• DocumentCode
    471889
  • Title

    Anatomically Based Computational Models of the Male and Female Pelvic Floor and Anal Canal

  • Author

    Noakes, K.F. ; Bissett, I.P. ; Pullan, A.J. ; Cheng, L.K.

  • Author_Institution
    Bio-eng. Inst., Auckland Univ.
  • fYear
    2006
  • fDate
    Aug. 30 2006-Sept. 3 2006
  • Firstpage
    3815
  • Lastpage
    3818
  • Abstract
    The understanding of the pelvic floor and anal canal, in the study of incontinence, has been limited by the inability to integrate both anatomy and physiology into a unified bioengineering model. However, this integration has been achieved in the study of other organs in the body, most notably the heart. In this study we construct three-dimensional anatomically realistic models of both the male and female pelvic floor and anal canal regions using similar techniques to those used in cardiac modelling. Anatomical data from the Visible Human Project was used to provide the anatomical positioning of each model component within the region of interest. A C1 continuous cubic Hermite finite element mesh was then created using an iterative linear fitting procedure (root mean square (RMS) error of fit <2 mm). With this mesh we seek to examine the roles of the various muscles in maintaining continence. Our ultimate aim is to provide a framework with which to examine the mechanics of normal function and stability in the pelvic floor, and the abnormalities associated with the defecation disorders fecal incontinence and obstructed defecation, thereby providing a tool to further the education of clinicians, patients, and students and enabling virtual planning of corrective surgery
  • Keywords
    bone; iterative methods; medical computing; mesh generation; muscle; C1 continuous cubic Hermite finite element mesh; RMS error; Visible Human Project; anal canal; anatomical data; anatomical positioning; computational models; defecation disorders fecal incontinence; female; iterative linear fitting procedure; male; muscles; normal function mechanics; obstructed defecation; pelvic floor; pelvic floor stability; root mean square error; three-dimensional anatomically realistic models; Anatomy; Biological system modeling; Biomedical engineering; Computational modeling; Finite element methods; Heart; Humans; Irrigation; Physiology; Root mean square;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Engineering in Medicine and Biology Society, 2006. EMBS '06. 28th Annual International Conference of the IEEE
  • Conference_Location
    New York, NY
  • ISSN
    1557-170X
  • Print_ISBN
    1-4244-0032-5
  • Electronic_ISBN
    1557-170X
  • Type

    conf

  • DOI
    10.1109/IEMBS.2006.259886
  • Filename
    4462631