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Knife-edge scanning microscopy for connectomics research
By: Chul Sung; Ji Ryang Chung; Miller, D.E.; Jaerock Kwon; Keyser, J.; Yoonsuck Choe; Mayerich, D.; Abbott, L.C.;
2011 / IEEE / 978-1-4244-9637-2
This item was taken from the IEEE Conference ' Knife-edge scanning microscopy for connectomics research ' In this paper, we will review a novel microscopy modality called Knife-Edge Scanning Microscopy (KESM) that we have developed over the past twelve years (since 1999) and discuss its relevance to connectomics and neural networks research. The operational principle of KESM is to simultaneously section and image small animal brains embedded in hard polymer resin so that a near-isotropic, sub-micrometer voxel size of 0.6 �m �0.7 �m �1.0 �m can be achieved over <1 cm3 volume of tissue which is enough to hold an entire mouse brain. At this resolution, morphological details such as dendrites, dendritic spines, and axons are visible (for sparse stains like Golgi). KESM has been successfully used to scan whole mouse brains stained in Golgi (neuronal morphology), Nissl (somata), and India ink (vasculature), providing unprecedented insights into the system-level architectural layout of microstructures within the mouse brain. In this paper, we will present whole-brain-scale data sets from KESM and discuss challenges and opportunities posed to connectomics and neural networks research by such detailed yet system-level data.
Hard Polymer Resin
Three Dimensional Displays
Knife-edge Scanning Microscopy
System-level Architectural Layout