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<b>Because life has more than 2D</b>, Proteopedia helps to understand relationships between structure and function. <b>Proteopedia</b> is a free, collaborative 3D-encyclopedia of proteins & other molecules.</span>
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<b>Because life has more than 2D</b>, Because life is more than 2D, Proteopedia aids in understanding the 3D relationships between function & structure of biomacromolecules
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Revision as of 07:46, 21 October 2018

ISSN 2310-6301

Because life has more than 2D, Because life is more than 2D, Proteopedia aids in understanding the 3D relationships between function & structure of biomacromolecules


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Green Fluorescent Protein

by Eran Hodis
Green fluorescent protein (GFP) is a bioluminescent polypeptide isolated from the jellyfish Aequorea victoria. GFP converts the blue chemiluminescence of aequorin into green fluorescent light. In the laboratory, GFP can be incorporated into a variety of biological systems in order to function as a marker protein. Since its discovery in 1962, GFP has become a significant contributor to the research of monitoring gene expression, localization, mobility, traffic, or interactions between various membrane and cytoplasmic proteins.

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Molecular Sculpture

by Eric Martz
A historical review on sculptures and physical models of macromolecules.

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Structural flexibility of the periplasmic protein, FlgA, regulates flagellar P-ring assembly in Salmonella enterica.

H Matsunami, YH Yoon, VA Meshcheryakov, K Namba, FA Samatey. Scientific Reports 2016 doi: 10.1038/srep27399
A periplasmic flagellar chaperone protein, FlgA, is required for P-ring assembly in bacterial flagella of taxa such as Salmonella enterica or Escherichia coli. Here we present the open and closed crystal structures of FlgA from Salmonella enterica serovar Typhimurium, grown under different crystallization conditions. An intramolecular disulfide cross-linked form of FlgA caused a dominant negative effect on motility of the wild-type strain.

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Transport of Drugs & Nutrients

Above is a transmembrane protein that takes up, into your intestinal cells, orally consumed peptide nutrients and drugs. Its lumen-face (shown above) opens and binds peptide or drug, then closes, while its cytoplasmic face (opposite end from the above) opens to release its cargo into the intestinal cell, which passes it on into the blood circulation.

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