Nov 2026· Neurology· Vol 107 9, pp.
e218518
· 0 citations· 79 references
Medicine
TL;DR
Current evidence on applications of portable ultra-low-field MRI to neurologic disorders is examined, discussing the technology's utility, limitations, and clinical implications and highlighting key open research questions and future opportunities for further integration of this emerging technology.
Abstract
Neurologic diseases are highly prevalent, and MRI plays a crucial role in their diagnosis, prognosis, and treatment monitoring. Conventional MRI at high magnetic field strength (≥1.5 tesla) is one of the most widely used modalities in clinical practice and a common outcome measure in clinical trials. Despite its importance and effectiveness, challenges, such as high cost, limited accessibility, and disease-related constraints, can hinder its widespread use. Recent advancements in portable ultra-low-field (<0.1 tesla) MRI technology offer potential solutions by enabling point-of-care brain imaging for neurologic diseases. However, the substantially lower magnetic field strength results in lower signal-to-noise ratio, reduced spatial resolution, and more limited imaging contrast, although ongoing computational approaches aim to mitigate some of these limitations. In this narrative review, we examine current evidence on applications of portable ultra-low-field MRI to neurologic disorders, discussing the technology's utility, limitations, and clinical implications. In addition, we highlight key open research questions and future opportunities for further integration of this emerging technology.
Although several clear advantages are demonstrated including safety, portability, accessibility and diagnostic capability, further research is needed to more clearly define a role for pMRI as a complement to or replacement for conventional high-field MRI.
J. Sciancalepore, G. Kuchcinski, F. Dubus et al.· Journal of neuroradiology =...· 0 citations
Ultra-high-field magnetic resonance imaging (MRI), particularly at 7 Tesla (7T) and beyond, has emerged as one of the most transformative developments in modern neuroimaging. The technology offers substantial gains in signal-to-noise ratio (SNR), contrast-to-noise ratio (CNR), and spatial resolution, enabling unprecede...
Sabneet Sharma, Abhinav Bhatnagar, Anjali Singh et al.· International Journal of Dru...· 0 citations
Utilization of ultra-high-field (UHF) MRI in humans has rapidly increased over the past decade, following regulatory approval of the first clinical 7 Tesla (7T) platforms in 2017 for brain and knee imaging. Currently, there are approximately 140 MRI scanners worldwide operating at or above 7T [1]. While the majority of...
J. Mihailovic, Jamie C. Jones, C. Minor et al.· British Journal of Radiology· 0 citations
PURPOSE
Portable ultra-low-field (ULF) magnetic resonance imaging (MRI) is usually judged by how closely it approaches high-field performance. This opinion paper argues that, in many resource-constrained settings, the question is miscast, and sets out how the technology should instead be evaluated.
METHOD
Drawing on...
G. Ogbole· European Journal of Radiolog...· 0 citations
Multiparametric whole-body MRI (WB-MRI) is an advanced cross-sectional imaging technique that integrates anatomic sequences into functional modalities, including diffusion-weighted imaging (DWI) with apparent diffusion coefficient (ADC) mapping and Dixon-based imaging. WB-MRI can evaluate the body from the vertex to th...
Jiya Ghei, Ria Chhabra, Angela He et al.· Journal of computer assisted...· 0 citations
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