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| "Cerebellum" "In 'Brainbow' transgenic mice, nerve cells randomly express fluorescent proteins of different colors. Combinations of these proteins label neurons with multiple distinct colors, allowing one to parse out their processes. In this image from a portion of the cerebellum, the multicolor labeling reveals the intricate meshwork created by 'mossy fiber' axons forming synapses in the area (large spots). Confocal microscopy by Tamily A. Weissman. " Harvard University | ||
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| "Cortex
" "This image shows a portion of cortex from a 'Brainbow' transgenic mouse. Neurons are randomly labeled with combinations of fluorescent proteins expressed at distinct levels. Confocal microscopy by Jean Livet." Harvard University | |||
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| "Electrons injected at one point contact, the �sun,� flow in a wire riddled with random imperfections. The quantum aspect of the electrons is shown in color: we follow the wave nature of the electrons by assigning red to the crest of the wave, cyan to a trough, continuously around the color circle."
Eric J. Heller Eric J. Heller Gallery Harvard University | |||
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| "Graphene Nanoribbons
" "Graphene nanoribbons made chemically with molecular width and edge smoothness. Published in Science, 2008." Hongjie Dai and Xiaolin Li Hongjie Dai Research Group Stanford University | |||
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| "Polarized microscopy texture of the columnar phase displayed by the partially self-complementary CGCGAATTCGCGTT DNA oligomer.
" Giuliano Zanchetta University of Milan Prof. Tommaso Bellini University of Milan Prof. Noel Clark Colorado University at Boulder | |||
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| "Polarized microscopy texture of the columnar phase displayed by the partially self-complementary CGCGAATTCGCGTT DNA oligomer.
" Giuliano Zanchetta University of Milan Prof. Tommaso Bellini University of Milan Prof. Noel Clark Colorado University at Boulder | |||
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| "Nanowire Array" "Scanning electron microscopy (SEM) image of aligned ZnO nanowire arrays synthesized by a vapor-solid process. The source materials used for the synthesis were commercial ZnO, SnO2 and graphite powders, which were placed in a tube furnace. By heating the source materials to a high temperature, reduction of Sn from SnO2 occurred, which served as the catalyst for the growth of ZnO nanowires. This material is the fundamental structure for biosensing, manipulation of cells, electron field emission, and converting mechanical energy (such as body movement, muscle contraction, heart beating, blood flow..) into electricity for powering nanodevices." Prof. Z.L. Wang Georgia Tech | |||
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| "Stapled peptides selectively
bind targets and trigger liposomal release." Eric D. Smith Walensky Group Dana-Farber Cancer Institute | |||
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| "DNA Nano Tracks" "DNA nano train tracks held together by double-strand DNA bridges. The dsDNA is too thin to see, but we know they are there because the alignments of neighboring tracks are so perfect. This is from our recent paper (S.-H. Park, G. Finkelstein & T.H. LaBean (2008) Stepwise Assembly of DNA Tile Lattices using dsDNA Bridges, J. Am. Chem. Soc., 130, 40-41.): " Thom LaBean Duke University | |||
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| "DNA Nano Tracks" "The tracks on the left are undecorated while the tracks on the right are decorated with streptavidin proteins. This is from (S-H. Park, P. Yin, Y. Liu, J.H. Reif, T.H. LaBean & H. Yan (2005) Programmable DNA Self-assemblies for Nanoscale Organization of Ligands and Proteins. Nano Letters 5, 729-733.) " Thom LaBean Duke University | |||
