Journal of Biomechanical Engineering · 2016 · 11 citations · 18 references
Natural SciencesBioengineeringPhysiologyBiomechanicsMechanobiologyPathophysiologyCardiovascular BiomechanicsCardiovascular MechanobiologyExperimental BiomechanicsHemodynamicsTissue MechanicsAortic BiomechanicsArterial StiffnessArterial Wall MechanicsBlood Vessel Wall MechanicsGermline MutationsHomeostatic AdaptationStructural StiffnessVascular Mechanics
The availability of diverse mouse models is revealing increasingly greater information on arterial mechanics, including homeostatic adaptations and pathologic maladaptations to genetic, pharmacological, and surgical manipulations. Fundamental to understanding such biomechanical changes, however, is reliable information on appropriate control vessels. In this paper, we contrast 15 different geometrical and mechanical metrics of biaxial wall mechanics for the ascending aorta across seven different types of possible control mice. We show that there is a comforting similarity across these multiple controls for most, though not all, metrics. In particular, three potential controls, namely, noninduced conditional mice, exhibit higher values of distensibility, an important clinical metric of structural stiffness, and two of these potential controls also have higher values of intrinsic circumferential material stiffness. There is motivation, therefore, to understand better the biomechanical changes that can arise with noninduced Cre-lox or similar approaches for generating mutations conditionally. In cases of germline mutations generated by breeding heterozygous +/- mice, however, the resulting homozygous +/+ mice tend to exhibit properties similar to traditional (C57BL/6) controls.
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A global double‐fluorescent Cre reporter mouse
Mandar D. Muzumdar, Bosiljka Tasic, Kazunari Miyamichi et al. · genesis · 2007 · 3.7K citations · Full text
Tgfbr2 disruption in postnatal smooth muscle impairs aortic wall homeostasis
Wei Li, Qingle Li, Yang Jiao et al. · Journal of Clinical Investigation · 2014 · 289 citations · Full text