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    Micromechanical approach to the modelling of compaction at large strains

    New search for: Dormieux, Luc
    New search for: Maghous, Samir

    AbstractWe first propose to interpret the macroscopic stress state in a representative elementary volume as its limit load for the current configuration of the microstructure. The macroscopic compaction law can then be determined from the solution of a set of problems of limit analysis on the successive configurations of the microstructure. The periodic case is first considered. We then focus on disordered porous media, for which the limit load, for a given configuration, can be estimated by non-linear homogenization techniques.

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    Micromechanical approach to the modelling of compaction at large strains

    New search for: Dormieux, Luc
    New search for: Maghous, Samir

    AbstractWe first propose to interpret the macroscopic stress state in a representative elementary volume as its limit load for the current configuration of the microstructure. The macroscopic compaction law can then be determined from the solution of a set of problems of limit analysis on the successive configurations of the microstructure. The periodic case is first considered. We then focus on disordered porous media, for which the limit load, for a given configuration, can be estimated by non-linear homogenization techniques.

    Access

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    Check availability in my library
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    Micromechanical approach to the modelling of compaction at large strains

    New search for: Dormieux, Luc
    New search for: Maghous, Samir

    AbstractWe first propose to interpret the macroscopic stress state in a representative elementary volume as its limit load for the current configuration of the microstructure. The macroscopic compaction law can then be determined from the solution of a set of problems of limit analysis on the successive configurations of the microstructure. The periodic case is first considered. We then focus on disordered porous media, for which the limit load, for a given configuration, can be estimated by non-linear homogenization techniques.

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    Title:

    Micromechanical approach to the modelling of compaction at large strains

    Contributors:

    Barthélémy, Jean-François (author) / Dormieux, Luc (author) / Maghous, Samir (author)

    Published in:

    Computers and Geotechnics ; 30 ; 321-338

    Publication date:

    2002-05-31

    Size:

    18 pages

    ISSN:

    0266-352X

    DOI:

    https://doi.org/10.1016/S0266-352X(03)00006-5

    Type of media:

    Article (Journal)

    Type of material:

    Electronic Resource

    Language:

    English

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