guidance on when and why to use each technique
- Visual feedback: Immediate understanding of parameter effects
- Best practices: Information about combining techniques effectively
- Python 3.6 or higher
- Optional: Pillow (PIL) for automatic sample image generation
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Clone or navigate to the simulation directory:
cd image-augmentation-playground
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Install optional dependencies (for sample image generation):
pip install Pillow
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Start the server:
python server.py
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Open your browser and navigate to
http://localhost:3000
- Choose an image: Select from the dropdown menu (Cat, Dog, Building, Landscape)
- Apply augmentations: Use the controls to transform the image
- Compare results: See original vs augmented images side by side
- Experiment: Try different combinations of techniques
- Reset: Use the reset button to start over
- Flipping: When object orientation doesn't matter (e.g., faces, objects)
- Rotation: For objects that can appear in any orientation
- Cropping: To focus on important parts of the image
- Brightness: To handle different lighting conditions
- Contrast: To improve feature visibility
- Saturation: To handle different color conditions
- Noise: To make models robust to sensor noise
- Blur: To handle motion blur or focus issues
- Start simple: Begin with one technique at a time
- Combine techniques: Use multiple augmentations for more diverse training data
- Consider your domain: Different techniques work better for different types of images
- Monitor performance: Always validate that augmentations improve model performance
- Backend: Python HTTP server with CORS support
- Frontend: Vanilla HTML, CSS, and JavaScript
- Image Processing: HTML5 Canvas API for real-time transformations
- Port: Serves on
localhost:3000
- Modern browsers with HTML5 Canvas support
- Works on desktop and mobile devices
- Responsive design for different screen sizes
image-augmentation-playground/
├── server.py # Python HTTP server
├── README.md # This file
└── simulation/
├── index.html # Main HTML interface
├── style.css # Styling and responsive design
├── script.js # Augmentation logic and interactions
└── sample-images/ # Sample images for experimentation
├── cat.jpg
├── dog.jpg
├── building.jpg
└── landscape.jpg
After using this simulation, learners will understand:
- How different augmentation techniques work and their visual effects
- When to apply specific techniques based on the problem domain
- The impact of parameter tuning on augmentation results
- How to combine multiple techniques for effective data augmentation
- Real-world applications of image augmentation in machine learning
This simulation is part of the Learn Bespoke Simulations collection. To contribute:
- Follow the existing code patterns and educational philosophy
- Ensure all changes maintain the interactive, visual-first approach
- Test on multiple browsers and devices
- Update documentation for any new features
Part of the Learn Bespoke Simulations project for educational use.