Motivation: CMR is the gold standard for evaluating cardiac function, but its lengthy acquisition and dependence on expert readers limit its efficiency. Goal(s): We aim to develop an automated accelerated cardiac function assessment method that requires minimal data acquisition and human intervention. Approach: We propose an efficient framework for cardiac function assessment, trained on sparsely labeled, accelerated images. Our multi-task method employs a synergistic loop of registration, motion-compensated reconstruction, and segmentation, enabling mutual refinement. Results: We demonstrate reliable ventricular function analysis from accelerated MRI data, acquired even within single breath-hold Cine, and achieved a 13%-25% improvement in Dice similarity over other deep learning-based methods. Impact: Our framework enables automated cardiac function assessment, even for highly accelerated single breath-hold scans. We improve CMR accessibility for studies with limited subjects and sparse manual annotations. Results indicate reliable motion estimation, ventricular function measures and myocardial strain analysis.
Ghoul et al. (Tue,) studied this question.
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