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Merge LoRA models using SVD for enhanced AI model performance and complexity reduction.
The PM LoRA SVD Merger node is designed to merge multiple LoRA (Low-Rank Adaptation) models using Singular Value Decomposition (SVD). This node allows you to combine the strengths of different LoRA models into a single, more powerful model. By leveraging SVD, the node can efficiently handle the merging process, ensuring that the resulting model maintains high performance while potentially reducing its complexity. This is particularly useful for AI artists who want to enhance their models without manually tweaking each one. The node supports various merging modes and parameters, providing flexibility and control over the merging process.
This parameter represents the first LoRA model to be merged. It is a required input and serves as the base model for the merging process.
The merging mode to use. This parameter determines how the LoRA models will be combined. The available options are defined by SVD_MODES
. The mode you choose can significantly impact the final merged model's characteristics.
This parameter controls the density of the merged model. It is a floating-point value ranging from 0 to 1, with a default value of 1.0. A higher density value means more information from the original models will be retained, potentially leading to a more complex but detailed merged model.
The rank for the SVD process. This integer parameter determines the number of singular values to retain during the decomposition. It ranges from 1 to 320, with a default value of 16. A higher rank can capture more details from the original models but may increase the complexity of the merged model.
The convolution rank for the SVD process. Similar to svd_rank
, this integer parameter is specifically for convolutional layers. It ranges from 0 to 320, with a default value of 1. Adjusting this rank can help balance the model's performance and complexity.
Specifies the device to use for the merging process. The options are cuda
and cpu
. Using cuda
can significantly speed up the process if a compatible GPU is available.
The data type for the output model. The available options are float32
, float16
, and bfloat16
. Choosing a lower precision data type like float16
can reduce the model size and speed up computations but may slightly affect the model's accuracy.
The output is a single merged LoRA model. This model combines the features and strengths of the input LoRA models based on the specified parameters and merging mode. The resulting model is ready to be used for further tasks or fine-tuning.
svd_rank
and svd_conv_rank
values to find the optimal balance between model complexity and performance.density
parameter to control the amount of information retained from the original models. A higher density can lead to a more detailed merged model.device
parameter to cuda
to speed up the merging process.dtype
based on your needs. For most cases, float32
is a safe choice, but float16
can be useful for reducing model size and computation time.<mode>
mode
parameter is set to a valid option defined by SVD_MODES
.device
parameter is not set or is set to an unsupported value.device
parameter is set to either cuda
or cpu
.dtype
parameter is not set or is set to an unsupported value.dtype
parameter is set to one of the supported options: float32
, float16
, or bfloat16
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