Credible and Detailed 3D Face Reconstruction in Large Pose

The existing monocular methods face huge challenges in reconstructing credible details of non-visible areas in large pose images. Due to the fact that facial details are lost in non-visible areas of large pose images, existing methods lose basis when reconstructing details, resulting in unreliable results. Even if the generative model is used to repair the image first, the reconstruction process is very complex and costly. To this end, we propose an end-to-end and self-supervised RGB to depth method that equates small pose to large pose in UV space to obtain labels for non-visible areas. Then, we infer the depth values of non-visible areas and reconstruct a detailed 3D face. Finally, we render it into a face image and use it alongside the labels for self-supervised training of the network. During inference for large pose image, our method could reconstruct credible details of non-visible areas with a basis, rather than blindly. In addition, coarse and detailed reconstruction have mutually exclusive requirements for training images while coarse reconstruction is often not met, resulting in limited reconstruction accuracy. We propose a mutual exclusion elimination method to solve it, improving its accuracy. Extensive experiments demonstrate that our method could reconstruct precise 3D faces with credible details from large pose images. Our supplementary material is published on: https://github.com/lxy-nxu/ICASSP2025/tree/main

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Publication Details

Published
2025-03-12
DOI
https://doi.org/10.1109/icassp49660.2025.10889142
Citations
1
Primary Topic
Face recognition and analysis
Type
article
Field-Weighted Citation Impact
1.28

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article

Credible and Detailed 3D Face Reconstruction in Large Pose

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1 citations
Face recognition and analysis
1.28
article

Credible and Detailed 3D Face Reconstruction in Large Pose

Xitie Zhang, Ruijie Peng, Xiang Zhang, Xinyu Li, Suping Wu, Kehua Ma
article en
1 citations

Abstract

The existing monocular methods face huge challenges in reconstructing credible details of non-visible areas in large pose images. Due to the fact that facial details are lost in non-visible areas of large pose images, existing methods lose basis when reconstructing details, resulting in unreliable results. Even if the generative model is used to repair the image first, the reconstruction process is very complex and costly. To this end, we propose an end-to-end and self-supervised RGB to depth method that equates small pose to large pose in UV space to obtain labels for non-visible areas. Then, we infer the depth values of non-visible areas and reconstruct a detailed 3D face. Finally, we render it into a face image and use it alongside the labels for self-supervised training of the network. During inference for large pose image, our method could reconstruct credible details of non-visible areas with a basis, rather than blindly. In addition, coarse and detailed reconstruction have mutually exclusive requirements for training images while coarse reconstruction is often not met, resulting in limited reconstruction accuracy. We propose a mutual exclusion elimination method to solve it, improving its accuracy. Extensive experiments demonstrate that our method could reconstruct precise 3D faces with credible details from large pose images. Our supplementary material is published on: https://github.com/lxy-nxu/ICASSP2025/tree/main

Ningxia University (CN)
National Natural Science Foundation of China
Sustainable cities and communities
Openalex Percentile: Top 22%
Face recognition and analysis
1.28
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