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Plug-and-Play Diffusion Features for Text-Driven Image-to-Image Translation (2211.12572v1)

Published 22 Nov 2022 in cs.CV and cs.AI

Abstract: Large-scale text-to-image generative models have been a revolutionary breakthrough in the evolution of generative AI, allowing us to synthesize diverse images that convey highly complex visual concepts. However, a pivotal challenge in leveraging such models for real-world content creation tasks is providing users with control over the generated content. In this paper, we present a new framework that takes text-to-image synthesis to the realm of image-to-image translation -- given a guidance image and a target text prompt, our method harnesses the power of a pre-trained text-to-image diffusion model to generate a new image that complies with the target text, while preserving the semantic layout of the source image. Specifically, we observe and empirically demonstrate that fine-grained control over the generated structure can be achieved by manipulating spatial features and their self-attention inside the model. This results in a simple and effective approach, where features extracted from the guidance image are directly injected into the generation process of the target image, requiring no training or fine-tuning and applicable for both real or generated guidance images. We demonstrate high-quality results on versatile text-guided image translation tasks, including translating sketches, rough drawings and animations into realistic images, changing of the class and appearance of objects in a given image, and modifications of global qualities such as lighting and color.

Plug-and-Play Diffusion Features for Text-Driven Image-to-Image Translation

The paper "Plug-and-Play Diffusion Features for Text-Driven Image-to-Image Translation" introduces a novel framework leveraging pre-trained text-to-image diffusion models for zero-shot text-guided image-to-image translation tasks. The authors tackle a long-standing challenge in the domain of generative models—allowing users to control the generated content while maintaining high fidelity to the input image structure and the target text prompt.

Text-to-image diffusion models, trained on monumental datasets with extensive parameters, have reshaped the landscape of generative AI. However, they often fall short of offering fine-grained control over generated structures and layouts. This paper propels diffusion models from text-to-image generation to a more sophisticated text-guided image-to-image translation mechanism. Without necessitating additional training or fine-tuning, this approach thrives on manipulating spatial features and self-attention inside the diffusion model, utilizing features extracted from a guidance image injected into the generation process, thereby preserving the semantic layout of the input image.

The empirical claim that the internal spatial features and their self-attention exhibit control over generated structure is profoundly insightful. It diverges from other methods, such as Prompt-to-Prompt (P2P), where text influences are exerted at a more global level through cross-attention with limited structural preservation. The proposed method aligns finely grained spatial manipulations alongside textual interactions, exhibiting superior performance in preserving structure while achieving salient adherence to the target text.

Quantitatively, the technique significantly outperforms several state-of-the-art baselines on custom benchmarks, which evaluate the preservation and transformation efficiency on diverse image-text pairs. Two quantitative metrics were utilized: DINO-ViT self-similarity for assessing structure preservation and CLIP cosine similarity for evaluating adherence to the text. The proposed method demonstrates an optimal balance between these metrics, achieving better structure preservation than SDEdit with low noise levels, while still transforming the appearance in alignment with the target text similarly to high noise levels.

This paper refrains from employing computationally expensive processes like training on large-scale datasets or fine-tuning on specific tasks. Instead, it offers an insightful examination of the diffusion process, particularly the spatial feature states during the image generation progression. The cross-layer feature inspection, conducted through Principal Component Analysis (PCA), provides compelling evidence that intermediate spatial features embed semantic information, facilitating finer text-driven translations.

The implications of this research span theoretical and practical realms. Theoretically, the decoded behavior of spatial features across the diffusion layers invites further explorations into energy-efficient and direct manipulation strategies within pre-trained models. Practically, this method unlocks applications demanding nuanced semantic edits, from digital art and branding to complex visual content creation.

Looking forward, the detailed overview of diffusion model features opens avenues for exploring user-control mechanisms and customization in generative models beyond visual domains. This research could spearhead a shift towards an era where model intrinsics are adapted to user-defined constraints in real-time applications, enhancing usability without necessitating large-scale resource investment. Such advancements also pose new challenges in understanding diffusion dynamics at a granular level, aligning model capabilities with complex user requirements seamlessly.

The paper is a valuable addition to the domain, shedding light on unexplored facets of the diffusion process and demonstrating a practical, highly adaptable framework for text-driven transformations. However, the approach also has limitations, notably in scenarios with disconnected semantic associations between guidance and target text, indicating potential areas for further refinement.

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Authors (4)
  1. Narek Tumanyan (4 papers)
  2. Michal Geyer (6 papers)
  3. Shai Bagon (21 papers)
  4. Tali Dekel (40 papers)
Citations (490)
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