ComfyUI > Nodes > ComfyUI-ArchAi3d-Qwen > 🔧 USDU Edge Repair

ComfyUI Node: 🔧 USDU Edge Repair

Class Name

ArchAi3D_USDU_EdgeRepair

Category
ArchAi3d/Upscaling/USDU
Author
Amir Ferdos (ArchAi3d) (Account age: 1109days)
Extension
ComfyUI-ArchAi3d-Qwen
Latest Updated
2026-04-17
Github Stars
0.05K

How to Install ComfyUI-ArchAi3d-Qwen

Install this extension via the ComfyUI Manager by searching for ComfyUI-ArchAi3d-Qwen
  • 1. Click the Manager button in the main menu
  • 2. Select Custom Nodes Manager button
  • 3. Enter ComfyUI-ArchAi3d-Qwen 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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🔧 USDU Edge Repair Description

Enhances 3D model quality by repairing edges using advanced processing techniques.

🔧 USDU Edge Repair:

The ArchAi3D_USDU_EdgeRepair node is designed to enhance the quality of 3D models by repairing and refining their edges. This node is particularly beneficial for AI artists who work with 3D models and need to ensure that the edges of their models are smooth and well-defined. By utilizing advanced processing techniques, the node can apply optional features such as DiffDiff, ControlNet, and Two-Latent to achieve high-quality edge repair. The main goal of this node is to provide a seamless and efficient way to improve the visual fidelity of 3D models, making them more suitable for various applications, including animation, rendering, and virtual reality experiences.

🔧 USDU Edge Repair Input Parameters:

model

The model parameter specifies the 3D model that will undergo edge repair. It is crucial as it determines the base structure upon which the node will apply its edge refinement techniques. The quality and complexity of the model can impact the node's execution time and results. There are no specific minimum, maximum, or default values for this parameter, as it depends on the user's input model.

conditionings

The conditionings parameter influences how the edge repair process is conditioned. It affects the node's ability to adapt its processing to different model characteristics, ensuring that the edge repair is tailored to the specific needs of the model. This parameter does not have predefined values, as it is determined by the user's requirements.

negative

The negative parameter is used to specify any negative conditions or constraints that should be considered during the edge repair process. It helps in refining the output by excluding certain features or characteristics that are not desired. Like other parameters, it does not have fixed values and is user-defined.

vae

The vae parameter refers to the Variational Autoencoder used in the processing pipeline. It plays a role in the encoding and decoding of the model's features, impacting the overall quality of the edge repair. The choice of VAE can affect the node's performance and output quality.

seed

The seed parameter is used to initialize the random number generator, ensuring reproducibility of the edge repair process. By setting a specific seed value, users can achieve consistent results across multiple runs. The default value is typically set by the system, but users can specify their own seed for custom results.

steps

The steps parameter determines the number of processing steps the node will perform during edge repair. More steps can lead to higher quality results but may increase processing time. Users can adjust this parameter based on their quality requirements and time constraints.

cfg

The cfg parameter, or configuration, allows users to specify additional settings or preferences for the edge repair process. It provides flexibility in customizing the node's behavior to suit specific needs. The exact options available depend on the implementation details.

sampler_name

The sampler_name parameter specifies the sampling method used during the edge repair process. Different samplers can produce varying results, and users can choose the one that best fits their model's characteristics and desired output.

scheduler

The scheduler parameter controls the scheduling of processing tasks within the node. It can impact the efficiency and speed of the edge repair process, allowing users to optimize performance based on their system capabilities.

denoise

The denoise parameter is used to reduce noise in the model during the edge repair process. It helps in achieving cleaner and more precise edges, enhancing the overall quality of the output. Users can adjust the level of denoising based on their model's requirements.

tiled_decode

The tiled_decode parameter enables or disables tiled decoding, which can improve processing efficiency for large models by breaking them into smaller, manageable tiles. This parameter is particularly useful for handling complex models without compromising performance.

tile_width

The tile_width parameter specifies the width of the tiles used in tiled decoding. It affects the granularity of the processing and can be adjusted to balance between performance and quality.

tile_height

The tile_height parameter specifies the height of the tiles used in tiled decoding. Similar to tile_width, it influences the processing granularity and can be customized to optimize the edge repair process.

mode_type

The mode_type parameter determines the mode of operation for the edge repair process. Different modes may apply different techniques or algorithms, allowing users to select the most appropriate one for their model.

seam_fix_mode

The seam_fix_mode parameter specifies the method used to fix seams in the model during edge repair. It is crucial for ensuring that the edges are continuous and seamless, enhancing the visual quality of the model.

denoise_mask_tensor

The denoise_mask_tensor parameter provides a mask for denoising specific areas of the model. It allows users to target denoising efforts on particular regions, improving the precision of the edge repair process.

model_patch

The model_patch parameter is used to apply patches or modifications to the model during edge repair. It can be used to introduce specific changes or enhancements to the model's structure.

control_image_tensor

The control_image_tensor parameter provides an image tensor for controlling the edge repair process. It can be used to guide the node's processing based on visual cues or references.

control_strength

The control_strength parameter determines the influence of the control image on the edge repair process. Higher values increase the impact of the control image, allowing for more guided and precise edge repair.

control_mask_tensor

The control_mask_tensor parameter provides a mask for controlling specific areas of the model during edge repair. It allows users to focus the node's processing on particular regions, enhancing the customization of the output.

geometry

The geometry parameter specifies the geometric properties of the model that should be considered during edge repair. It influences how the node interprets and processes the model's structure.

use_edge_mask_diffdiff

The use_edge_mask_diffdiff parameter enables the use of edge masks in the DiffDiff feature, enhancing the node's ability to refine edges based on specific criteria.

edge_mask_width

The edge_mask_width parameter specifies the width of the edge mask used in the DiffDiff feature. It affects the precision and effectiveness of the edge refinement process.

edge_mask_feather

The edge_mask_feather parameter determines the feathering of the edge mask, allowing for smoother transitions and more natural-looking edges.

🔧 USDU Edge Repair Output Parameters:

repaired_model

The repaired_model output parameter provides the 3D model after the edge repair process has been applied. This output is crucial as it represents the enhanced version of the input model, with improved edge quality and visual fidelity. The repaired model can be used for further processing, rendering, or integration into larger projects.

🔧 USDU Edge Repair Usage Tips:

  • Experiment with different sampler_name and scheduler settings to find the optimal balance between processing speed and output quality for your specific model.
  • Utilize the control_image_tensor and control_mask_tensor parameters to guide the edge repair process based on visual references, ensuring that the output aligns with your artistic vision.

🔧 USDU Edge Repair Common Errors and Solutions:

"Model not found"

  • Explanation: This error occurs when the specified model file cannot be located or accessed by the node.
  • Solution: Ensure that the model file path is correct and that the file is accessible. Check for any typos or permission issues that may prevent the node from accessing the file.

"Invalid parameter value"

  • Explanation: This error indicates that one or more input parameters have been set to invalid values, which the node cannot process.
  • Solution: Review the input parameters and ensure they are set to appropriate values. Refer to the parameter descriptions for guidance on acceptable ranges and options.

🔧 USDU Edge Repair Related Nodes

Go back to the extension to check out more related nodes.
ComfyUI-ArchAi3d-Qwen
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🔧 USDU Edge Repair