Measuring Impact of Super-Resolution on Spinal Cord MRI Scans: Lesion Detection Sensitivity, Variability, and Clinical Impact

The efficacy and potential for MRI-derived spinal cord (SC) information is an area of great interest for the study of multiple sclerosis (MS). Though the presence of SC lesions aid in the diagnosis of MS or other disease/injury, there is much debate as to whether lesions can help to predict symptoms or disability. The correlation between spinal cord lesions and MS disability is weak, even when observed at a higher resolution. A current drawback in the collection of SC magnetic resonance imaging (MRI) scans is the inability to collect high-resolution images both through-plane and in-plane. Super-resolution offers the opportunity to transform these anisotropic MRIs into high-resolution, isotropic images offering a view not previously possible. Here, we investigate how artificially altering the resolution of SC MRIs (either through super-resolution or linear interpolation) might enhance our ability to discern clinically relevant structures, including lesion load and its relation to several clinical variables, such as EDSS, across 53 patients with varying MS severity. Artificially altering the MRIs to varying levels of isotropic resolution increased sensitivity for lesion segmentation using open-source deep learning tools, but no significant association between lesion load/volume and EDSS disability measurement was found.

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Published
2025-04-14
DOI
https://doi.org/10.1109/isbi60581.2025.10981088
Primary Topic
Medical Imaging and Analysis
Type
article
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article

Measuring Impact of Super-Resolution on Spinal Cord MRI Scans: Lesion Detection Sensitivity, Variability, and Clinical Impact

Samuel W. Remedios, Kurt G. Schilling, Bennett A. Landman, Allen T. Newton et al.
Medical Imaging and Analysis
article

Measuring Impact of Super-Resolution on Spinal Cord MRI Scans: Lesion Detection Sensitivity, Variability, and Clinical Impact

Samuel W. Remedios, Kurt G. Schilling, Bennett A. Landman, Allen T. Newton, Greyson A. Wintergerst, Seth A. Smith
article en

Abstract

The efficacy and potential for MRI-derived spinal cord (SC) information is an area of great interest for the study of multiple sclerosis (MS). Though the presence of SC lesions aid in the diagnosis of MS or other disease/injury, there is much debate as to whether lesions can help to predict symptoms or disability. The correlation between spinal cord lesions and MS disability is weak, even when observed at a higher resolution. A current drawback in the collection of SC magnetic resonance imaging (MRI) scans is the inability to collect high-resolution images both through-plane and in-plane. Super-resolution offers the opportunity to transform these anisotropic MRIs into high-resolution, isotropic images offering a view not previously possible. Here, we investigate how artificially altering the resolution of SC MRIs (either through super-resolution or linear interpolation) might enhance our ability to discern clinically relevant structures, including lesion load and its relation to several clinical variables, such as EDSS, across 53 patients with varying MS severity. Artificially altering the MRIs to varying levels of isotropic resolution increased sensitivity for lesion segmentation using open-source deep learning tools, but no significant association between lesion load/volume and EDSS disability measurement was found.

Johns Hopkins University (US), Vanderbilt University (US), Vanderbilt University Medical Center (US)
Openalex Percentile: Top 90%
Medical Imaging and Analysis
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