Literature DB >> 24668690

An amino acid code for β-sheet packing structure.

Hyun Joo1, Jerry Tsai.   

Abstract

To understand the relationship between protein sequence and structure, this work extends the knob-socket model in an investigation of β-sheet packing. Over a comprehensive set of β-sheet folds, the contacts between residues were used to identify packing cliques: sets of residues that all contact each other. These packing cliques were then classified based on size and contact order. From this analysis, the two types of four-residue packing cliques necessary to describe β-sheet packing were characterized. Both occur between two adjacent hydrogen bonded β-strands. First, defining the secondary structure packing within β-sheets, the combined socket or XY:HG pocket consists of four residues i, i+2 on one strand and j, j+2 on the other. Second, characterizing the tertiary packing between β-sheets, the knob-socket XY:H+B consists of a three-residue XY:H socket (i, i+2 on one strand and j on the other) packed against a knob B residue (residue k distant in sequence). Depending on the packing depth of the knob B residue, two types of knob-sockets are found: side-chain and main-chain sockets. The amino acid composition of the pockets and knob-sockets reveal the sequence specificity of β-sheet packing. For β-sheet formation, the XY:HG pocket clearly shows sequence specificity of amino acids. For tertiary packing, the XY:H+B side-chain and main-chain sockets exhibit distinct amino acid preferences at each position. These relationships define an amino acid code for β-sheet structure and provide an intuitive topological mapping of β-sheet packing.
© 2014 Wiley Periodicals, Inc.

Entities:  

Keywords:  amino acid code; packing topology; secondary structure packing; tertiary structure; β-sheet packing

Mesh:

Substances:

Year:  2014        PMID: 24668690      PMCID: PMC4342057          DOI: 10.1002/prot.24569

Source DB:  PubMed          Journal:  Proteins        ISSN: 0887-3585


  41 in total

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  8 in total

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7.  The Unfolding MD Simulations of Cyclophilin: Analyzed by Surface Contact Networks and Their Associated Metrics.

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8.  A Rational Approach for Creating Peptides Mimicking Antibody Binding.

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