• DocumentCode
    1338922
  • Title

    Toward a Multiscale Model of the Uterine Electrical Activity

  • Author

    Laforet, Jeremy ; Rabotti, Chiara ; Terrien, Jeremy ; Mischi, Massimo ; Marque, Catherine

  • Author_Institution
    Biomecanique et Bioingenierie, Univ. de Technol. de Compiegne, Compiegne, France
  • Volume
    58
  • Issue
    12
  • fYear
    2011
  • Firstpage
    3487
  • Lastpage
    3490
  • Abstract
    A comprehensive multiscale model of the uterine muscle electrical activity would permit understanding the important link between the genesis and evolution of the action potential at the cell level and the process leading to labor. Understanding this link can open the way to more effective tools for the prediction of labor and prevention of preterm delivery. A first step toward the realization of such a model is presented here. By using as starting point a previously published model of the generation of the uterine muscle action potential at the cell level, a significant reduction of the model complexity is here achieved in order to simulate 2-D propagation of the cellular activity at the uterine tissue level, for tissue strips of arbitrary dimension. From the obtained dynamic behavior of the electrical activity simulated at the tissue level, the use of a previously validated volume conductor model at the organ level permits us to simulate the electrohysterogram as recorded on the abdominal surface by an electrode array. Qualitative evaluation of the model at the cell level and at the organ level confirms the potential of the proposed multiscale approach for further refinement and extension aiming at clinical application.
  • Keywords
    bioelectric potentials; biological organs; biomedical electrodes; cellular biophysics; muscle; obstetrics; 2D propagation; abdominal surface; cell level; cellular activity; clinical application; electrode array; electrohysterogram; multiscale model; organ level; preterm delivery; uterine muscle action potential; uterine muscle electrical activity; uterine tissue level; Adaptation models; Computational modeling; Conductors; Electric potential; Muscles; Physiology; Solid modeling; Electrohysterography; physiological modelling; preterm birth; uterus; volume conductor; Action Potentials; Computer Simulation; Electromyography; Female; Humans; Models, Biological; Pregnancy; Uterine Contraction; Uterus;
  • fLanguage
    English
  • Journal_Title
    Biomedical Engineering, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0018-9294
  • Type

    jour

  • DOI
    10.1109/TBME.2011.2167970
  • Filename
    6033055