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Role of long- and short-range hydrophobic hydrophilic and charged residues contact network in protein’s structural organization

机译:长距离和短距离疏水亲水和带电残基接触网络在蛋白质结构组织中的作用

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摘要

BackgroundThe three-dimensional structure of a protein can be described as a graph where nodes represent residues and the strength of non-covalent interactions between them are edges. These protein contact networks can be separated into long and short-range interactions networks depending on the positions of amino acids in primary structure. Long-range interactions play a distinct role in determining the tertiary structure of a protein while short-range interactions could largely contribute to the secondary structure formations. In addition, physico chemical properties and the linear arrangement of amino acids of the primary structure of a protein determines its three dimensional structure. Here, we present an extensive analysis of protein contact subnetworks based on the London van der Waals interactions of amino acids at different length scales. We further subdivided those networks in hydrophobic, hydrophilic and charged residues networks and have tried to correlate their influence in the overall topology and organization of a protein.
机译:背景技术蛋白质的三维结构可以描述为图,其中节点代表残基,它们之间非共价相互作用的强度是边缘。根据一级结构中氨基酸的位置,可以将这些蛋白质接触网络分为长程和短程相互作用网络。远程相互作用在确定蛋白质的三级结构中起着独特的作用,而短程相互作用可能在很大程度上有助于二级结构的形成。另外,蛋白质一级结构的物理化学性质和氨基酸的线性排列决定了其三维结构。在这里,我们基于不同长度尺度上氨基酸的伦敦范德华相互作用对蛋白质接触子网络进行了广泛的分析。我们进一步将这些网络细分为疏水,亲水和带电荷的残基网络,并试图将它们在蛋白质的整体拓扑结构和组织中的影响关联起来。

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