Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
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507-04-001.
Physics-Guided Few-Shot Learnable Active Contour Model for Quantitative Body Composition Analysis on MRI PDFF images
Impact: This physics-guided learnable active contour model enables high-precision, whole-body tissue segmentation from MRI-PDFF images with minimal annotations. It facilitates scalable body composition analysis, overcoming a key bottleneck in clinical research and population health studies.
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| 16:11 |
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507-04-002.
Evaluating Direct Plane Prediction Model and conventional Landmark-based Approach for Robust Multi-View Cardiac MRI Planning
Impact: By advancing automated cardiac MR view planning, we enhance diagnostic accuracy and workflow efficiency in cardiac imaging,
benefiting both expert and non-expert clinicians. Prescribing outflow-tract in addition to standard views sets the stage for complex cardiac evaluations, broadening clinical
capabilities.
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| 16:22 |
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507-04-003.
BioTTA: Maximizing Domain Generalization in Automatic Fetal Brain Biometry with Test-Time Adaptation
Impact: The proposed unsupervised test-time adaptation framework BioTTA
enables robust cross-domain generalization of fetal brain biometry without
requiring manual labels, thereby improving model reliability across
heterogeneous MRI scanning protocols and hardware configurations, simplifying
clinical workflows, and supporting large-sale, multi-center neuroscience research.
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| 16:33 |
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507-04-004.
Open-Access Mouse Cardiac MRI Dataset and Segmentation Model: A Deep Learning Approach for Preclinical Research
Impact: This work introduces the
first open-access mouse cardiac MRI dataset and deep learning segmentation
model, with a user-friendly web app, enabling fast, reproducible cardiac
analysis to accelerate post-processing of preclinical imaging.
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| 16:44 |
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507-04-005.
Age-Conditioned Neonatal Choroid Plexus Segmentation using Adaptive Conditional Instance Normalization
Impact: Neonatal choroid plexus segmentation is challenging due to rapid age-dependent morphological changes. Our age-conditioned automated framework enables improved segmentation across ages using a single model. This method may contribute to developmental studies investigating glymphatic function and neurodevelopmental outcomes.
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| 16:55 |
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507-04-006.
HypSeg: A Deep Learning Pipeline for Hypothalamic Subregion Segmentation Trained on High-Resolution 7 Tesla MRI
Impact: This study establishes an automated 7T deep learning method for precise hypothalamic subregion mapping, reducing reliance on manual labeling and supporting large-scale studies of neuroendocrine and metabolic brain mechanisms at unprecedented spatial resolution.
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| 17:06 |
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507-04-007.
Deep Learning 4D Segmentation of Short-Axis CMR to Quantify Peak Filling and Ejection Rate in Single Ventricle Patients
Impact: We developed a novel 4D UNet3+ segmentation model that produces spatially and temporally consistent ventricular segmentations in over 1000 single-ventricle short-axis CMR. The model allows rapid calculation of peak ejection rates, which were significantly associated with adverse outcomes.
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| 17:17 |
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507-04-008.
Test-time optimization for cortical surface reconstruction across image resolutions/contrasts using untrained neural networks
Impact: We
introduce a pretraining–free, generalizable cortical surface reconstruction
method delivering accurate results across imaging resolutions, contrasts, species
and brain regions, reducing barriers to cross-domain neuroimaging. This extends
morphometric analyses to new datasets, accelerating comparative/translational
neuroscience while standardizing analyses.
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| 17:28 |
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507-04-009.
Spatio-Temporal Segmentation and Motion Analysis of Uterine Layers in Cine MRI Using Unet-LSTM and FlowNet-Lite
Impact: This study lays the foundation for deep-learning based automatic segmentation and motion analysis of the uterine cine MRI, that would in future facilitate the automated quantification of uterine peristalsis and understanding of peristaltic alterations in pathological conditions such as Adenomyosis.
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| 17:39 |
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507-04-010.
Anatomy-Aware Dynamic Causal Enhancement: A 3D-Capable Framework for Clinically Compatible Single-Source Medical Segmentation
Impact: AADCA overcomes ’black-box‘ 3D spatial feature-based gaps in single-source domain generalization(CT to MRI) tasks, facilitating the innovation of multi-modal domain adaptation and enhancing 3D medical imaging segmentation reliability for clinical translation.
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© 2026 International Society for Magnetic Resonance in Medicine