Fillerbuster: Unified Generative Scene Completion Model for Casual Captures
Ethan Weber, Norman M\"uller, Yash Kant, Vasu Agrawal, Michael Zollh\"ofer, Angjoo Kanazawa, Christian Richardt

TL;DR
Fillerbuster is a unified generative model that completes missing regions in 3D scene captures by leveraging multi-view input frames, capable of handling uncalibrated scenes and producing both images and camera poses.
Contribution
The paper introduces Fillerbuster, a novel multi-view latent diffusion transformer that jointly completes missing scene regions and estimates camera poses in uncalibrated scenarios.
Findings
Successfully completes partial 3D scene captures on multiple datasets.
Handles uncalibrated scenes by predicting both missing content and camera poses.
Open-sourced framework for integration into reconstruction platforms.
Abstract
We present Fillerbuster, a unified model that completes unknown regions of a 3D scene with a multi-view latent diffusion transformer. Casual captures are often sparse and miss surrounding content behind objects or above the scene. Existing methods are not suitable for this challenge as they focus on making known pixels look good with sparse-view priors, or on creating missing sides of objects from just one or two photos. In reality, we often have hundreds of input frames and want to complete areas that are missing and unobserved from the input frames. Our solution is to train a generative model that can consume a large context of input frames while generating unknown target views and recovering image poses when camera parameters are unknown. We show results where we complete partial captures on two existing datasets. We also present an uncalibrated scene completion task where our…
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Taxonomy
TopicsMedical Imaging and Analysis · Anomaly Detection Techniques and Applications · Image Processing and 3D Reconstruction
MethodsDiffusion · Focus
