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Versatile node for AI art generation with noise addition, upscaling, and embedding workflows for high-quality images.
The ttN pipeKSampler is a versatile node designed to facilitate the sampling process in AI art generation workflows. It integrates various functionalities such as noise addition, upscaling, and embedding workflows to produce high-quality images. This node is particularly beneficial for artists looking to fine-tune their models with specific configurations, including LoRA (Low-Rank Adaptation) settings, noise control, and advanced sampling techniques. By leveraging the ttN pipeKSampler, you can achieve more precise and refined outputs, making it an essential tool for enhancing the creative process in AI art generation.
This parameter represents the pipeline configuration used for the sampling process. It includes settings and models that define how the sampling should be executed. The pipe parameter is crucial as it dictates the overall behavior and output of the node.
Specifies the name of the LoRA model to be used. LoRA models help in fine-tuning the main model with additional data, allowing for more nuanced and detailed outputs. If set to None, no LoRA model will be applied.
Determines the strength of the LoRA model's influence on the sampling process. A higher value means a stronger influence, which can lead to more pronounced effects from the LoRA model. Typical values range from 0.0 to 1.0.
Controls whether noise should be added to the sampling process. Options include "enable" and "disable". Adding noise can help in generating more diverse outputs, while disabling it can lead to cleaner results.
Defines the number of steps to be taken during the sampling process. More steps generally lead to higher quality images but require more computational resources. Typical values range from 10 to 1000.
The configuration parameter that adjusts the guidance scale. It influences how closely the generated image should follow the given prompt. Higher values make the output more aligned with the prompt.
Specifies the name of the sampler to be used. Different samplers can produce varying styles and qualities of images. Common options include "DDIM", "PLMS", etc.
Determines the scheduling algorithm for the sampling process. The scheduler can affect the speed and quality of the output. Options may include "linear", "cosine", etc.
Controls how the output images are handled. Options include "Show", "Hide", and "Hide/Save". This parameter is useful for managing the visibility and storage of generated images.
A prefix to be added to the filenames of saved images. This helps in organizing and identifying the outputs, especially when generating multiple images.
Specifies the file format for saving the images. Common options include "png" and "jpg". The choice of file type can affect the quality and size of the saved images.
Determines whether the embedding workflow should be applied. Embedding workflows can enhance the quality and detail of the generated images.
Defines the type and amount of noise to be added. Noise can help in creating more varied and interesting outputs. The specific options for this parameter depend on the implementation.
An optional parameter that sets the seed for noise generation. Using a fixed seed can help in reproducing the same results across different runs.
Allows for specifying an alternative model to be used for sampling. This can be useful for experimenting with different models without changing the main pipeline configuration.
Specifies additional positive embeddings to be used in the sampling process. Positive embeddings can guide the model towards desired features in the output.
Specifies additional negative embeddings to be used in the sampling process. Negative embeddings can help in avoiding undesired features in the output.
Allows for providing a precomputed latent space representation. This can speed up the sampling process and provide more control over the output.
Specifies an alternative VAE (Variational Autoencoder) to be used. VAEs are crucial for decoding the latent space into images.
Allows for specifying an alternative CLIP model. CLIP models are used for understanding and processing text prompts.
An optional parameter that allows for providing an input image to override the default sampling process. This can be useful for image-to-image transformations.
Enables advanced XY plotting for visualizing the sampling process. This can help in understanding how different parameters affect the output.
Specifies the method to be used for upscaling the generated images. Common options include "nearest", "bilinear", etc.
The name of the model to be used for upscaling. Different models can produce varying qualities of upscaled images.
Determines the scaling factor for upscaling. Typical values range from 1.0 to 4.0.
Controls whether the image should be rescaled after upscaling. This can help in maintaining the aspect ratio and quality of the output.
Specifies the percentage by which the image should be scaled. This provides finer control over the scaling process.
Defines the width of the output image. This parameter is useful for setting the desired dimensions of the generated images.
Defines the height of the output image. This parameter is useful for setting the desired dimensions of the generated images.
Specifies the length of the longer side of the output image. This can help in maintaining the aspect ratio.
Controls whether the image should be cropped to fit the desired dimensions. Cropping can help in focusing on specific parts of the image.
The text prompt that guides the image generation process. The prompt is crucial for defining the content and style of the output.
Allows for adding extra metadata to the saved PNG images. This can be useful for storing additional information about the generation process.
A unique identifier for the sampling process. This helps in tracking and managing different sampling runs.
Specifies the step at which the sampling process should start. This can be useful for resuming interrupted runs.
Specifies the step at which the sampling process should end. This can help in controlling the duration and quality of the output.
Controls whether the output should include leftover noise. Options include "enable" and "disable". Including leftover noise can add interesting effects to the output.
The generated images from the sampling process. These images are the primary output and represent the final result of the node's execution.
The latent space representation of the generated images. This can be useful for further processing or analysis.
The updated pipeline configuration after the sampling process. This includes all the settings and models used, allowing for easy reproduction of the results.
A dictionary containing various results from the sampling process, including images and metadata. This provides a comprehensive overview of the output.
lora_strength
values to find the optimal balance for your specific use case.add_noise
parameter to introduce variability in your outputs, which can lead to more creative and diverse results.steps
parameter based on your computational resources and desired image quality. More steps generally lead to better quality but require more time and resources.upscale_method
and upscale_model_name
to enhance the resolution of your images without losing quality.prompt
parameter to guide the image generation process. Be specific and detailed in your prompts to achieve the desired output.lora_name
parameter is set to a valid and accessible LoRA model.noise_seed
parameter is not set to an integer value.noise_seed
parameter is an integer. If not, convert it to an integer before running the node.upscale_method
is not recognized.upscale_method
parameter and ensure you are using a valid method.pipe
parameter is not properly configured or is missing essential settings.pipe
parameter to ensure it includes all necessary configurations and models for the sampling process.prompt
parameter is empty or not provided.© Copyright 2024 RunComfy. All Rights Reserved.