Quantitative Ultrasound and B-mode Image Texture Features Correlate with Collagen and Myelin Content in Human Ulnar Nerve Fascicles
Michal Byra, Lidi Wan, Jonathan Wong, Jiang Du, Sameer Shah, Michael, Andre, Eric Chang

TL;DR
This study shows that quantitative ultrasound and B-mode image texture features can effectively correlate with collagen and myelin content in human ulnar nerve fascicles, aiding nerve tissue characterization.
Contribution
It introduces a novel correlation between ultrasound features and nerve tissue composition, enhancing non-invasive nerve analysis methods.
Findings
Significant correlation between backscatter coefficient and collagen/myelin levels
Ultrasound entropy correlates with nerve tissue composition
B-mode texture features relate to structural nerve components
Abstract
We investigate the usefulness of quantitative ultrasound (QUS) and B-mode texture features for characterization of ulnar nerve fascicles. Ultrasound data were acquired from cadaveric specimens using a nominal 30 MHz probe. Next, the nerves were extracted to prepare histology sections. 85 fascicles were matched between the B-mode images and the histology sections. For each fascicle image, we selected an intra-fascicular region of interest. We used histology sections to determine features related to the concentration of collagen and myelin, and ultrasound data to calculate backscatter coefficient (-24.89 dB 8.31), attenuation coefficient (0.92 db/cm-MHz 0.04), Nakagami parameter (1.01 0.18) and entropy (6.92 0.83), as well as B-mode texture features obtained via the gray level co-occurrence matrix algorithm. Significant Spearman's rank correlations between the…
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Taxonomy
TopicsTendon Structure and Treatment · Peripheral Nerve Disorders · Orthopedic Surgery and Rehabilitation
