DGTR (Ours) Overview: Given \(M\) individual devices (drones), we aim to perform sparse-view vast scene reconstruction with fast speed in a multi-device collaboration manner. The whole pipeline can be divided into three steps: 1) each device explores a non-overlap region and conducts Gaussian initialization using the off-the-shelf feed-forward Gaussian method and global alignment strategy; 2) each device performs sparse-view scene reconstruction using the initialized Gaussians; 3) The device uploads the well-trained Gaussian model to the central server, the central server performs model aggregation in a distillation manner.
Quantitative results of novel view synthesis on Mill19 dataset
and UrbanScene3D dataset. $\uparrow$: higher is better, $\downarrow$: lower is better.
The \colorbox{red}{red}, \colorbox{orange}{orange} and \colorbox{yellow}{yellow} colors respectively denote the best, the second best, and the third best results on the sparse-view setting.
The \underline{Underline} denotes the best results in all methods.
$\dagger$ denotes half of the test images are included in the training set.
$\ddagger$ denotes it uses all dense images as the training set.
Qualitative results on on Mill19 dataset
and UrbanScene3D dataset.
@article{li2025DGTR,
title={DGTR: Distributed Gaussian Turbo-Reconstruction for Sparse-View Vast Scenes},
author={Hao Li and Yuanyuan Gao and Haosong Peng and Chenming Wu and Weicai Ye and Yufeng Zhan and Chen Zhao and Dingwen Zhang and Jingdong Wang and Junwei Han},
year={2025},
eprint={2501.xxxx},
}