Project 1 - Implement and deploy CNN model in real-time using python on Fashion MNIST dataset
Humans naturally process and interpret images quickly, but machines require systematic approaches to achieve similar capabilities. This project focuses on developing a machine learning solution to classify grayscale images of fashion items, leveraging Convolutional Neural Networks (CNNs) to understand and process image data effectively.
Data Description
Image Dimensions: Each image is 28x28 pixels, totaling 784 pixels.
Pixel Values: Pixel values range from 0 (white) to 255 (black), representing lightness or darkness.
Dataset Structure: Datasets have 785 columns: the first column contains class labels, and the remaining columns contain pixel values.
Class Labels: There are 10 different classes of images, as following:
- 0: T-shirt/top;
- 1: Trouser;
- 2: Pullover;
- 3: Dress;
- 4: Coat;
- 5: Sandal;
- 6: Shirt;
- 7: Sneaker;
- 8: Bag;
- 9: Ankle boot.
Goals
- Gain a solid understanding of image processing concepts.
- Develop a strategy to feed image data into a CNN for effective classification.
Key Highlights
- Image Representation: Images consist of pixels arranged in a specific order. Any change in pixel values or arrangement alters the image representation.
- CNN Implementation: Implementing a CNN involves using layers that extract features through convolutions, with pooling layers reducing the parameter count.
- Feature Extraction: The CNN should include multiple convolutional and pooling layers to progressively extract more specific features.
- Output Layer: The output layer transforms features into class predictions, with error calculated and backpropagated to update model parameters.
Outcomes
- Image Classification: Successfully classify images into categories such as T-shirt/top, Trouser, Pullover, Dress, Coat, Sandal, Shirt, Sneaker, Bag, and Ankle boot.
- Efficient Processing: Efficiently process and interpret image data through a well-designed CNN architecture.
- Performance Evaluation: Achieve accurate predictions by fine-tuning the CNN model and evaluating its performance on the dataset.