Molecular-level collagen damage explains softening and failure of arterial tissues: A quantitative interpretation of CHP data with a novel elasto-damage model

Molecular-level collagen damage explains softening and failure of arterial tissues: A quantitative interpretation of CHP data with a novel elasto-damage model
Are you interested in evaluating the mechanical damage of tissues or evaluating how collagen damage influences mechanical properties?? Well, then this paper is for you! A new article published in The Journal of the Mechanical Behavior of Biomedical Materials shows that CHPs can help give quantitative information regarding the damage to collagen fibers at a molecular level. The authors explain how this molecular-level damage influences the mechanical pr...

Systematic in vitro comparison of decellularization protocols for blood vessels

Systematic in vitro comparison of decellularization protocols for blood vessels
New work from the Niklas Bergh and Per Fogelstrand labs (University of Gothenburg and Sahlgrenska University Hospital) evaluated how decellularized blood vessels from tissue engineering can be a practical alternative to synthetic or autologous grafts that are commonly used in vascular surgery. They utilized CHPs to systematically compare collagen damage caused by decellularization of 5 different protocols using the following detergents: sodium dodecyl ...
Please wait...

Subscribe to our newsletter

Want to be notified when our article is published? Enter your email address and name below to be the first to know!