Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
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468-06-001.
Simultaneous multi-Slice Cardiac Cine and T₁/T₂ Mappings using Cine-Referenced Dynamic SMS
Impact: A novel cardiac MRI method integrates multi-slice cine imaging with inline T₁ and T₂ mapping using cine-referenced dynamic SMS, enabling accurate, efficient myocardial tissue characterization and functional assessment in a single breath-hold without separate reference scans.
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468-06-002.
High-Resolution Cardiac Late Gadolinium Enhancement Imaging at 5.0T: A Feasibility Study
Impact: This study enables sub-millimeter LGE at 5.0T, empowering clinicians to detect subtle lesions with greater confidence. It confirms the system's viability and prompts future work on protocol optimization for routine clinical use.
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468-06-003.
Improved spiral real-time cardiac imaging using de-aliasing network with transformer architecture
Impact: Higher spatial and temporal resolution real-time cardiac
imaging will support MR-guided interventions and improved diagnostic imaging in
patients with arrhythmia.
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468-06-004.
Fast Radial Cine MRI with View Sharing and ML Regridding
Impact: For low-latency real-time low-field cine MRI, we investigate the combination of a machine learning reconstruction with a fractional view-sharing frame-combination pipeline for highly undersampled imaging at MRI-linacs, demonstrating improved image quality while preserving temporal fidelity and reconstruction time.
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468-06-005.
An End-to-End Neural Network for Establishing Left-Ventricular Volume from Sparse Cine Slices
Impact: Left-ventricle
(LV) volume can be reconstructed from several sparse segmented Cine MRI slices
using a deep-learning approach. LV function estimates from the reconstructed
model showed good agreement with reference values, suggesting that cine imaging
can be shortened.
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468-06-006.
Concentric-stack SMS for slice-synchronized time-resolved CINE MRI
Impact: A method for acquiring and reconciling separate SMS stacks of time-resolved CINEs can enable globally synchronized ejection fraction analysis, benefiting the assessment of cardiac function in patients for whom segmented, ECG-gated cine is not preferred.
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468-06-007.
Accelerating 2D Radial Cardiac MRI: Fully Polar-Based Compressed Sensing with Spatially Variable Temporal-TV
Impact: The fully polar-based
compressed sensing (CS) approach incorporates spatially variable weights for
temporal total variation (TV) in radial cardiac MRI reconstruction, leading to
reduced regularization in the cardiac region. Sharper myocardium
reconstructions may improve diagnostics in accelerated 2D radial MRI.
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468-06-008.
Automatic 3D Multi-View Planning for Cardiac MRI: Standardization Across Operator Experience Levels
Impact: Automatic 3D multi-view planning enables consistent, operator-independent cardiac MR examinations, reducing scan time and improving workflow efficiency, which may facilitate broader clinical adoption of cardiac MRI.
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468-06-009.
Comparison of Spin and Gradient Echo Encoding Strategies for Low-Velocity Phase Contrast MRI on a Head-Only Scanner
Impact: This work demonstrates that gradient echo (GRE)
EPI enables improved visualization and quantification of low-velocity CSF flow
on a high-performance head-only system. These findings establish a foundation
for quantification of slow physiologic motion and optimization of future
low-velocity PC-MRI protocols.
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468-06-010.
Reduction of stimulated echo artifacts with modified trajectories in radial dual Venc 4D Flow MRI without gradient spoiling
Impact: By varying the
trajectory in the velocity encoding direction of radial 4D-Flow MRI,
gradient-free spoiling can be achieved without obtaining artifacts. This paves
the way for lower repetition times and, consequently, higher temporal
resolution, thereby enhancing diagnostic accuracy.
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468-06-011.
Model-Based 4D CMR Reconstructions using Neural Fields and Tensor Product Expansions
Impact:
Our framework enables accurate 3D and 4D CMR reconstructions at high acceleration rates by replacing discrete image representations with continuous ones. This methodology unlocks flexible sampling strategies paving the way for faster, more robust cardiac imaging—especially in challenging 4D settings. |
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468-06-012.
ZTE-STAR: Dynamic Zero-TE imaging with a 3D Spiral-Phyllotaxis Trajectory using Temporal TV and Algebraic Dead-Time Filling
Impact: Proposed framework, ZTE-STAR establishes a robust method for dynamic ZTE imaging, offering flexible temporal resolution and high motion tolerance. It overcomes limitations of conventional radial methods, providing a technical foundation for reliably depicting target dynamics in challenging applications.
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468-06-013.
Single-shot 2D Radial Echo Planar Time-Resolved Imaging
Impact: This ss-rEPI approach enables ultra-fast, distortion-free multi-parametric brain mapping with potential implications for quantitative fMRI and clinical neuroimaging in general.
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468-06-014.
Visualizing Dynamic TMJ Movement Using T2-live MRI
Impact: T2-weighted live MRI captures real-time TMJ disc motion without a mouth prop, revealing disc-condyle coordination. It improves diagnostic accuracy, reduces discomfort, and directly informs treatment decisions for both conservative and surgical interventions.
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468-06-015.
MIC: Automatic Motion-Informed Coil Selection For Speech Real-Time MRI
Impact: Automatic motion-informed coil selection accelerates real-time MRI reconstruction while improving visualization of articulatory motion. The proposed method enhances speech MRI efficiency, enabling wider deployment of high-quality dynamic imaging in speech research and clinical evaluation of articulatory disorders.
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468-06-016.
Capturing fast speech articulations with real-time MRI using radial sequences with uniform angular spacing
Impact: This framework enables real-time investigation of speech articulation on standard clinical MRI scanners with product sequences, broadening access to dynamic speech imaging. It allows researchers to study rapid articulations, supporting clinical research into communication disorders and therapy outcomes.
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