Proceedings Article10.1109/ICSIP55141.2022.9886147
Deep Learning with Modified Loss function to Predict Gestational Age of the Fetal Brain
Wen Nie,Wei Xia,Yadong Yan,ZhanHong Qiu +3 more
- 20 Jul 2022
pp 572-575
1
TL;DR: This study uses deep learning to classify and predict fetal gestational age through MRI images, and changes the cross-entropy loss function of the network model to Fnlloss and Flloss to have a better improvement in the accuracy of classification.
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Abstract: Fetal magnetic resonance imaging (MRI) sequences are often used for fetal development judgment and disease diagnosis. In clinical practice, doctors usually rely on the naked eye to identify and make corresponding judgments based on the shape, depth and appearance time of the sulci and gyri between different gestational ages. This study uses deep learning to classify and predict fetal gestational age. Because ultrasound detection is accurate in the first trimester, and after this time, it is impossible to accurately judge and predict the corresponding gestational age, so this is a problem that we need to solve. We use MRI images to classify and predict the gestational age of the next three months. We select 13 gestational ages of the coronal sequence of 22 to 34 as the classification prediction data. For adequate training, we changed the cross-entropy loss function of the network model to Fnlloss and Flloss we proposed. The model after modifying the loss function has a better improvement in the accuracy of classification compared to the original cross-entropy loss used by the network model
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Citations
JoCoRank: Joint correlation learning with ranking similarity regularization for imbalanced fetal brain age regression
Ran Zhou,Yang Liu,Wei Xia,Yu Guo,Zhongwei Huang,Haitao Gan,Aaron Fenster +6 more
TL;DR: A novel joint correlation learning with ranking similarity regularization (JoCoRank) algorithm for deep imbalanced regression of fetal brain age and the customized optimization scheme for each criterion exhibits strong robustness against outliers and imbalanced regression.
1
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