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Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization.

Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Research Abstract Details 

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  • Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Abstract Text:

    michael wunderlichMichael Wunderlich,klaas e a maxKlaas E A Max,yvette roskeYvette Roske,uwe muellerUwe Mueller,udo heinemannUdo Heinemann,franz x schmidFranz X Schmid,michael wunderlichMichael Wunderlich,klaas e a maxKlaas E A Max,yvette roskeYvette Roske,uwe muellerUwe Mueller,udo heinemannUdo Heinemann,franz x schmidFranz X Schmid,michael wunderlichMichael Wunderlich,klaas e a maxKlaas E A Max,yvette roskeYvette Roske,uwe muellerUwe Mueller,udo heinemannUdo Heinemann,franz x schmidFranz X Schmid,

    Computational design and in vitro evolution are major strategies for stabilizing proteins. For the four critical positions 16, 18, 25, and 29 of the B domain of the streptococcal protein G (Gbeta1), they identified the same optimal residues at positions 16 and 25, but not at 18 and 29. Here we analyzed the energetic contributions of the residues from these two approaches by single and double mutant analyses and determined crystal structures for a variant from the calculation (I16/L18/E25/K29) and from the selection (I16/I18/E25/F29). The structural analysis explains the observed differences in stabilization. Residues 16, 18, and 29 line an invagination, which results from a packing defect between the helix and the beta-sheet of Gbeta1. In all stabilized variants, residues with larger side-chains occur at these positions and packing is improved. In the selected variant, packing is better optimized than in the computed variant. Such differences in side-chain packing strongly affect stability but are difficult to evaluate by computation.

    Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Publishing Authors By Initials

    m wunderlichM Wunderlich,ke maxKE Max,y roskeY Roske,u muellerU Mueller,u heinemannU Heinemann,fx schmidFX Schmid,m wunderlichM Wunderlich,ke maxKE Max,y roskeY Roske,u muellerU Mueller,u heinemannU Heinemann,fx schmidFX Schmid,m wunderlichM Wunderlich,ke maxKE Max,y roskeY Roske,u muellerU Mueller,u heinemannU Heinemann,fx schmidFX Schmid,

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    Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Journal Published:

    PUBLICATION TYPE: Research Support, Non-U.S. Gov

    Journal: Journal of molecular biology

    VOLUME: 373

    Page Numbers: 775-84

    Journal Abbreviation: J. Mol. Biol.

    ISSN: 0022-2836

    DAY: 19

    MONTH: 08

    YEAR: 2007

    Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Information

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    LANGUAGE: eng

    NlmUniqueID: 2985088

    Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization. Keywords Mesh Terms:

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    Grant and Affiliation Information for Optimization of the gbeta1 domain by computational design and by in vitro evolution: structural and energetic basis of stabilization.

    AFFILIATION: Laboratorium für Biochemie und Bayreuther Zentrum für Molekulare Biowissenschaften, Universität Bayreuth, D-95440 Bayreuth, Germany.

    Country: England

    England Research PublicationEngland Research Publication

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    MEDLINETA: J Mol Biol

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    ACCESSION NUMBER: 2ONQ

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