Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
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570-03-180.
Predicting T1rho Map with PD- and T2-weighted MRI for Knee Joint
Impact: We demonstrated the capability of deep learning neural
networks to predict T1rho maps without requiring actual T1rho scans, which
could significantly reduce scan time and enable retrospective analysis of
valuable historical clinical data.
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570-03-181.
Zero‑Shot Low‑Field MRI Quality Enhancement Using a Noise Level Adaptive Diffusion Model (Nila)
Impact: This
method boosts readability of routine Low‑field scans using only high‑field training
data, requires no paired data or retraining.
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570-03-182.
Deep Learning Super-Resolution for T1-Weighted Magnetic Resonance Imaging at 0.5T
Impact: The use of super-resolution techniques coupled with 0.5T MRI can be used to reduce scan time and boost SNR, showing potential in patient applications that may not be achievable at higher field strengths.
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570-03-183.
Deep Learning-Augmented SENSE/GRAPPA Parallel Imaging for Enhanced Image Quality and Diagnostic Accuracy in Femoroacetabular
Impact: To optimize Femoroacetabular Impingement (FAI) MRI protocols, explore the application value of integrating Deep Learning (DL) with multimodal parallel imaging technologies to facilitate clinical popularization, and open up new directions for AI-based musculoskeletal imaging.
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570-03-184.
Liver Cirrhosis Visual Severity Estimation From MRI With Deep Learning
Impact: This study introduces a large-scale, multi-sequence MRI deep learning framework for automated visual estimation of liver cirrhosis severity. Accurately stratifying patients early using MRI images will lead to better patient management and ultimately better outcomes.
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570-03-185.
2D to 3D MR Image Super-Resolution using Cross-Contrast Guidance
Impact: This work introduces a cross-contrast 3D super-resolution framework that reconstructs diagnostic-quality high-resolution MRI from rapid 2D scans, enabling significant scan-time reduction while preserving fine anatomical detail, improving lesion visibility, and enhancing the clinical feasibility of accelerated multi-contrast brain imaging.
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570-03-186.
Deep learning-accelerated fat suppressed T2-weighted imaging of the breast: Faster acquisition with comparable image quality
Impact: Deep learning-accelerated T2-weighted imaging of
the breast significantly reduces scan time while maintaining diagnostic
quality, offering a feasible solution to optimize breast MRI workflow.
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570-03-187.
Neural Networks for Dictionary-Free MR Fingerprint Matching in the Brain: A Systematic Review
Impact: ML for MRF parameter is a promising alternative to dictionary matching. However, standardised evaluation protocols and validation in disease populations are essential to determine which architectures best suit different sequences and clinical applications.
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570-03-188.
UniCMR: Enhancing Reconstruction Generalization for Cross-Center Cardiac MR via A Cascaded Network and DFU Module
Impact: The proposed cascaded network, incorporating DFU modules to adapt to multi-center inputs, offers a robust solution to the domain shift issue in MRI reconstruction and expands its cross-center generalization.
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© 2026 International Society for Magnetic Resonance in Medicine