Surface-Based Visibility-Guided Uncertainty for Continuous Active 3D Neural Reconstruction

Fuente: arXiv
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Hauptverfasser: Kim, Hyunseo, Yang, Hyeonseo, Kim, Taekyung, Kim, YoonSung, Lee, Minsu, Kim, Jin-Hwa, Zhang, Byoung-Tak
Format: Preprint
Veröffentlicht: 2024
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author Kim, Hyunseo
Yang, Hyeonseo
Kim, Taekyung
Kim, YoonSung
Lee, Minsu
Kim, Jin-Hwa
Zhang, Byoung-Tak
author_facet Kim, Hyunseo
Yang, Hyeonseo
Kim, Taekyung
Kim, YoonSung
Lee, Minsu
Kim, Jin-Hwa
Zhang, Byoung-Tak
contents View selection is critical in active 3D neural reconstruction as it impacts the contents of training set and resulting final output quality. Recent view selection strategies emphasize the visibility when evaluating model uncertainty in active 3D reconstruction. However, existing approaches estimate visibility only after the model fully converges, which has confined their application primarily to non-continuous active learning settings. This paper proposes Surface-Based Visibility field (SBV) that successfully estimates the visibility-guided uncertainty in continuous active 3D neural reconstruction. During learning neural implicit surfaces, our model learns rendering uncertainties and infers surface confidence values derived from signed distance functions. It then updates surface confidences using a voxel grid, robustly deducing the surface-based visibility for uncertainties. This approach captures uncertainties across all regions, whether well-defined surfaces or ambiguous areas, ensuring accurate visibility measurement in continuous active learning. Experiments on benchmark datasets-Tanks and Temples, BlendedMVS, Blender, DTU-and the newly proposed imbalanced viewpoint dataset (ImBView) show that view selection based on SBV-guided uncertainty improves performance by up to 11.6% over existing methods, highlighting its effectiveness in challenging reconstruction scenarios.
format Preprint
id arxiv_https___arxiv_org_abs_2405_02568
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Surface-Based Visibility-Guided Uncertainty for Continuous Active 3D Neural Reconstruction
Kim, Hyunseo
Yang, Hyeonseo
Kim, Taekyung
Kim, YoonSung
Lee, Minsu
Kim, Jin-Hwa
Zhang, Byoung-Tak
Computer Vision and Pattern Recognition
Artificial Intelligence
View selection is critical in active 3D neural reconstruction as it impacts the contents of training set and resulting final output quality. Recent view selection strategies emphasize the visibility when evaluating model uncertainty in active 3D reconstruction. However, existing approaches estimate visibility only after the model fully converges, which has confined their application primarily to non-continuous active learning settings. This paper proposes Surface-Based Visibility field (SBV) that successfully estimates the visibility-guided uncertainty in continuous active 3D neural reconstruction. During learning neural implicit surfaces, our model learns rendering uncertainties and infers surface confidence values derived from signed distance functions. It then updates surface confidences using a voxel grid, robustly deducing the surface-based visibility for uncertainties. This approach captures uncertainties across all regions, whether well-defined surfaces or ambiguous areas, ensuring accurate visibility measurement in continuous active learning. Experiments on benchmark datasets-Tanks and Temples, BlendedMVS, Blender, DTU-and the newly proposed imbalanced viewpoint dataset (ImBView) show that view selection based on SBV-guided uncertainty improves performance by up to 11.6% over existing methods, highlighting its effectiveness in challenging reconstruction scenarios.
title Surface-Based Visibility-Guided Uncertainty for Continuous Active 3D Neural Reconstruction
topic Computer Vision and Pattern Recognition
Artificial Intelligence
url https://arxiv.org/abs/2405.02568