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| # Anomaly Detection Model | |
| ## Overview | |
| This repository contains a Python class AnomalyDetectionModel built using TensorFlow and Keras | |
| for detecting anomalies in network traffic data. The class encapsulates the creation, training, | |
| and evaluation of a neural network model designed to classify network data as either normal or anomalous. | |
| ### Why Use a Sequential Model? | |
| The Sequential model in Keras is a simple, linear stack of layers. | |
| It is ideal for building feedforward neural networks where the model | |
| progresses through each layer sequentially, without any branching or complex topologies. | |
| ### Key Reasons for Using Sequential: | |
| Simplicity: The Sequential API is straightforward and easy to use. It is perfect for beginners and | |
| for models that involve a single input and output with layers stacked one after the other. | |
| Linear Stack: For the task of anomaly detection, the architecture typically involves a simple | |
| forward pass through several dense layers, making the Sequential model a natural fit. | |
| Flexibility: While simple, the Sequential model is flexible enough to allow for customization | |
| through the addition of various types of layers, activation functions, and regularization techniques. | |
| Example Usage | |
| ```python | |
| # Initialize the model with the input shape | |
| anomaly_model = AnomalyDetectionModel(X_train.shape[1]) | |
| # Train the model | |
| history = anomaly_model.train(X_train, y_train) | |
| # Evaluate the model on the test data | |
| loss, accuracy = anomaly_model.evaluate(X_test, y_test) | |
| print(f'Test Accuracy: {accuracy:.4f}') | |
| ``` | |
| Dependencies | |
| Python 3.x | |
| TensorFlow | |
| Keras (included with TensorFlow) | |
| Scikit-learn | |
| Pandas | |
| Installation | |
| Install the required packages using pip: | |
| Conclusion | |
| The Sequential model is a great choice for this anomaly detection task due to its simplicity, | |
| ease of use, and the linear nature of the problem. This approach ensures that the model is easy | |
| to build, understand, and maintain while still providing robust performance for binary classification | |
| tasks such as anomaly detection. |