ComfyUI > Nodes > ComfyUI Neural Network Toolkit NNT > NNT Training Hyperparameters

ComfyUI Node: NNT Training Hyperparameters

Class Name

NntTrainingHyperparameters

Category
NNT Neural Network Toolkit/Models
Author
inventorado (Account age: 3209days)
Extension
ComfyUI Neural Network Toolkit NNT
Latest Updated
2025-01-08
Github Stars
0.07K

How to Install ComfyUI Neural Network Toolkit NNT

Install this extension via the ComfyUI Manager by searching for ComfyUI Neural Network Toolkit NNT
  • 1. Click the Manager button in the main menu
  • 2. Select Custom Nodes Manager button
  • 3. Enter ComfyUI Neural Network Toolkit NNT in the search bar
After installation, click the Restart button to restart ComfyUI. Then, manually refresh your browser to clear the cache and access the updated list of nodes.

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NNT Training Hyperparameters Description

Facilitates configuring and managing neural network training hyperparameters efficiently for AI artists.

NNT Training Hyperparameters:

The NntTrainingHyperparameters node is designed to facilitate the configuration and management of hyperparameters for training neural networks. This node plays a crucial role in defining the parameters that govern the training process, such as batch size, number of epochs, optimizer settings, learning rate, and more. By providing a structured way to specify these parameters, the node helps ensure that the training process is both efficient and effective. It allows you to experiment with different configurations to optimize model performance, making it an essential tool for AI artists who want to fine-tune their models without delving into complex coding. The node's primary goal is to simplify the setup of training parameters, enabling you to focus on creative aspects while ensuring that the technical details are handled seamlessly.

NNT Training Hyperparameters Input Parameters:

experiment_name

This parameter specifies the name of the experiment, which is used to identify and organize different training runs. It helps in tracking and comparing results across various experiments. There are no specific minimum or maximum values, but it is recommended to use a descriptive name for clarity.

batch_size

The batch size determines the number of samples processed before the model is updated. A larger batch size can speed up training but requires more memory, while a smaller batch size can lead to more stable updates. The default value is 32, with no strict minimum or maximum, but it should be chosen based on available resources.

epochs

This parameter defines the number of complete passes through the training dataset. More epochs can lead to better model performance but may also increase the risk of overfitting. The default value is 10, and it should be adjusted based on the complexity of the model and dataset.

optimizer

The optimizer parameter specifies the optimization algorithm used to update model weights. Common options include "Adam" and "SGD". The choice of optimizer can significantly impact the training process and final model performance. The default is "Adam".

learning_rate

The learning rate controls the step size during the optimization process. A higher learning rate can speed up training but may cause instability, while a lower rate ensures stable convergence but may slow down training. The default value is 0.001.

weight_decay

Weight decay is a regularization technique that helps prevent overfitting by adding a penalty to the loss function based on the magnitude of the model weights. The default value is 0.0001, and it should be adjusted based on the model's tendency to overfit.

momentum

This parameter is used with the "SGD" optimizer to accelerate the optimization process by considering past gradients. It helps in smoothing the optimization path. The default value is 0.9, but it is only applicable if "SGD" is chosen as the optimizer.

use_lr_scheduler

This boolean parameter indicates whether a learning rate scheduler should be used to adjust the learning rate during training. It helps in fine-tuning the learning process for better convergence. The default is "False".

scheduler_type

If use_lr_scheduler is enabled, this parameter specifies the type of learning rate scheduler to use, such as "StepLR". It helps in systematically reducing the learning rate to improve training stability.

scheduler_step_size

This parameter defines the number of epochs between each learning rate adjustment when using a scheduler. It helps in controlling the frequency of learning rate changes. The default value is 10.

scheduler_gamma

The gamma parameter is used with the learning rate scheduler to determine the factor by which the learning rate is reduced. A typical value is 0.1, which reduces the learning rate by 10% at each step.

use_early_stopping

This boolean parameter indicates whether early stopping should be used to halt training when the model's performance stops improving. It helps in preventing overfitting and saving computational resources. The default is "True".

patience

If use_early_stopping is enabled, this parameter specifies the number of epochs to wait for an improvement before stopping training. It helps in determining when to stop training to avoid overfitting. The default value is 5.

min_delta

This parameter defines the minimum change in the monitored metric to qualify as an improvement when using early stopping. It helps in setting a threshold for significant improvements. The default value is 0.001.

NNT Training Hyperparameters Output Parameters:

training_params

This output parameter is a dictionary containing all the configured training parameters. It provides a comprehensive overview of the settings used for the training process, allowing you to review and adjust them as needed. This output is crucial for ensuring that the training process is conducted with the desired configurations and for replicating experiments.

summary

The summary output is a human-readable string that provides a concise overview of the training parameters and settings. It serves as a quick reference to understand the configuration of the training process, making it easier to communicate and document the setup used for a particular experiment.

NNT Training Hyperparameters Usage Tips:

  • Experiment with different batch sizes to find a balance between training speed and memory usage.
  • Use a learning rate scheduler to gradually reduce the learning rate, which can lead to better convergence and model performance.
  • Enable early stopping to prevent overfitting and save computational resources by halting training when improvements plateau.

NNT Training Hyperparameters Common Errors and Solutions:

Invalid optimizer type

  • Explanation: The specified optimizer is not recognized or supported.
  • Solution: Ensure that the optimizer name is correctly spelled and is one of the supported options, such as "Adam" or "SGD".

Learning rate too high

  • Explanation: A high learning rate can cause the model to diverge during training.
  • Solution: Reduce the learning rate to a smaller value, such as 0.001, to stabilize the training process.

Out of memory error

  • Explanation: The batch size is too large for the available memory.
  • Solution: Decrease the batch size to fit within the memory constraints of your hardware.

Early stopping not triggered

  • Explanation: The patience or min_delta values are set too high, preventing early stopping from activating.
  • Solution: Adjust the patience and min_delta parameters to more appropriate values to allow early stopping to function effectively.

NNT Training Hyperparameters Related Nodes

Go back to the extension to check out more related nodes.
ComfyUI Neural Network Toolkit NNT
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