A random walk coefficient (RWC) prediction model is developed using a radiation-induced attenuation model of fiber and a RWC expression.
A physical meaning to the phenomenological law is proposed via a simple model of fiber rupture in single-fiber-reinforced composite.
To circumvent these difficulties, we present a two dimensional kinematic multi tendon-string EA model of fiber slackness and tautness through IP motion, including the retinacular and oblique retinacular EA ligaments.
Recently, a new model of fiber architecture of the linea alba has been described consisting of an oblique fiber layer of intermingling oblique fibers, a transverse fiber layer containing mainly transverse fibril bundles, and a variable, small irregular fiber layer.
Moreover, considering the neighboring CNTs' tunneling effect, we modeled CNTs as 'hard-core' objects instead of the so-called 'soft-core' model of fiber [15] to deal with both tensile and compressive strains on nanocomposites, with the assumption of non-penetration between the CNTs.
Monotonic stress strain relationship of actively-confined concrete has been used as the base model to establish analysis-oriented stress strain model of fiber reinforced polymer (FRP) confined concrete.
