• Title of article

    Automatic generation of clinical algorithms within the state-decision-action model

  • Author/Authors

    Bohada، نويسنده , , John A. and Riaٌo، نويسنده , , David and Lَpez-Vallverdْ، نويسنده , , Joan A.، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2012
  • Pages
    13
  • From page
    10709
  • To page
    10721
  • Abstract
    Objective pose a methodology to automatically induce state-decision-action diagrams from health-care databases and electronic health records in order to show health-care professionals an explicit representation of the past health-care procedures carried out in a health-care organization and to use these representations to study the deviations with respect to official and predefined protocols and clinical algorithms. als and methods thodology is based on two data and knowledge structures: episode of care database and set of rules. These two structures contain, respectively, patient data from health-care centres and the translation rules which are used to adapt the data of the episode of care database to the terminology we want the resulting state-decision-action diagram to have. The data expressed in the new terminology is used to generate the final state-decision-action diagram by means of a machine learning method. e performed several tests on the treatment of hypertension with data from the SAGESSA Health-care Group in Spain. The state-decision-action diagrams obtained have been analyzed at the level of their ability to predict correct treatments and at the level of their adherence to the clinical algorithms published by four official health-care organizations. s ate-decision-action diagrams obtained represent an average 94.6% of the treatments in the database, only excluding some atypical cases. Moreover, these diagrams show a high level of adherence to the treatment proposed by the National Heart Foundation of Australia and the Spanish Society for Hypertension with about 90.4% of coincident treatment. sions methodology has been developed and validated which automatically induces state-decision-action diagrams which can be used as a graphical representation of the health-care procedures carried out in health-care organizations. The methodology is also a tool to study the adherence of these health-care procedures to the official standards.
  • Keywords
    Machine Learning , Knowledge representation , State-decision-actions diagrams , Clinical algorithms , Procedural knowledge induction
  • Journal title
    Expert Systems with Applications
  • Serial Year
    2012
  • Journal title
    Expert Systems with Applications
  • Record number

    2352380