Journal of the Mechanics and Physics of Solids
The micromechanics of fiber pull-out
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Cited by (52)
Textile-to-mortar bond behavior: An analytical study
2021, Construction and Building MaterialsCitation Excerpt :The pull-out load corresponding to point C (in this case, Pf) represents the total frictional force resisted by the system [13,30]. In the dynamic stage, a constant (β = 0.0), a slip hardening (β > 0.0), or a slip softening (β < 0.0) can be observed [29,31–35]. Slip hardening occurs when the frictional stress between the fiber and the mortar increases due to the shape of fibers, embedded length, and the abrasion effect [21,32].
Aging of lime-based TRM composites under natural environmental conditions
2021, Construction and Building MaterialsCitation Excerpt :This sudden drop load shows the transition from chemical/frictional bond to frictional bond and indicates that the frictional bond is smaller than the adhesive bond in this system [39,42,44,46,47]. After this load drop, a slip hardening behavior (forming a second peak load) and then a softening response until the end of the tests is observed [39,44,47–50]. Comparing the load-slip curves of the samples tested at different ages under indoor conditions, Fig. 7b, shows that, in general, the bond behavior is improved with time even until 920 days, although a slight decrement of bond performance may also be observed at some ages.
Damage Modeling of Composite Structures: Strength, Fracture, and Finite Element Analysis
2021, Damage Modeling of Composite Structures: Strength, Fracture, and Finite Element AnalysisIntensity of singular stress fields (ISSFs) in micro-bond test in comparison with ISSFs in pull-out test
2020, International Journal of Mechanical SciencesCitation Excerpt :Fig. 2 shows the single fiber pull-out test treated in the previous paper [33,34] whose ISSF will be compared to Fig. 1. The micro-bond test in Fig. 1 can be used more conveniently than the pull-out test in Fig. 2 where large matrix region should be prepared by molding during the cure procedure [2,35]. This is the reason why most of the previous experiments employed the micro-bond test instead of the pull-out test [3].
Microstructural evolution and failure in short fiber soft composites: Experiments and modeling
2020, Journal of the Mechanics and Physics of SolidsCitation Excerpt :Despite these many efforts at capturing failure behavior in soft composites, progress in understanding the mechanisms of material failure has been greatly inhibited by the difficulty of experimentally visualizing the multiscale structural changes during and leading up to failure, a point repeatedly recognized by prior researchers of fibrous systems (Koh et al., 2013; Li, 2016; Peña, 2011). Non-destructive methods such as Raman spectroscopy (Melanitis et al., 1993) and photoelasticity (Tsai and Kim, 1996) have been used to understand the stress state around single fibers embedded in a matrix during uniaxial loading and fiber pullout, respectively. Fiber networks have been studied experimentally (Bircher et al., 2019; Koh et al., 2013; Yang et al., 2015) using X-Ray scattering (Yang et al., 2015), optical microscopy, electron microscopy (Bircher et al., 2019; Koh et al., 2013), and light scattering (Sacks, 2003) during stretching to relate fiber reorientation to strain stiffening and damage evolution.
Carbon fiber–reinforced nanocomposites: a multiscale modeling of regularly staggered carbon fibers
2020, Fiber-Reinforced Nanocomposites: Fundamentals and Applications