Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
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662-04-001.
Delineating Dynamic Hyperpolarized Metabolic Signatures in Patient-derived Prostate Cancer Xenografts Using AI
Impact: Our AI approach can enable deep understanding and refinement of prostate cancer subtypes in
response to therapy, from non-invasive HP-MR signatures. This has the potential to
facilitate increased prediction accuracy and significant advancement of personalized
medicine in a diverse population.
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662-04-002.
First clinical translation of volumetric deep-learning super-resolution in 3D T2 breast MRI: faster acquisition,better images
Impact: A true 3D deep-learning super-resolution framework enables substantial scan-time reduction for 3D breast T2 MRI while improving image quality and maintaining BI-RADS consistency, facilitating clinical translation for either higher throughput or enhanced diagnostic image quality.
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662-04-003.
Deep Learning-Reconstructed Thin-Slice VIBE Enhances Biliary Delineation and Lesion Detection in Hepatobiliary Phase MRI
Impact: This inline
DL-reconstruction protocol resolves the spatial resolution-SNR trade-off,
providing histology-grade lesion margin sharpness and surgical-grade biliary
maps. It offers a immediate clinical upgrade for precision liver MRI without
prolonging scan time.
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662-04-004.
Self-Supervised Reconstruction and Denoising for High-Resolution Distortion-Free Prostate DWI
Impact: This
work addresses the SNR limitations in distortion-free TGSE-PROPELLER-DWI by
introducing a self-supervised learning-based reconstruction method. Improved
image quality, enhanced resolution, and reduced scan times make it highly
promising for advancing prostate imaging applications.
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662-04-005.
Public-Trained, Clinic-Ready: Robust Diffusion-Prior Breast MRl Reconstruction Across Mulitple Sequences
Impact: Noise-adaptive diffusion reconstruction generalizes from public data to clinical breast MRI, enabling higher accelerations with better PSNR/SSIM, while preserving DCE TICs. These results may shorten exams, reduce motion, and motivate prospective studies.
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662-04-006.
A unified fully automated 4D MRI for radiotherapy using pseudo-golden-angle radial k-space and deep-learning reconstruction
Impact: Accurate motion
assessment is essential for precise radiotherapy of abdominal tumors. Our
unified fully automated pipeline enables fast 4D MRI-based motion assessment of
abdominal tumors and organs using standard clinical sequences, facilitating
clinical translation of the technique for radiotherapy applications.
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662-04-007.
Accelerated Abdominal MRI at 0.05 Tesla via Golden-angle Radial Sampling and Deep Learning Reconstruction
Impact: It is the first time that the proposed method could accelerate 3D T2W
abdominal MRI at 0.05 Tesla for about 4 minutes per scan.
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662-04-008.
Prospective Comparison of Conventional and Deep Learning-Reconstructed Thin-Slice 3D T1-weighted imaging of the Breast
Impact: thin-slice VIBEDL sequence achieved better image quality, noise reduction, image sharpness, artifacts mitigation, and diagnostic confidence, as well as lesion conspicuity and detection compared to the conventional VIBE sequence.
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662-04-009.
Super-Resolution Deep Learning Reconstruction Improves Assessment of Myometrial Invasion in Endometrial Cancer
Impact: SR-DLR enables simultaneous improvement in signal-to-noise ratio and
spatial resolution for endometrial cancer imaging, potentially improving
staging accuracy and treatment planning while maintaining clinically feasible
scan times, representing a significant advance in gynecologic oncology imaging.
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662-04-010.
Synergizing PROPELLER and deep learning reconstruction to optimize 1.5T lumbar spine T2w-STIR imaging
Impact: PDLR-T2w-STIR
improves image quality and reduces scan time in 1.5T lumbar MRI, offering a
promising solution to motion artifacts and workflow inefficiencies without
compromising diagnostic performance.
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662-04-011.
Deep Learning–Based Accelerated Diffusion-Weighted Imaging for Liver Lesion Evaluation: Improved Image Quality and Diagnostic
Impact: DL-based DWI enables faster, clearer liver imaging, improving lesion detection and supporting more confident clinical diagnosis.
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662-04-012.
Complexed Signal Average for Prostatic DWI: Improving Diagnostic Performance of Malignant from Benign Prostatic Areas on DWIs
Impact: Complexed signal average (CSA)mainly
improves image quality and differentiation capability of malignant from benign
prostatic areas on DWI with standard and ultra-high b values.
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662-04-013.
Evaluation of a Deep Learning Based Accelerated 3D Acquisition Strategy for T2-Weighted MRI of the Prostate
Impact: Deep learning accelerated 3D T2-weighted prostate imaging can provide a
new avenue for fast, high resolution prostate mpMRI and improve lesion
localization and diagnostic confidence.
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662-04-014.
Robust High-Resolution Multi-Organ Diffusion MRI Using Synthetic-Data-Tuned Prompt Learning
Impact: The approach eliminates navigator signals and realistic data supervision, providing an interpretable, robust solution for high-resolution multi-organ multi-shot DWI. Its scanner-agnostic performance signifies transformative potential for precision oncology
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662-04-015.
Self-Supervised Deep Learning Model for Estimating Microstructural Parameters in Breast Cancer
Impact: This self-supervised deep learning model surpasses NLLS fitting in estimating
IMPULSED microstructural parameters, enabling higher accuracy and
shorter computation time.
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662-04-016.
Breast DWI using complex signal averaging and super resolution DLR - impact on quality with breast phantom
Impact: The phantom study simulating breast DWI indicates that "Complex signal averaging (CSA)" with super-resolution DLR can reduce noise, improve image quality while allow reliable ADC quantification. Sufficient evidence to apply CSA and DLR to clinical breast DWI is demonstrated.
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