<div><p>Objective</p><p>To undertake a comprehensive analysis of the biochemical tissue composition and passive biomechanical properties of ovine vagina and relate this to the histo-architecture at different reproductive stages as part of the establishment of a large preclinical animal model for evaluating regenerative medicine approaches for surgical treatment of pelvic organ prolapse.</p><p>Methods</p><p>Vaginal tissue was collected from virgin (n = 3), parous (n = 6) and pregnant sheep (n = 6; mean gestation; 132 d; term = 145 d). Tissue histology was analyzed using H+E and Masson's Trichrome staining. Biochemical analysis of the extracellular matrix proteins used a hydroxyproline assay to quantify total collagen, SDS PAGE to measure col...
BACKGROUND/AIMS: The ewe is increasingly being used as an animal model for pelvic floor disorders. T...
OBJECTIVE: The mechanical properties and microstructure of the perineal body are important for the i...
<p>A. Young's modulus (MPa). B. Maximum stress (MPa). C. Permanent strain (%). D. Maximum strain (%)...
To undertake a comprehensive analysis of the biochemical tissue composition and passive biomechanica...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
OBJECTIVE: There are increasing numbers of reports describing human vaginal tissue composition in wo...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
Objective: There are increasing numbers of reports describing human vaginal tissue composition in wo...
Pelvic floor soft tissues undergo changes during the pregnancy. However, the degree and nature of th...
To undertake a comprehensive analysis of the biochemical tissue composition and passive biomechanica...
Pelvic floor soft tissues undergo changes during the pregnancy. However, the degree and nature of th...
peer reviewedINTRODUCTION AND HYPOTHESIS: Animal models are useful for investigating the genesis of ...
Pelvic organ prolapse is characterized by the failure of vaginal wall support and protrusion of the ...
Pelvic Organ Prolapse (POP) is a major clinical burden affecting 25% of women, with vaginal delivery...
BACKGROUND/AIMS: The ewe is increasingly being used as an animal model for pelvic floor disorders. T...
OBJECTIVE: The mechanical properties and microstructure of the perineal body are important for the i...
<p>A. Young's modulus (MPa). B. Maximum stress (MPa). C. Permanent strain (%). D. Maximum strain (%)...
To undertake a comprehensive analysis of the biochemical tissue composition and passive biomechanica...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
OBJECTIVE: There are increasing numbers of reports describing human vaginal tissue composition in wo...
There are increasing numbers of reports describing human vaginal tissue composition in women with an...
Objective: There are increasing numbers of reports describing human vaginal tissue composition in wo...
Pelvic floor soft tissues undergo changes during the pregnancy. However, the degree and nature of th...
To undertake a comprehensive analysis of the biochemical tissue composition and passive biomechanica...
Pelvic floor soft tissues undergo changes during the pregnancy. However, the degree and nature of th...
peer reviewedINTRODUCTION AND HYPOTHESIS: Animal models are useful for investigating the genesis of ...
Pelvic organ prolapse is characterized by the failure of vaginal wall support and protrusion of the ...
Pelvic Organ Prolapse (POP) is a major clinical burden affecting 25% of women, with vaginal delivery...
BACKGROUND/AIMS: The ewe is increasingly being used as an animal model for pelvic floor disorders. T...
OBJECTIVE: The mechanical properties and microstructure of the perineal body are important for the i...
<p>A. Young's modulus (MPa). B. Maximum stress (MPa). C. Permanent strain (%). D. Maximum strain (%)...