Visit ComfyUI Online for ready-to-use ComfyUI environment
Enhances latent image generation through iterative mixing and refining, with advanced noise and de-noise capabilities for precise control.
The Iterative Mixing KSampler Advanced node is designed to enhance the process of generating high-quality latent images by iteratively mixing and refining them. This node leverages advanced techniques to perform both noising (unsampling) and de-noising (sampling) within a single node, providing a streamlined and efficient workflow for AI artists. By utilizing various blending schedules and functions, it allows for precise control over the mixing process, ensuring that the generated images meet the desired artistic standards. The node's flexibility in adjusting parameters such as denoising strength, blending schedules, and normalization options makes it a powerful tool for creating detailed and visually appealing outputs.
This parameter specifies the model to be used for the sampling process. It is essential as it defines the underlying architecture and weights that will influence the generation of the latent images.
This parameter represents the positive conditioning input, which guides the model towards desired features in the generated image. It helps in emphasizing certain aspects that the artist wants to highlight.
This parameter represents the negative conditioning input, which helps in suppressing unwanted features in the generated image. It is useful for refining the output by reducing the influence of undesired elements.
This parameter is the initial latent image that will be iteratively refined through the sampling process. It serves as the starting point for the generation.
This integer parameter sets the random seed for the sampling process, ensuring reproducibility of the results. The default value is 0, with a minimum of 0 and a maximum of 0xffffffffffffffff.
This integer parameter defines the number of steps for the sampling process. More steps generally lead to higher quality images but increase computation time. The default value is 40, with a minimum of 0 and a maximum of 10000.
This float parameter, known as the classifier-free guidance scale, controls the strength of the guidance. Higher values result in stronger guidance towards the conditioning inputs. The default value is 8.0, with a range from 0.0 to 100.0, adjustable in steps of 0.1.
This parameter specifies the name of the sampler to be used. It determines the algorithm that will be applied for the sampling process.
This parameter defines the scheduler to be used, which influences the timing and sequence of the sampling steps.
This float parameter controls the strength of the denoising process. A value of 1.0 means full denoising, while lower values reduce the denoising effect. The default value is 1.0, with a range from 0.0 to 1.0, adjustable in steps of 0.01.
This float parameter influences the blending strength during the iterative mixing process. The default value is 2.4, with a range from 0.05 to 100.0, adjustable in steps of 0.05.
This parameter specifies the schedule for blending during the iterative mixing process. It determines how the blending strength changes over the iterations. The default value is "cosine".
This parameter defines the function used for blending during the iterative mixing process. It determines how the latent images are combined. The default value is "addition".
This boolean parameter, when set to true, normalizes the latent images based on their mean. The default value is false.
The output parameter is a latent image that has been iteratively refined through the mixing and sampling process. This latent image can be further processed or directly used to generate the final visual output. It represents the culmination of the iterative adjustments and blending, resulting in a high-quality and detailed image.
blending_schedule
and blending_function
settings to achieve unique artistic effects.steps
parameter to balance between image quality and computation time; more steps generally yield better results.seed
parameter to reproduce specific results, which is useful for iterative experimentation and fine-tuning.denoise
and alpha_1
parameters to control the level of detail and smoothness in the generated images.© Copyright 2024 RunComfy. All Rights Reserved.