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ComfyUI > Nodes > MiniMax H3 Context Loop > MiniMax H3 Chain SelfLift Sampler — Experimental

ComfyUI Node: MiniMax H3 Chain SelfLift Sampler — Experimental

Class Name

MiniMaxH3ChainSelfLiftSampler

Category
sampling/minimax/context_loop
Author
ethanfel (Account age: 3434days)
Extension
MiniMax H3 Context Loop
Latest Updated
2026-10-06
Github Stars
0.51K

How to Install MiniMax H3 Context Loop

Install this extension via the ComfyUI Manager by searching for MiniMax H3 Context Loop
  • 1. Click the Manager button in the main menu
  • 2. Select Custom Nodes Manager button
  • 3. Enter MiniMax H3 Context Loop 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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MiniMax H3 Chain SelfLift Sampler — Experimental Description

Advanced chain sampling node for AI artists exploring SelfLift Project, offering high-quality outputs with unique techniques and upscaling capabilities.

MiniMax H3 Chain SelfLift Sampler — Experimental:

The MiniMaxH3ChainSelfLiftSampler is an advanced experimental node designed for AI artists who are exploring the cutting-edge capabilities of the SelfLift Project. This node is specifically tailored for chain sampling, offering a unique approach to generating high-quality outputs by leveraging native AV masks, source-audio locks, and tagged references and guides. It supports both Euler and the experimental RES4LYF Radau IA 2s methods, providing flexibility in sampling techniques. The node is equipped with an H3 learned or bilinear latent upscaler, which enhances the resolution of the generated outputs without the need for training. Additionally, it offers optional high-stage spatial tiling, allowing for detailed and intricate designs. The MiniMaxH3ChainSelfLiftSampler is ideal for those looking to push the boundaries of AI-generated art, providing a robust framework for creating complex and high-resolution outputs.

MiniMax H3 Chain SelfLift Sampler — Experimental Input Parameters:

state

The state parameter represents the current state of the sampling process. It is crucial for maintaining continuity and ensuring that the sampling process can be resumed or regenerated as needed. This parameter does not have specific minimum or maximum values, as it is dependent on the current execution context.

model

The model parameter specifies the AI model to be used for sampling. It is essential for determining the characteristics and capabilities of the generated outputs. The choice of model can significantly impact the style and quality of the results.

positive

The positive parameter is used to define the positive prompts or conditions that guide the sampling process. It influences the direction and focus of the generated outputs, ensuring that they align with the desired artistic vision.

vae

The vae parameter refers to the Variational Autoencoder used in the sampling process. It plays a critical role in encoding and decoding the latent representations, affecting the overall quality and fidelity of the outputs.

latent

The latent parameter contains the latent representations that serve as the foundation for the sampling process. These representations are manipulated and transformed to produce the final outputs. The parameter is flexible and can accommodate various forms of latent data.

sampler

The sampler parameter determines the sampling method to be used. It can be set to either Euler or the experimental RES4LYF Radau IA 2s, each offering distinct advantages and characteristics. The choice of sampler affects the smoothness and detail of the generated outputs.

sigmas

The sigmas parameter defines the noise levels used during the sampling process. It influences the randomness and variability of the outputs, allowing for a balance between creativity and consistency.

seed

The seed parameter is used to initialize the random number generator, ensuring reproducibility of the sampling process. By setting a specific seed, you can achieve consistent results across multiple runs.

cfg

The cfg parameter, or configuration, controls various settings and options for the sampling process. It allows for fine-tuning and customization, enabling you to optimize the node's performance for specific tasks.

negative

The negative parameter defines the negative prompts or conditions that should be avoided during the sampling process. It helps in steering the outputs away from undesired characteristics or elements.

MiniMax H3 Chain SelfLift Sampler — Experimental Output Parameters:

samples

The samples output parameter contains the final generated outputs from the sampling process. These samples are the result of the transformations and manipulations applied to the latent representations, guided by the input parameters and the chosen sampling method.

status

The status output parameter provides a summary of the sampling process, including details about the steps taken, the methods used, and any special configurations applied. It serves as a useful reference for understanding the context and conditions under which the outputs were generated.

MiniMax H3 Chain SelfLift Sampler — Experimental Usage Tips:

  • Experiment with different sampler settings to explore various artistic styles and effects. The Euler method offers smooth transitions, while the Radau IA 2s method provides more experimental and dynamic results.
  • Utilize the positive and negative parameters to fine-tune the focus and direction of your outputs. By carefully crafting these prompts, you can achieve a more precise alignment with your artistic vision.

MiniMax H3 Chain SelfLift Sampler — Experimental Common Errors and Solutions:

SelfLift: expected {total_steps - transition_step} high-resolution callbacks, received {high_evaluations}; check sampler wrappers

  • Explanation: This error occurs when there is a mismatch between the expected and actual number of high-resolution callbacks during the sampling process.
  • Solution: Verify the configuration of your sampler wrappers and ensure that the number of high-resolution steps is correctly set.

SelfLift run_mode must be resume or regenerate.

  • Explanation: This error indicates that an invalid run mode was specified for the SelfLift process.
  • Solution: Ensure that the run_mode parameter is set to either "resume" or "regenerate" to proceed with the sampling process.

SelfLift Seed Hunt needs at least one low and one high step.

  • Explanation: This error arises when the configuration does not include the required number of low and high steps for the Seed Hunt process.
  • Solution: Adjust the settings to include at least one low-resolution and one high-resolution step to enable the Seed Hunt functionality.

MiniMax H3 Chain SelfLift Sampler — Experimental Related Nodes

Go back to the extension to check out more related nodes.
MiniMax H3 Context Loop
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MiniMax H3 Chain SelfLift Sampler — Experimental