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Explicit Correspondence Matching for Generalizable Neural Radiance Fields
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We present a new generalizable NeRF method that is able to directly generalize to new unseen scenarios and perform novel view synthesis with as few as two source views. The key to our approach lies in the explicitly modeled correspondence matching information, so as to provide the geometry prior to the prediction of NeRF color and density for volume rendering. The explicit correspondence matching is quantified with the cosine similarity between image features sampled at the 2D projections of a 3D point on different views, which is able to provide reliable cues about the surface geometry. Unlike previous methods where image features are extracted independently for each view, we consider modeling the cross-view interactions via Transformer cross-attention, which greatly improves the feature matching quality. Our method achieves state-of-the-art results on different evaluation settings, with the experiments showing a strong correlation between our learned cosine feature similarity and volume density, demonstrating the effectiveness and superiority of our proposed method. The code and model are on our project page: https://donydchen.github.io/matchnerf
Forward citations
Cited by 3 Pith papers
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TinySplat: Feedforward Approach for Generating Compact 3D Scene Representation
TinySplat compresses feedforward 3D Gaussian scenes by 105-199x on two-view benchmarks (about 50x on DL3DV) while keeping rendered quality close to the uncompressed model.
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GoLF-NRT: Integrating Global Context and Local Geometry for Few-Shot View Synthesis
GoLF-NRT fuses global context from a 3D sparse-attention transformer with epipolar local geometry and kernel-regression adaptive sampling to improve few-shot novel view synthesis.
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Depth-Guided Bundle Sampling for Efficient Generalizable Neural Radiance Field Reconstruction
A depth-guided bundle sampling strategy for generalizable NeRFs and 3D-GS groups rays into cones, samples spheres with mipmap features, and adaptively allocates samples by depth confidence.
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