- The paper introduces DTC, a latent diffusion model that improves image-conditioned inpainting for Virtual Try-All by accurately preserving product details.
- It employs a novel secondary U-Net with affine transformation layers to integrate pixel-level hints from reference images into the main decoder.
- Empirical evaluations indicate that DTC outperforms prior approaches in fidelity and semantic coherence, enabling efficient real-time deployment.
Introduction
The increasing ubiquity of online shopping necessitates advancements in the field of virtually visualizing products within consumer environments, a concept operationalized as Virtual Try-All (Vit-All). The underlying premise of Vit-All models is their ability to semantically compose images by embedding an online catalog item into a user-provided environmental context whilst preserving the item's intrinsic details. An effective Vit-All model is predicated on three key conditions: operation within any 'in-the-wild' setting; seamless integration that maintains the product identity; and swift real-time performance suitable for large-scale deployment.
Model Development
Existing approaches have largely been task-specific or reliant on onerous 3D modeling, making scaling to vast product ranges impractical. Standard image-conditioned diffusion models historically fail to adequately retain fine details critical to product realization. In response, the development of Diffuse to Choose (DTC), a latent diffusion model, targets this gap. DTC ingeniously incorporates a secondary U-Net to channel pixel-level hints from the reference image into the main U-Net's decoder, overseen by affine transformation layers. This integration ensures the fidelity of product-specific details and their cohesive contextual blend. Notably, unlike existing approaches, DTC is architected to operate in a zero-shot framework.
Empirical Evaluation
Comprehensive evaluations of DTC confirm its superior performance over previous image-conditioned inpainting models like Paint By Example (PBE) and few-shot personalization algorithms such as DreamPaint. The architecture uses perceptual loss to harmonize low-level image features and a larger, image-only encoder from DINOV2 to expand the model's capacity. DTC is systematically refined, leveraging all CLIP patches for enhanced depiction of item details. Human-centered studies further benchmark DTC against competing methodologies, corroborating its proficiency in the Vit-All domain in both fidelity and semantically coherent product placements.
Conclusion and Future Directions
While DTC represents a substantial leap in virtual try-on technology, it is not without limitations. Issues persist with fine-grained text and full-body product imagery, warranting further research into incorporating auxiliary inputs like pose detection. Nevertheless, DTC's proficiency in aligning real-time performance with high detail retention underscores its potential as a transformative tool in e-commerce, enabling consumers to interact with products embedded dynamically within their personal spaces. The implications for enhanced consumer experiences are significant, offering a tangible utility path from product viewing to placement within user environment images without manual image editing.