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Autores principales: Zhang, Haotian, Long, Feiyue, Yu, Yixin, Xue, Jian, Tang, Haocheng, Xu, Tongda, Shi, Zhenning, Wang, Yan, Ma, Siwei, Zhang, Jiaqi
Formato: Preprint
Publicado: 2026
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Acceso en línea:https://arxiv.org/abs/2603.03615
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author Zhang, Haotian
Long, Feiyue
Yu, Yixin
Xue, Jian
Tang, Haocheng
Xu, Tongda
Shi, Zhenning
Wang, Yan
Ma, Siwei
Zhang, Jiaqi
author_facet Zhang, Haotian
Long, Feiyue
Yu, Yixin
Xue, Jian
Tang, Haocheng
Xu, Tongda
Shi, Zhenning
Wang, Yan
Ma, Siwei
Zhang, Jiaqi
contents Multi-view image compression (MIC) aims to achieve high compression efficiency by exploiting inter-image correlations, playing a crucial role in 3D applications. As a subfield of MIC, distributed multi-view image compression (DMIC) offers performance comparable to MIC while eliminating the need for inter-view information at the encoder side. However, existing methods in DMIC typically treat all images equally, overlooking the varying degrees of correlation between different views during decoding, which leads to suboptimal coding performance. To address this limitation, we propose a novel $\textbf{OmniParallax Attention Mechanism}$ (OPAM), which is a general mechanism for explicitly modeling correlations and aligned features between arbitrary pairs of information sources. Building upon OPAM, we propose a Parallax Multi Information Fusion Module (PMIFM) to adaptively integrate information from different sources. PMIFM is incorporated into both the joint decoder and the entropy model to construct our end-to-end DMIC framework, $\textbf{ParaHydra}$. Extensive experiments demonstrate that $\textbf{ParaHydra}$ is $\textbf{the first DMIC method}$ to significantly surpass state-of-the-art MIC codecs, while maintaining low computational overhead. Performance gains become more pronounced as the number of input views increases. Compared with LDMIC, $\textbf{ParaHydra}$ achieves bitrate savings of $\textbf{19.72%}$ on WildTrack(3) and up to $\textbf{24.18%}$ on WildTrack(6), while significantly improving coding efficiency (as much as $\textbf{65}\times$ in decoding and $\textbf{34}\times$ in encoding).
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spellingShingle Parallax to Align Them All: An OmniParallax Attention Mechanism for Distributed Multi-View Image Compression
Zhang, Haotian
Long, Feiyue
Yu, Yixin
Xue, Jian
Tang, Haocheng
Xu, Tongda
Shi, Zhenning
Wang, Yan
Ma, Siwei
Zhang, Jiaqi
Computer Vision and Pattern Recognition
Multi-view image compression (MIC) aims to achieve high compression efficiency by exploiting inter-image correlations, playing a crucial role in 3D applications. As a subfield of MIC, distributed multi-view image compression (DMIC) offers performance comparable to MIC while eliminating the need for inter-view information at the encoder side. However, existing methods in DMIC typically treat all images equally, overlooking the varying degrees of correlation between different views during decoding, which leads to suboptimal coding performance. To address this limitation, we propose a novel $\textbf{OmniParallax Attention Mechanism}$ (OPAM), which is a general mechanism for explicitly modeling correlations and aligned features between arbitrary pairs of information sources. Building upon OPAM, we propose a Parallax Multi Information Fusion Module (PMIFM) to adaptively integrate information from different sources. PMIFM is incorporated into both the joint decoder and the entropy model to construct our end-to-end DMIC framework, $\textbf{ParaHydra}$. Extensive experiments demonstrate that $\textbf{ParaHydra}$ is $\textbf{the first DMIC method}$ to significantly surpass state-of-the-art MIC codecs, while maintaining low computational overhead. Performance gains become more pronounced as the number of input views increases. Compared with LDMIC, $\textbf{ParaHydra}$ achieves bitrate savings of $\textbf{19.72%}$ on WildTrack(3) and up to $\textbf{24.18%}$ on WildTrack(6), while significantly improving coding efficiency (as much as $\textbf{65}\times$ in decoding and $\textbf{34}\times$ in encoding).
title Parallax to Align Them All: An OmniParallax Attention Mechanism for Distributed Multi-View Image Compression
topic Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2603.03615