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An Image is Worth One Word: Personalizing Text-to-Image Generation using Textual Inversion

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abstract

Text-to-image models offer unprecedented freedom to guide creation through natural language. Yet, it is unclear how such freedom can be exercised to generate images of specific unique concepts, modify their appearance, or compose them in new roles and novel scenes. In other words, we ask: how can we use language-guided models to turn our cat into a painting, or imagine a new product based on our favorite toy? Here we present a simple approach that allows such creative freedom. Using only 3-5 images of a user-provided concept, like an object or a style, we learn to represent it through new "words" in the embedding space of a frozen text-to-image model. These "words" can be composed into natural language sentences, guiding personalized creation in an intuitive way. Notably, we find evidence that a single word embedding is sufficient for capturing unique and varied concepts. We compare our approach to a wide range of baselines, and demonstrate that it can more faithfully portray the concepts across a range of applications and tasks. Our code, data and new words will be available at: https://textual-inversion.github.io

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  • abstract Text-to-image models offer unprecedented freedom to guide creation through natural language. Yet, it is unclear how such freedom can be exercised to generate images of specific unique concepts, modify their appearance, or compose them in new roles and novel scenes. In other words, we ask: how can we use language-guided models to turn our cat into a painting, or imagine a new product based on our favorite toy? Here we present a simple approach that allows such creative freedom. Using only 3-5 images of a user-provided concept, like an object or a style, we learn to represent it through new "wor
  • background These Preprint. arXiv:2605.07257v1 [cs.CV] 8 May 2026 advances have fueled growing interest in generative personalization: adapting a pretrained T2I model to a user-specific concept (e.g., a person, pet, or object) from only a few reference images, while retaining the ability to place that concept into novel contexts via natural-language prompts [10, 30]. The core objective is to preserve the unique identity of the personal concept while remaining faithful to the prompt's semantics. Despite rapi
  • background tasks including image synthesis [4, 24, 28], 3D object gen- eration [16, 21], and video production [1, 11, 29]. Leverag- ing large-scale pre-training on massive datasets, these mod- els now outperform earlier approaches in producing high- fidelity and coherent generative content. Current approaches range from slow fine-tuning methods like DreamBooth [26] and Textual Inversion [6], to zero- shot ID injection with encoders like IP-Adapter [38], Pho- toMaker [15], and InstantID [36], but these sacr
  • background they frequently incur information loss in either foreground objects or background contexts. 2.2 Testing-Time Finetuning Testing-time finetuning methods constitute a fundamental para- digm for personalized image generation, where pre-trained model parameters are adaptively optimized for specific target subjects dur- ing inference to achieve high-fidelity customized image synthesis. Textual Inversion [11] first introduced the concept of optimizing the embeddings of learnable tokens by incorporatin
  • background Finally, the model is highly sensitive to the prompt, and small changes in wording can lead to drastically different generated images, while semantically equivalent prompts may yield very different visual outputs [9,29]. Recently, a substantial body of works has tackled prompt inversion through optimization in continuous embedding or latent spaces [11,30,36,46]. While these methods can achieve high-fidelity reconstruction, they suffer from several fun- damental limitations. First, they assume wh
  • background in the scene, while camera motion adjusts the camera's position and angle. 5.2.1 Motion Customization. Motion customization generates videos with motions matching reference videos, requiring disentanglement of motion and appearance. Customize-A-Video [210] utilizes Temporal LoRA (T-LoRA) to learn motion from temporal layers and Appearance Absorbers(e.g., spatial LoRA or textual inversion [211]) to isolate spatial features. MotionDi- rector [212] employs dual-path LoRA: spatial LoRAs capture appe
  • background articulate the desired target through text descriptions. For instance, it is difficult to describe the precise features of an innovative toy car which is not encountered during large-scale model training. Consequently, the objective of customized generation is to enable the model to grasp new concepts from a minimal set of user-supplied images. Textual Inversion [243] addresses this by finding a new pseudo-word S˚ (similar to soft prompt discussed in Section III-A2) that represents new, specific

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