Key result
Deep-learning model evaluates zebrafish ejection fraction from echo-videos with ~10% average error rate.
Why the study?
Current techniques to assess cardiac functions from zebrafish heart echo-videos are time-consuming and error-prone, limiting large-scale analysis.
A deep-learning model can accurately and automatically evaluate ejection fraction from zebrafish echocardiography videos, providing a promising tool for large-scale cardiovascular research.
May accelerate large-scale zebrafish cardiac phenotyping; leaves open validation for clinical echocardiography applications.
Zebrafish is a well-established model organism for cardiovascular disease studies in which one of the most popular tasks is to assess cardiac functions from the heart beating echo-videos. However, current techniques are often time-consuming and error-prone, making them unsuitable for large-scale analysis. To address this problem, we designed a method to automatically evaluate the ejection fraction of zebrafish from heart echo-videos using a deep-learning model architecture. Our model achieved a validation Dice coefficient of 0.967 and an IoU score of 0.937 which attest to its high accuracy. Our test findings revealed an error rate ranging from 0.11% to 37.05%, with an average error rate of 9.83%. This method is widely applicable in any laboratory setting and can be combined with binary recordings to optimize the efficacy and consistency of large-scale video analysis. By facilitating the precise quantification and monitoring of cardiac function in zebrafish, our approach outperforms traditional methods, substantially reducing the time and effort required for data analysis. The advantages of our method make it a promising tool for cardiovascular research using zebrafish.
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Huang et al. (2023) studied Cardiovascular disease (zebrafish model). Deep-learning model for evaluating ejection fraction vs. Traditional methods was evaluated on Validation Dice coefficient, IoU score, and error rate. A deep-learning model evaluating zebrafish ejection fraction from echo-videos achieved a validation Dice coefficient of 0.967, an IoU score of 0.937, and an average error rate of 9.83%.
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