• DocumentCode
    3036470
  • Title

    Development of physiological simulation environment for hemodynamics of cardiovascular system

  • Author

    Asami, Ken´ichi ; Kitamura, Tadashi

  • Author_Institution
    Kyushu Inst. of Technol., Japan
  • fYear
    2003
  • fDate
    20-22 Oct. 2003
  • Firstpage
    50
  • Lastpage
    51
  • Abstract
    The purpose of this study is to provide a physiological simulation environment for modeling and diagnosing the cardiovascular system as part of circulatory system in the whole body. The circulatory system model aims to represent various changes and diseases quantitatively based on clinical measurements. In respect with some measurement or diagnosis levels, the circulatory system could be modeled into a target granularity of sizes, resolutions, or timescales. There are opposite advantages and shortcomings in the macro and micro models for physiological simulation. On the one hand, the macro model contains a wide range of physiological information for various organs, functions, and subsystems within the whole body, but it is impossible to be detailed into small time units for time-dependent variables. On the other hand, the micro model enables to analyze microscopic behavior only for a single subsystem, because the extra functions of the whole body are omitted. Therefore, the proposed physiological simulation method integrates macro circulatory and micro cardiovascular system models, so that long-term macroscopic body conditions and short-term microscopic blood flow could be concurrently simulated.
  • Keywords
    cardiovascular system; digital simulation; diseases; haemodynamics; patient diagnosis; physiological models; pulsatile flow; cardiovascular system; cardiovascular system diagnosis; circulatory system model; diseases; hemodynamics; macrocirculatory system models; microcardiovascular system models; physiological simulation; physiological simulation environment; pulsating blood flow; target granularity; Biological system modeling; Blood flow; Cardiovascular system; Circulatory system; Differential equations; Heart; Hemodynamics; Humans; Microscopy; Temperature control;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Biomedical Engineering, 2003. IEEE EMBS Asian-Pacific Conference on
  • Print_ISBN
    0-7803-7943-8
  • Type

    conf

  • DOI
    10.1109/APBME.2003.1302578
  • Filename
    1302578