graph LR
Data_Management["Data Management"]
Model_Architectures["Model Architectures"]
Training_Orchestration["Training Orchestration"]
Optimization_Algorithms["Optimization Algorithms"]
Loss_Computation["Loss Computation"]
Evaluation_and_Metrics_Reporting["Evaluation and Metrics Reporting"]
Training_Orchestration -- "uses" --> Data_Management
Training_Orchestration -- "uses" --> Model_Architectures
Training_Orchestration -- "uses" --> Optimization_Algorithms
Training_Orchestration -- "uses" --> Loss_Computation
Evaluation_and_Metrics_Reporting -- "evaluates" --> Model_Architectures
Evaluation_and_Metrics_Reporting -- "uses" --> Data_Management
click Data_Management href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Data Management.md" "Details"
click Model_Architectures href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Model Architectures.md" "Details"
click Training_Orchestration href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Training Orchestration.md" "Details"
click Optimization_Algorithms href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Optimization Algorithms.md" "Details"
click Loss_Computation href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Loss Computation.md" "Details"
click Evaluation_and_Metrics_Reporting href "https://github.com/CodeBoarding/GeneratedOnBoardings/blob/main/pytorch-tutorial/Evaluation and Metrics Reporting.md" "Details"
The PyTorch Tutorial project demonstrates fundamental deep learning concepts using PyTorch. It encompasses data handling, model definition, training orchestration, optimization, loss computation, and evaluation. The core flow involves loading and preprocessing data, defining a neural network model, training the model using an optimization algorithm and a loss function, and finally evaluating the model's performance using appropriate metrics.
This component handles the loading, preprocessing, and batching of data for training and evaluation. It abstracts away the complexities of data acquisition and transformation, providing a consistent interface for feeding data to the model. It ensures that the data is in the correct format and structure for efficient training.
- Related Classes/Methods:
data_loader.py,datasets.py,transforms.py
This component defines the structure and behavior of the neural network models used in the project. It encapsulates the layers, activation functions, and other parameters that define the model's architecture. It provides a modular and reusable way to define different model types, such as CNNs, MLPs, and RNNs.
- Related Classes/Methods:
models/cnn.py,models/mlp.py,models/rnn.py
This component manages the training loop, coordinating the forward and backward passes, loss calculation, and parameter updates. It encapsulates the core logic of the training process, allowing for easy experimentation with different training configurations. It ensures that the model is trained effectively and efficiently.
- Related Classes/Methods:
train.py,utils.py
This component provides a collection of optimization algorithms used to update the model's parameters during training. It encapsulates the logic of different optimization methods, such as SGD, Adam, and others, allowing for easy selection and configuration. It ensures that the model's parameters are updated in a way that minimizes the loss function.
- Related Classes/Methods:
optimizers.py
This component defines the loss functions used to measure the difference between the model's predictions and the ground truth labels. It encapsulates the logic of different loss functions, allowing for easy selection and configuration based on the specific task and model architecture. It provides a way to quantify the model's performance and guide the training process.
- Related Classes/Methods:
loss.py
This component evaluates the performance of the trained model on a validation or test dataset. It calculates relevant metrics such as accuracy, precision, and recall, and reports the results. It provides a way to assess the model's generalization ability and compare different models.
- Related Classes/Methods:
evaluate.py,metrics.py