Zhu Juncheng, Yao Shifa, Yao Zhao, Yu Jinhua, Qian Zhaoxia, Chen Ping
School of Information Science and Technology, Fudan University, Shanghai, China.
Ultrasound Department, The International Peace Maternity and Child Health Hospital, School of Medicine, Shanghai JiaoTong University, Shanghai, China.
Front Pediatr. 2023 Apr 20;11:1144952. doi: 10.3389/fped.2023.1144952. eCollection 2023.
White matter injury (WMI) is now the major disease that seriously affects the quality of life of preterm infants and causes cerebral palsy of children, which also causes periventricular leuko-malacia (PVL) in severe cases. The study aimed to develop a method based on cranial ultrasound images to evaluate the risk of WMI.
This study proposed an ultrasound radiomics diagnostic system to predict the WMI risk. A multi-task deep learning model was used to segment white matter and predict the WMI risk simultaneously. In total, 158 preterm infants with 807 cranial ultrasound images were enrolled. WMI occurred in 32preterm infants (20.3%, 32/158).
Ultrasound radiomics diagnostic system implemented a great result with AUC of 0.845 in the testing set. Meanwhile, multi-task deep learning model preformed a promising result both in segmentation of white matter with a Dice coefficient of 0.78 and prediction of WMI risk with AUC of 0.863 in the testing cohort.
In this study, we presented a data-driven diagnostic system for white matter injury in preterm infants. The system combined multi-task deep learning and traditional radiomics features to achieve automatic detection of white matter regions on the one hand, and design a fusion strategy of deep learning features and manual radiomics features on the other hand to obtain stable and efficient diagnostic performance.
白质损伤(WMI)是目前严重影响早产儿生活质量并导致儿童脑瘫的主要疾病,严重时还会引发脑室周围白质软化(PVL)。本研究旨在开发一种基于颅脑超声图像的方法来评估WMI风险。
本研究提出了一种超声放射组学诊断系统来预测WMI风险。使用多任务深度学习模型同时对白质进行分割并预测WMI风险。共纳入158例有807张颅脑超声图像的早产儿。32例早产儿发生了WMI(20.3%,32/158)。
超声放射组学诊断系统在测试集中取得了良好结果,AUC为0.845。同时,多任务深度学习模型在测试队列中表现出色,白质分割的Dice系数为0.78,WMI风险预测的AUC为0.863。
在本研究中,我们提出了一种针对早产儿白质损伤的数据驱动诊断系统。该系统一方面结合多任务深度学习和传统放射组学特征实现白质区域的自动检测,另一方面设计深度学习特征与手动放射组学特征的融合策略以获得稳定高效的诊断性能。