Echocardiographic Image Segmentation for Diagnosing Fetal Cardiac Rhabdomyoma During Pregnancy Using Deep Learning

Abstract

Automated interpretation of cardiac images has the potential to change clinical practice in many ways. For example, it could make it possible for non-experts in primary care and rural settings to test the heart's function over time. In this paper, we tested the research hypothesis that recent developments in computer vision would make it possible to create a fully automated, scalable analysis for echocardiogram interpretation, covering all of the steps from view identification and Medical Image Segmentation (MIS) to structure and function quantification and Fetal Cardiac RhabDomyomas (FCRD) detection. Even though they are rare, FCRDs are the most frequent cause of Fetal Cardiac Tumor (FCT). When it comes to diagnosing and monitoring fetuses with an injured circulatory system, imaging (particularly echocardiography (ECG)) has proven helpful in the field of fetal cardiology. Because of the severe lack of qualified and experienced sonographers, it is very challenging t o diagnose Cardiac RhabDomyomas (CRD). Prior to delivery, accurate segmentation of the FC to identify structural cardiac defects is critical for minimizing the illness among newborns. To automate the process of segmenting the cardiac chamber for the CRD, we propose a novel Attention-Residual Network-based V-Net architecture (ARVNet). In this study, examinations were performed on Fetal Rhabdomyomas noted in the Right Ventricle (FRRV), Fetal Rhabdomyomas noted in the Left Ventricle (FRLV), Fetal Rhabdomyomas noted in the Right Atrium (FRRA), Fetal Rhabdomyomas noted in the Left Atrium (FRLA), Fetal Rhabdomyomas noted in the Tricuspid Valve (FRTV). Images without Rhabdomyoma mean "Normal Condition (NC)" at Selvam Hospital in Melapalayam, Tirunelveli, Tamil Nadu, India. Even with a relatively small number of datasets, the proposed technique possesses high CRD detection performance, as evidenced by the results. The results showed that the proposed model did a good job segmenting all the views, with a specificity of 99.7% and a Dice coefficient similarit y of 99.8%. It also did well at finding CRDs, with an average mean accuracy of around 99.85%.

Fetal 3d-Echo Classification and Segmentation Using Color and Textural Features for Tr Detection

“…Reference [19] an ARV-based V-Net architecture can take a fetal cardiac rhabdomyoma segmentation. The main objective of developing an algorithm to automatically identify FCRD from ultrasound images has been achieved.…”

“…A comparison of the suggested model with machine learning networks, such as ResNet, DenseNet, LinkNet, and U-Net, is shown in Table 2. CNN 89.1% Imayanmosha [19] Machine Learning 95.33% Zamzmi [24] Deep learning 91.6% Proposed TRI-FH approach 98.07%…”

Enhancing Fetal Medical Image Analysis through Attention-guided Convolution: A Comparative Study with Established Models

“…Using transfer learning and ensemble approaches, the authors propose a comprehensive solution for multi-task analysis, in this case predicting the gestational age and weight of a fetus from ultrasound scans. Sengan et al (2022) use deep learning to segment echocardiographic images for prenatal diagnosis of fetal cardiac rhabdomyoma. The authors' goal is to aid in the early detection of cardiac problems by using deep learning algorithms to segment photos of the fetal heart.…”