New techniques for modelling glass dissolution

Marc Aertsens, Dominique Ghaleb

    Research outputpeer-review

    Abstract

    Due to the large increase in computation power, new methods for modelling glass dissolution are becoming available. We give a short description of two classes of such methods. For each method, we first explain where it is based on, then we list existing applications in glass dissolution and finally, we discuss what it could provide to glass dissolution modelling. The first class of models consists of molecular modelling. These are methods with a solid mathematical basis, like ab initio calculations, molecular dynamics or Monte Carlo simulations. These methods are complementary, not only to one another but also to existing analytical or geochemical models, which will not become superfluous. Instead, one method can provide input for another method, either by calculating values or by confirming its basic assumptions. The second class of models consists of soft computing techniques like neural networks, fuzzy systems or genetic algorithms. These methods, which can be viewed as complementary to traditional me thods, are more empirically based and can be useful for modelling systems that are ill defined or not completely understood yet.

    Original languageEnglish
    Pages (from-to)37-46
    Number of pages10
    JournalJournal of Nuclear Materials
    Volume298
    Issue number1-2
    DOIs
    StatePublished - Sep 2001

    Funding

    Part of this work is funded by NIRAS–ONDRAF under contract CCH090-123 and by the European Commission under contract FI4W-CT95-0001. D.G. also acknowledges COGEMA for his financial support and Jean-Marc Delaye for his help in the molecular dynamics technical aspects of this paper. M.A. thanks Da Ruan for his help in the soft computing methods of this paper.

    FundersFunder number
    NIRAS/ONDRAF
    NIRAS/ONDRAFCCH090-123
    Not addedFI4W-CT95-0001

      ASJC Scopus subject areas

      • Nuclear and High Energy Physics
      • General Materials Science
      • Nuclear Energy and Engineering

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