Cape Town - 2026 ISMRM-ISMRT Annual Meeting and Exhibition • 09-14 May 2026
|
466-05-001.
Patient and Family Perspectives on Point-of-Care Low-Field Brain MRI for Children in the ED, ICU, and Hospital Setting
Impact: Patients and families reported comfort and preference for bedside, point-of-care low-field MRI (POC LF-MRI) over conventional neuroimaging, emphasizing reduced radiation exposure and improved accessibility. Findings highlight patient/family support for POC LF-MRI implementation in acute pediatric care.
|
||
|
466-05-002.
Towards Pediatric Imaging at 0.55T: Non-contrast, Gadolinium, and Ferumoxytol Enhanced 3D MR Angiography in a Porcine Model
Impact: This study demonstrates the
feasibility of 3D iNAV MRA, with and without contrast, at 0.55T, providing a
promising approach for pediatric imaging, where achieving adequate motion
compensation and minimizing artifacts remain significant challenges.
|
||
|
466-05-003.
LoMINA-SC: Low-field Pediatric Brain MR Image Segmentation Using Deep Neural Artificial Intelligence– Sub-Cortical
Impact: LoMINA-SC enables accurate subcortical segmentation from ultra-low-field (uLF) pediatric MRI, broadening neuroimaging access in low-resource settings where high-field scanners are scarce. This work opens new opportunities for population-level studies and early diagnostic screening using portable, affordable imaging systems.
|
||
|
466-05-004.
Characterising neurodevelopment in low and middle-income settings with ultra-low field MRI.
Impact: Reliable prediction of cognitive
development is critical for rapid early evaluation of maternal and child health
interventions. Low-field MRI may fill this need, allowing interventions to
be rapidly assessed, improved, and implemented to improve child “thrival” in
LMIC settings.
|
||
|
466-05-005.
Assessment of retrospective distortion correction on infant brain volumetrics using 64mT T2 MRI in a low resource setting
Impact: Our practical, retrospective distortion
correction of ultra-low field MR images improves image quality and reduces
scanner-dependant bias in brain volumetrics, allowing better pooling of
normative developmental data from multiple low resource sites and improving accuracy of image processing pipelines
|
||
|
466-05-006.
Age-Specific Brain Templates from uLow-Field MRI to Enhance Pediatric Neuroimaging and Alignment in Resource Limited Settings
Impact: This work provides
the first ultra-low-field
(uLF), age-specific pediatric brain templates, enabling
standardized analyses, improved registration accuracy, and enhanced
comparability across studies using portable uLF MRI systems in diverse and
resource-limited environments.
|
||
|
466-05-007.
Diagnostic Concordance of Point-of-Care Low-Field MRI with Clinical Neuroimaging for Pediatric Traumatic Brain Injury
Impact: POC LF-MRI achieved strong concordance with CT for identifying acute neuroradiographic abnormalities in children with head trauma, demonstrating data on bedside neuroimaging and potential to reduce pediatric radiation exposure.
|
||
|
466-05-008.
Predicting Longitudinal Impact of Neurodevelopmental Risk Factors on the Brain of Infants in Low to Middle Income Countries
Impact: This study presents a longitudinal Gaussian process model that detects atypical brain growth in infants from low to middle-income countries, enabling early identification of neurodevelopmental delays linked to sociodemographic and physical risk factors to support individualized intervention in infant health.
|
||
|
466-05-009.
Feasibility of bedside ultra-low field MRI during therapeutic hypothermia for hypoxic-ischemic encephalopathy - phantom study
Impact: We show that portable bedside MRI using an ultra-low field system is feasible during therapeutic hypothermia, using a phantom model. This would be a new development in the care of neonatal hypoxic ischemic encephalopathy.
|
||
|
466-05-010.
Automated Skull-Stripping of Pediatric Low-Field T2-Weighted Brain MR Images
Impact: Our work enables reliable, automated skull-stripping for pediatric and ultra–low-field (uLF) MRI, substantially reducing manual effort and improving the consistency of brain extraction. Automated skull-stripping will facilitate more efficient and reproducible analysis of brain parenchyma in pediatric neuroimaging studies.
|
||
|
466-05-011.
AI-Enhanced Segmentation Improves Quantitative Brain Volumetry in 64 mT MRI of Infants Under One Year
Impact: Deep learning segmentation increases quantitative
reliability of infant low-field MRI, advancing accessible neuroimaging in early
brain development.
|
||
|
466-05-012.
Functional Lung Imaging in Premature Infants With Bronchopulmonary Dysplasia at 0.55T
Impact: This work suggests that non-invasive pulmonary MRI may assist with prognostication for patients with bronchopulmonary dysplasia.
|
||
|
466-05-013.
Comprehensive 0.55T MRI for Non-Invasive Assessment of Pediatric Bowel Morphology and Motility in Chronic Constipation
Impact: This study establishes a comprehensive 0.55T MRI protocol for children with chronic obstipation, enabling radiation-free assessment of bowel motility and microstructure. Our findings demonstrate feasibility and first indications that treatment responsiveness can be measured
|
||
|
466-05-014.
Placental Diffusion MRI at 0.55T in Late Gestation Fetal Study
Impact: Understanding placental diffusion is key to maternal–fetal wellbeing and delivery planning. This study establishes late-gestation diffusion behaviour at 0.55T, advancing accessible, low-field MRI as a tool for assessing placental health in women for whom high-field imaging is less feasible.
|
||
|
466-05-015.
MRI in Clinical Practice: Low-Field Detection of Dandy–Walker Syndrome in an Infant Born to an Anaemic Mother in Rural Ghana
Impact: Low-field portable MRI enabled the first in-field diagnosis of Dandy–Walker syndrome in a Ghanaian infant born to an anaemic mother, directly altering patient management and demonstrating how accessible MRI can transform clinical neurodiagnostics in underserved regions.
|
© 2026 International Society for Magnetic Resonance in Medicine