Size-Variable Virtual Try-On with Physical Clothes Size
Yohei Yamashita, Chihiro Nakatani, Norimichi Ukita
TL;DR
This paper introduces size-variable virtual try-on, a framework that adjusts the image size of clothing to match the physical sizes of garments relative to a reference person. It centers on a residual silhouette approach via a Mask Deformation Network (MDN) and a dedicated Texture Fusion step, enabling explicit control over garment size using size vectors. A new dataset with paired images across multiple sizes and a Size Evaluation Metric (SEM) are proposed to quantify size accuracy in the torso and sleeves. Quantitative and qualitative results show improvements in size-consistent rendering (SEM) while maintaining competitive perceptual quality (LPIPS, FID) compared with traditional warping- and IST-based VTO methods. The work enables more realistic, size-aware virtual try-on with potential impact on e-commerce and garment visualization.
Abstract
This paper addresses a new virtual try-on problem of fitting any size of clothes to a reference person in the image domain. While previous image-based virtual try-on methods can produce highly natural try-on images, these methods fit the clothes on the person without considering the relative relationship between the physical sizes of the clothes and the person. Different from these methods, our method achieves size-variable virtual try-on in which the image size of the try-on clothes is changed depending on this relative relationship of the physical sizes. To relieve the difficulty in maintaining the physical size of the closes while synthesizing the high-fidelity image of the whole clothes, our proposed method focuses on the residual between the silhouettes of the clothes in the reference and try-on images. We also develop a size-variable virtual try-on dataset consisting of 1,524 images provided by 26 subjects. Furthermore, we propose an evaluation metric for size-variable virtual-try-on. Quantitative and qualitative experimental results show that our method can achieve size-variable virtual try-on better than general virtual try-on methods.
