Document detail
ID

oai:arXiv.org:2310.09221

Topic
Electrical Engineering and Systems... Computer Science - Computer Vision...
Author
Li, Xuewei Zhu, Yaqiao Gao, Jie Wei, Xi Zhang, Ruixuan Tian, Yuan Liu, ZhiQiang
Category

Computer Science

Year

2023

listing date

1/24/2024

Keywords
thyroid
Metrics

Abstract

Segmentation of nodules in thyroid ultrasound imaging plays a crucial role in the detection and treatment of thyroid cancer.

However, owing to the diversity of scanner vendors and imaging protocols in different hospitals, the automatic segmentation model, which has already demonstrated expert-level accuracy in the field of medical image segmentation, finds its accuracy reduced as the result of its weak generalization performance when being applied in clinically realistic environments.

To address this issue, the present paper proposes ASTN, a framework for thyroid nodule segmentation achieved through a new type co-registration network.

By extracting latent semantic information from the atlas and target images and utilizing in-depth features to accomplish the co-registration of nodules in thyroid ultrasound images, this framework can ensure the integrity of anatomical structure and reduce the impact on segmentation as the result of overall differences in image caused by different devices.

In addition, this paper also provides an atlas selection algorithm to mitigate the difficulty of co-registration.

As shown by the evaluation results collected from the datasets of different devices, thanks to the method we proposed, the model generalization has been greatly improved while maintaining a high level of segmentation accuracy.

Li, Xuewei,Zhu, Yaqiao,Gao, Jie,Wei, Xi,Zhang, Ruixuan,Tian, Yuan,Liu, ZhiQiang, 2023, Ultrasound Image Segmentation of Thyroid Nodule via Latent Semantic Feature Co-Registration

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