Interlamellar matrix governs human annulus fibrosus multiaxial behavior

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作者
Karim Kandil
Fahmi Zaïri
Tanguy Messager
Fahed Zaïri
机构
[1] Lille University,Unité de Mécanique de Lille (EA 7572 UML)
[2] Lille University,Civil Engineering and geo
[3] Hôpital privé Le Bois,Environmental Laboratory (ULR 4515 LGCgE)
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Establishing accurate structure–property relationships for intervertebral disc annulus fibrosus tissue is a fundamental task for a reliable computer simulation of the human spine but needs excessive theoretical-numerical-experimental works. The difficulty emanates from multiaxiality and anisotropy of the tissue response along with regional dependency of a complex hierarchic structure interacting with the surrounding environment. We present a new and simple hybrid microstructure-based experimental/modeling strategy allowing adaptation of animal disc model to human one. The trans-species strategy requires solely the basic knowledge of the uniaxial circumferential response of two different animal disc regions to predict the multiaxial response of any human disc region. This work demonstrates for the first time the determining role of the interlamellar matrix connecting the fibers-reinforced lamellae in the disc multiaxial response. Our approach shows encouraging multiaxial predictive capabilities making it a promising tool for human spine long-term prediction.
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