1The Chinese University of Hong Kong 2Massachusetts Institute of Technology †Corresponding Author
3D reconstruction of biological tissues from a collection of endoscopic images is a key to unlock various important downstream surgical applications with 3D capabilities.
Existing methods employ various advanced neural rendering techniques for photorealistic view synthesis,
but they often struggle to recover accurate 3D representations when only sparse observations are available,
which is usually the case in real-worldclinical scenarios.
To tackle this sparsity challenge, we propose a frame work leveraging the prior knowledge from multiple foundation models during the reconstruction process, dubbed as EndoSparse.
Experimental results indicate that our proposed strategy significantly improves the geometric and appearance quality under challenging sparse-view conditions, including using only three views.
In rigorous benchmarking experiments against state-of-the-art methods, EndoSparse achieves superior results in terms of accurate geometry, realistic appearance, and rendering efficiency, confirming the robustness to sparse-view limitations in endoscopicreconstruction.
EndoSparse signifies a steady step towards the practical deployment of neural 3D reconstruction in real-world clinical scenarios.
@article{li2024endosparse,
author = {Chenxin Li and Brandon Y. Feng and Yifan Liu and Hengyu Liu and Cheng Wang and Weihao Yu and Yixuan Yuan},
title = {EndoSparse: Real-Time Sparse View Synthesis of Endoscopic Scenes using Gaussian Splatting},
journal = {arXiv preprint},
year = {2024}
}
An intial exploration into real-time surgincal scene reconstruction built on 3D Gaussian Splatting.
An initial investigation into memory-efficient surgical scene reconstruction achieves over 9X compression while preserving high visual quality and efficiency.
A pioneering exploration into high-fidelity medical video generation on endoscopy scenes.
An innovative enhancement of U-Net for medical image tasks using Kolmogorov-Arnold Network (KAN).