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  • Book
    Victor W. Fazio, James M. Church, James S. Wu, editors.
    Contents:
    Intestinal Stomas: Historical Overview
    Gastrointestinal Anatomy
    Structure and Function of the Large Bowel
    Physiologic and Metabolic Effects of Intestinal Stomas
    Quality of Life of the Ostomate
    Wound, Ostomy, and Continence/Enterostomal Therapy (WOC/ET) Nursing
    Ileostomy
    Medical Management of the High-Output Enterostomy and Enterocutaneous Fistula
    Intestinal Stomas and the Biliary Tree
    Continent Ileostomy
    Colostomy: Types, Indications, Formation, and Reversal
    Laparoscopic Ostomy Surgery
    Ostomies in Trauma
    CCF Color Photo Gallery
    Stomas Via Percutaneous Endoscopy
    Gastrointestinal Stomas in Infants and Children
    Antegrade Colonic Enema (ACE)
    Urinary Stomas
    Enterocutaneous Fistula
    Parastomal Hernia
    Surgical Treatment of Peristomal Skin Conditions
    Stoma Prolapse
    Challenging Stomas.
    Digital Access Springer 2012
  • Article
    Dulhunty AF, Franzini-Armstrong C.
    J Physiol. 1977 Apr;266(3):687-711.
    1. The passive electrical properties of frog skeletal muscle fibres have been measured at a number of different sarcomere lengths (from 2-1 to 4-0 micron). The geometrical outline of each fibre was determined from optical cross-sections and sarcomere length was measured by laser beam diffraction. 2. When fibres were stretched to long sarcomere lengths the membrane capacity, Cm, of both normal and detubulated (glycerol-treated) fibres was significantly less than the Cm of fibres at rest length. A significant reduction in membrane conductance of fibres held at long sarcomere lengths was only seen with detubulated fibres. 3. Membrane capacity and membrane conductance have a significant dependence on the cross-sectional area of normal fibres but are independent of cross-sectional area after detubulation. 4. It has been shown that membrane geometry depends on the sarcomere length of the fibre and it is suggested that the passive membrane properties are related to sarcomere length because they depend on membrane geometry. 5. The specific membrane capacity, calculated from the data from detubulated fibres, is 0-8 micronF/cm2. 6. The internal resistivity, Ri, of normal fibres, also depends on sarcomere length between 2-1 and 3-0 micron. At a sarcomere length of 2-1 micron the average Ri is 122 +/- 3 omega. cm (mean +/- S.E. of mean) and at a sarcomere length of 3-0 micron the average Ri is 210 +/- 17 omega. cm (mean +/- S.E. of mean). No further increase in Ri was observed with further increases in sarcomere length.
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