Efficient Tensor-Based Fine-Tuning for Subject-Driven Image Editing on Diffusion Models

With advancements of diffusion models in generating high-quality, diverse, and creative content, subject-driven image editing based on diffusion models has been growing attention. However, it is challenging to perform precise control in image editing as minor changes in the input can lead to significant differences in generated concepts and content. Prevalent methods face significant limitations in terms of large numbers of trainable parameters and inference latency. Hence, we propose an efficient tensor-based fine-tuning method, Tucker/TT-based Fine-Tuning (TuckerFT and TTFT), for subject-driven image editing on diffusion models. Specifically, we first provide Tucker/TT-based Fine-tuning Convolutional Adapter and Attention Adapter to achieve parameter-efficient fine-tuning in convolutional and attention layers of diffusion models. Additionally, we further present a more sound initializing strategy for the Tucker/TT-based Adapters to guarantee steady training. Extensive experimental results demonstrate that TuckerFT/TTFT surpasses state-of-the-art methods on subject similarity, trainable parameters, and training duration.

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Published
2024-12-13
DOI
https://doi.org/10.1109/hpcc64274.2024.00211
Primary Topic
Medical Image Segmentation Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

Efficient Tensor-Based Fine-Tuning for Subject-Driven Image Editing on Diffusion Models

Jiawen Luo, Huazhong Liu, Jihong Ding, Li Ren et al.
Medical Image Segmentation Techniques
article

Efficient Tensor-Based Fine-Tuning for Subject-Driven Image Editing on Diffusion Models

Jiawen Luo, Huazhong Liu, Jihong Ding, Li Ren, Pengxu Chen
article en

Abstract

With advancements of diffusion models in generating high-quality, diverse, and creative content, subject-driven image editing based on diffusion models has been growing attention. However, it is challenging to perform precise control in image editing as minor changes in the input can lead to significant differences in generated concepts and content. Prevalent methods face significant limitations in terms of large numbers of trainable parameters and inference latency. Hence, we propose an efficient tensor-based fine-tuning method, Tucker/TT-based Fine-Tuning (TuckerFT and TTFT), for subject-driven image editing on diffusion models. Specifically, we first provide Tucker/TT-based Fine-tuning Convolutional Adapter and Attention Adapter to achieve parameter-efficient fine-tuning in convolutional and attention layers of diffusion models. Additionally, we further present a more sound initializing strategy for the Tucker/TT-based Adapters to guarantee steady training. Extensive experimental results demonstrate that TuckerFT/TTFT surpasses state-of-the-art methods on subject similarity, trainable parameters, and training duration.

Hainan University (CN), Hainan Agricultural School (CN)
National Natural Science Foundation of China, Research and Development
Openalex Percentile: Top 69%
Medical Image Segmentation Techniques
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Efficient Tensor-Based Fine-Tuning for Subject-Driven Image Editing on Diffusion Models — Jiawen Luo, Huazhong Liu, et al. · (2024) | TGRS Research Map | TGRS