TY - JOUR
T1 - Micron-resolution fiber mapping in histology independent of sample preparation
AU - Georgiadis, Marios
AU - Auf der Heiden, Franca
AU - Abbasi, Hamed
AU - Ettema, Loes
AU - Nirschl, Jeffrey
AU - Taghavi, Hossein Moein
AU - Wakatsuki, Moe
AU - Liu, Andy
AU - Ho, William Hai Dang
AU - Carlson, Mackenzie
AU - Doukas, Michail
AU - Koppes, Sjors A
AU - Keereweer, Stijn
AU - Sobel, Raymond A
AU - Setsompop, Kawin
AU - Liao, Congyu
AU - Amunts, Katrin
AU - Axer, Markus
AU - Zeineh, Michael
AU - Menzel, Miriam
PY - 2024/3/29
Y1 - 2024/3/29
N2 - Detailed knowledge of the brain's nerve fiber network is crucial for understanding its function in health and disease. However, mapping fibers with high resolution remains prohibitive in most histological sections because state-of-the-art techniques are incompatible with their preparation. Here, we present a micron-resolution light-scattering-based technique that reveals intricate fiber networks independent of sample preparation for extended fields of view. We uncover fiber structures in both label-free and stained, paraffin-embedded and deparaffinized, newly-prepared and archived, animal and human brain tissues - including whole-brain sections from the BigBrain atlas. We identify altered microstructures in demyelination and hippocampal neurodegeneration, and show key advantages over diffusion magnetic resonance imaging, polarization microscopy, and structure tensor analysis. We also reveal structures in non-brain tissues - including muscle, bone, and blood vessels. Our cost-effective, versatile technique enables studies of intricate fiber networks in any type of histological tissue section, offering a new dimension to neuroscientific and biomedical research.
AB - Detailed knowledge of the brain's nerve fiber network is crucial for understanding its function in health and disease. However, mapping fibers with high resolution remains prohibitive in most histological sections because state-of-the-art techniques are incompatible with their preparation. Here, we present a micron-resolution light-scattering-based technique that reveals intricate fiber networks independent of sample preparation for extended fields of view. We uncover fiber structures in both label-free and stained, paraffin-embedded and deparaffinized, newly-prepared and archived, animal and human brain tissues - including whole-brain sections from the BigBrain atlas. We identify altered microstructures in demyelination and hippocampal neurodegeneration, and show key advantages over diffusion magnetic resonance imaging, polarization microscopy, and structure tensor analysis. We also reveal structures in non-brain tissues - including muscle, bone, and blood vessels. Our cost-effective, versatile technique enables studies of intricate fiber networks in any type of histological tissue section, offering a new dimension to neuroscientific and biomedical research.
U2 - 10.1101/2024.03.26.586745
DO - 10.1101/2024.03.26.586745
M3 - Article
C2 - 38585744
JO - bioRxiv
JF - bioRxiv
ER -