Two multiscale modeling approaches are proposed to predict the high cycle fatigue (HCF) failure of neat thermoplastic polymers and of short glass fiber reinforced thermoplastics. The modeling is based on the concept of so-called weak spots within the polymer matrix, whose behavior couples viscoelasticity, viscoplasticity and continuum damage mechanics. Scale transition is achieved with nonlinear mean-field homogenization. The predictions are evaluated against experimental results
AbstractThis paper proposes a numerical model of the fatigue damage process in short fiber-reinforce...
The present work falls within a wider framework concerning the prediction of the mechanical response...
Thermoplastics are used in many industries with many applications and can be manufactured using diff...
Reinforced and unreinforced thermoplastic polymers (TPs) are widely used in a range of industrial se...
AbstractLight-weight structures with controlled cost is a major issue in all industries especially t...
Under fatigue-loading, short-fiber reinforced thermoplastic materials typically show a progressive d...
In this work, we investigate a model for the anisotropic and loading-direction dependent stiffness d...
Characterizing short-fiber reinforced polymers under high-cycle fatigue loading is a tedious experim...
This work presents a new micromechanical fatigue damage model for reinforced thermoplastic composite...
In order to predict the fatigue behavior of Short Fiber-Reinforced Thermoplastic (SFRT) parts, a lar...
International audienceThis work presents a micromechanical fatigue damage model developed for short ...
The hypothesis of this work is that the fatigue behavior of a composite material is governed by its ...
Due to a lack of knowledge and robustness in current design processes regarding the fatigue behavior...
Thermoplastics reinforced with short glass fibers are increasingly used in many industrial applicati...
Under fatigue loading, the stiffness decrease in short-fiber reinforced polymers reflects the gradua...
AbstractThis paper proposes a numerical model of the fatigue damage process in short fiber-reinforce...
The present work falls within a wider framework concerning the prediction of the mechanical response...
Thermoplastics are used in many industries with many applications and can be manufactured using diff...
Reinforced and unreinforced thermoplastic polymers (TPs) are widely used in a range of industrial se...
AbstractLight-weight structures with controlled cost is a major issue in all industries especially t...
Under fatigue-loading, short-fiber reinforced thermoplastic materials typically show a progressive d...
In this work, we investigate a model for the anisotropic and loading-direction dependent stiffness d...
Characterizing short-fiber reinforced polymers under high-cycle fatigue loading is a tedious experim...
This work presents a new micromechanical fatigue damage model for reinforced thermoplastic composite...
In order to predict the fatigue behavior of Short Fiber-Reinforced Thermoplastic (SFRT) parts, a lar...
International audienceThis work presents a micromechanical fatigue damage model developed for short ...
The hypothesis of this work is that the fatigue behavior of a composite material is governed by its ...
Due to a lack of knowledge and robustness in current design processes regarding the fatigue behavior...
Thermoplastics reinforced with short glass fibers are increasingly used in many industrial applicati...
Under fatigue loading, the stiffness decrease in short-fiber reinforced polymers reflects the gradua...
AbstractThis paper proposes a numerical model of the fatigue damage process in short fiber-reinforce...
The present work falls within a wider framework concerning the prediction of the mechanical response...
Thermoplastics are used in many industries with many applications and can be manufactured using diff...