Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026

Oral

Next-Level Pediatric MRI: Technical Advances To Image Children Better

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Next-Level Pediatric MRI: Technical Advances To Image Children Better
Oral
Pediatrics
Monday, 11 May 2026
Hall 1B
13:50 - 15:40
Moderators: Katrin Koziel & James Holmes
Session Number: 302-03
No CME/CE Credit
This session showcases technical advances in MRI at all levels from scan acquisition to sequence design to post-processing and analysis designed to improve how we image children. Topics cover a range of anatomies (brain, cardiac, lung, abdomen) and a range of challenges to be addressed.
Skill Level: Intermediate

13:50 Figure 302-03-001.  Highly Accelerated Navigator-Gated 4D MUSIC: Feasibility in Pediatric Congenital Heart Disease
Xiaodong Zhong, Kevin Whitehead, Shu-Fu Shih, Fei Han, Ning Jin, Robert Gagnon, Robert Sellers, Xiaoming Bi, Mark Fogel, J. Paul Finn
University of California Los Angeles, Los Angeles, United States of America
Impact: Highly accelerated ferumoxytol-enhanced, navigator-gated 4D MUSIC is feasible in children with congenital heart disease and has the potential to greatly improve workflow and minimize the required duration of anesthesia.
14:01 Figure 302-03-002.  Fetal Cardiac MRI to Improve the Diagnosis of Congenital Heart Disease: the FUTURE 2.0 study
Magna Cum Laude
Roos de Lange, Anneloes Bohte, Sally-Ann Clur, Zina Fejzic, Stefan Frerich, Suzanne Gommers, Willem Helbing, Ward Y Vanagt, Annelies van der Hulst, Arend van Deutekom, Joost van Schuppen, Hans Breur, Pim van Ooij
University Medical Center Utrecht, Utrecht, Netherlands
Impact: Fetal black-blood CMR has the potential to enhance prenatal CHD diagnosis by complementing and overcoming the limitations of echocardiography, enabling more accurate parental counselling and improved neonatal outcomes.
14:12 Figure 302-03-003.  Simultaneous 3D structural-functional assessment of pediatric lung at 0.55T using bSTAR
Xin Miao, Nam Lee, Eamon Doyle, Ziwei Zhao, Sophia Cui, Narayan Iyer, Roberta Kato, Krishna Nayak
Children's Hospital Los Angeles, Los Angeles, United States of America
Impact: This study demonstrated high-resolution 3D lung structural imaging and ventilation mapping can be achieved in a single 8-13-minute free-breathing acquisition using 0.55T bSTAR. This technique enables reliable simultaneous structural–functional assessment in pediatric lung patients without radiation or contrast administration.
14:23 Figure 302-03-004.  Ultra-Low-Field MRI as a Tool for Measuring Brain Development in LMICs: Feasibility, Validity and Clinical Relevance
Layla Bradford, Jessica Ringshaw, Thokozile Malaba, Niall Bourke, Catherine Wedderburn, Steven Williams, Sean Deoni, Lauren Davel, Helen Reynolds, Angela Colbers, Duolao Wang, Saye Khoo, Landon Myer, Kirsten Donald
Neuroscience Institute, University of Cape Town, South Africa
Impact: 

This cross-validation study validates ultra-low-field MRI as a feasible and biologically meaningful tool for assessing early brain development in children in low-resource settings. The approach enables scalable neuroimaging of vulnerable populations and supports future global surveillance of neurodevelopmental risk.
14:34 Figure 302-03-005.  Prospective Head-Motion Correction Improves the Quality of Anatomical Brain MRI in Naturally Sleeping Infants
Zakaria Zariry, Nathalie Richard, Robert Frost, Sara Cabet, Franck Lamberton, Andre van der Kouwe, Pierre-Aurelien BEURIAT, Marine Gautier-Martins, Valentine Lecuyer, Lena Durieux, James Bonaiuto, Holly Rayson, Bassem Hiba
Institut des Sciences Cognitives Marc Jeannerod (ISC MJ) - CNRS UMR5229, Bron, France
Impact: Prospective motion correction enhances image quality in naturally sleeping infants’ brain MRI, yielding sharper images and more reliable cortical morphometry, thereby improving the validity of early-life neuroimaging biomarkers and fostering standardized, motion-aware, sedation-free pediatric imaging protocols.
14:45 Figure 302-03-006.  Cortical laminar microstructure in children using multi-shell diffusion MRI with isotropic submillimeter resolution
Ziqin Zhang, Wentao Wu, Kaitlyn Woods, Minhui Ouyang, Hao Huang
Children's Hospital of Philadelphia, Philadelphia, United States of America
Impact: This study offers insight into laminar cortical cytoarchitecture during childhood for the first time with cutting-edge sub-millimeter diffusion MRI. A novel cortical laminar microstructure measurement pipeline was developed for high-precision measures of cortical microstructure by maximally mitigating partial volume effects.
15:07 Figure 302-03-008.  3D Distortion-Free Fetal Brain R2* Mapping Using Multi-Oriented Multi-Echo Radial FLASH and Slice-to-Volume Reconstruction
Haykel Snoussi, Daniel Mackner, Guanxiong Luo, Hongli Fan, Patricia Grant, Edward Yang, Martin Uecker, Ali Gholipour, Simon Warfield, Xiaoqing Wang
Boston Children's Hospital and Harvard Medical School, Boston, United States of America
Impact: Our method enables distortion-free, isotropic fetal brain R2* mapping through multi-oriented multi-echo radial FLASH acquisitions combined with model-based and motion-corrected slice-to-volume reconstruction. This approach overcomes the low-resolution and geometric distortion artifacts commonly observed in EPI-based techniques.
15:18 Figure 302-03-009.  AI-guided autonomous fetal MRI
Summa Cum Laude AMPC Selected
Sara Neves Silva, Jordina Aviles Verdera, Alena Uus, Aysha Luis, Susanne Schulz-Heise, Sarah McElroy, Raphael Tomi-Tricot, Lisa Story, Jo Hajnal, MARY RUTHERFORD, Jana Hutter
King's College London, London, United Kingdom
Impact: A self-guided MRI examination was successfully developed, eliminating the need for specialist planning or offline processing and enabling future clinical translation of advanced fetal MRI techniques.
15:29 Figure 302-03-010.  Towards Motion-Robust, High-SNR Free-Breathing PDFF Mapping: Evaluation in Vertebral Bone Marrow, Paraspinal Muscle, Liver
Magna Cum Laude
Utsav Shrestha, Nathan Roberts, Jiayi Tang, Amirhossein Roshanshad, Felix Schön, Julius Heidenreich, Arnaud Guidon, Scott Reeder, Diego Hernando
University of Wisconsin - Madison, Madison, United States of America
Impact: Free-breathing proton-density fat-fraction (PDFF) mapping with high isotropic resolution, SNR, and motion robustness improves image quality in children and the elderly, individuals unable to perform breath-holds due to illness or limited compliance, and enhances reliable PDFF assessment of heterogeneous tissues.

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