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arXiv 2302.03022cs.CVcs.ROeess.IV

SurgT挑战:机器人手术软组织追踪器的基准测试

SurgT challenge: Benchmark of Soft-Tissue Trackers for Robotic Surgery

Imperial College London(伦敦帝国理工学院);Jmees(Jmees公司);Electronics and Telecommunications Research Institute (ETRI)(电子通信研究院);Ajou University(亚洲大学);University of Toronto(多伦多大学);University College London(伦敦大学学院)
Joao Cartucho, Alistair Weld, Samyakh Tukra, Haozheng Xu, Hiroki Matsuzaki, Taiyo Ishikawa, Minjun Kwon, Yong Eun Jang, Kwang-Ju Kim, Gwang Lee, Bizhe Bai, Lued… 展开作者

Joao Cartucho, Alistair Weld, Samyakh Tukra, Haozheng Xu, Hiroki Matsuzaki, Taiyo Ishikawa, Minjun Kwon, Yong Eun Jang, Kwang-Ju Kim, Gwang Lee, Bizhe Bai, Lueder Kahrs, Lars Boecking, Simeon Allmendinger, Leopold Muller, Yitong Zhang, Yueming Jin, Sophia Bano, Francisco Vasconcelos, Wolfgang Reiter, Jonas Hajek, Bruno Silva, Estevao Lima, Joao L. Vilaca, Sandro Queiros, Stamatia Giannarou

AI总结:

本文介绍MICCAI 2022的SurgT挑战,建立软组织追踪基准,鼓励无监督深度学习,ICVS-2Ai以EAO 0.617夺冠,结果显示非深度学习方法仍具竞争力。

摘要:

本文介绍了与MICCAI 2022联合组织的“SurgT:手术追踪”挑战赛。创建该挑战赛有两个目的:(1)为研究界建立首个标准化基准,以评估软组织追踪器;(2)鉴于手术中缺乏标注数据,鼓励无监督深度学习方法的开发。挑战赛提供了来自20个临床病例的157个立体内窥镜视频数据集,以及立体相机标定参数。参与者的任务是开发算法,以在立体内窥镜视频中追踪由边界框表示的软组织运动。挑战赛结束时,所开发的方法在一个先前隐藏的测试子集上进行了评估。该评估使用了专为本次挑战赛开发的基准测试指标,以验证无监督深度学习算法在追踪软组织方面的有效性。用于方法排名的指标是期望平均重叠(EAO)分数,该分数衡量追踪器与真实边界框之间的平均重叠。在挑战赛中,ICVS-2Ai的深度学习提交以0.617的优异EAO分数获得第一名。该方法采用ARFlow从裁剪图像中估计无监督密集光流,使用光度损失和正则化损失。第二名是Jmees,EAO为0.583,其在非深度学习基线方法CSRT之上使用深度学习进行手术工具分割。CSRT本身得分为0.563,与Jmees的EAO相近。本次挑战赛的结果表明,目前非深度学习方法仍具有竞争力。为本次挑战赛创建的数据集和基准测试工具已在https://surgt.grand-challenge.org/上公开提供。

英文摘要:

This paper introduces the ``SurgT: Surgical Tracking" challenge which was organised in conjunction with MICCAI 2022. There were two purposes for the creation of this challenge: (1) the establishment of the first standardised benchmark for the research community to assess soft-tissue trackers; and (2) to encourage the development of unsupervised deep learning methods, given the lack of annotated data in surgery. A dataset of 157 stereo endoscopic videos from 20 clinical cases, along with stereo camera calibration parameters, have been provided. Participants were assigned the task of developing algorithms to track the movement of soft tissues, represented by bounding boxes, in stereo endoscopic videos. At the end of the challenge, the developed methods were assessed on a previously hidden test subset. This assessment uses benchmarking metrics that were purposely developed for this challenge, to verify the efficacy of unsupervised deep learning algorithms in tracking soft-tissue. The metric used for ranking the methods was the Expected Average Overlap (EAO) score, which measures the average overlap between a tracker's and the ground truth bounding boxes. Coming first in the challenge was the deep learning submission by ICVS-2Ai with a superior EAO score of 0.617. This method employs ARFlow to estimate unsupervised dense optical flow from cropped images, using photometric and regularization losses. Second, Jmees with an EAO of 0.583, uses deep learning for surgical tool segmentation on top of a non-deep learning baseline method: CSRT. CSRT by itself scores a similar EAO of 0.563. The results from this challenge show that currently, non-deep learning methods are still competitive. The dataset and benchmarking tool created for this challenge have been made publicly available at https://surgt.grand-challenge.org/.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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