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Mathematical model of fiber orientation in anisotropic fascia layers at large displacements

Hans Chaudhry, Max Roman, Antonio Stecco, Thomas Findley
Key takeaways
  1. 01A mathematical model of fascia mechanics
  2. 02Fiber angle affects resistance to reorientation
  3. 03Fibers remain in tension during a stretch
  4. 04Helps build a theoretical framework for fascia behavior

This mathematical model suggests that the initial angle of collagen fibers influences how much they reorient when fascia is stretched.

Abstract

A mathematical model is developed to determine the relationship between stretch and the orientation of fibers in the fascia. The transversely isotropic stress- strain relation for large displacements valid for the human fascia reinforced by the collagen fibers is employed. The relation between the orientation of fibers in the un-deformed and deformed state depending upon the stretch is plotted. It is observed that for greater fiber angle orientation, the fibers are more resistant to reorientation as the fascia is stretched longitudinally. It is also concluded that the reinforced fascia will always be in tension as the stretch is applied. However, we suggest future research to resolve the tension and compression issues in fascia.

Cite this study
APA
Hans Chaudhry, Max Roman, Antonio Stecco, & Thomas Findley (2012). Mathematical model of fiber orientation in anisotropic fascia layers at large displacements. https://fasciaresearchdatabase.com/mathematical-model-of-fiber-orientation-in-anisotropic-fascia-layers-at-large-displacements/
MLA
Hans Chaudhry, et al. "Mathematical model of fiber orientation in anisotropic fascia layers at large displacements." 2012, https://fasciaresearchdatabase.com/mathematical-model-of-fiber-orientation-in-anisotropic-fascia-layers-at-large-displacements/.
Chicago
Hans Chaudhry et al. 2012. "Mathematical model of fiber orientation in anisotropic fascia layers at large displacements.". https://fasciaresearchdatabase.com/mathematical-model-of-fiber-orientation-in-anisotropic-fascia-layers-at-large-displacements/