NeRF represents a scene with learned, continuous volumetric radiance field $F_\theta$ defined over a bounded 3D volume. In a NeRF, $F_\theta$ is a multilayer perceptron (MLP) that takes as input a 3D position $x = (x, y, z)$ and unit-norm viewing direction $d = (dx, dy, dz)$, and produces as output a density $\sigma$ and color $c = (r, g, b)$. The weights of the multilayer perceptron that parameterize $F_\theta$ are optimized so as to encode the radiance field of the scene. Volume rendering is used to compute the color of a single pixel.
Source: NeRF: Representing Scenes as Neural Radiance Fields for View SynthesisPaper | Code | Results | Date | Stars |
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Task | Papers | Share |
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Novel View Synthesis | 131 | 17.99% |
3D Reconstruction | 71 | 9.75% |
Neural Rendering | 27 | 3.71% |
Autonomous Driving | 24 | 3.30% |
Pose Estimation | 24 | 3.30% |
3D Generation | 21 | 2.88% |
3D Scene Reconstruction | 19 | 2.61% |
Object | 18 | 2.47% |
Text to 3D | 16 | 2.20% |
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🤖 No Components Found | You can add them if they exist; e.g. Mask R-CNN uses RoIAlign |