We present a study correlating uniaxial stress in a polymer with its underlying structure when it is strained. The uniaxial stress is significantly influenced by the mean-square bond length and mean bond angle. In contrast, the size and shape of the polymer, typically represented by the end-to-end length, mass ratio, and radius of gyration, contribute negligibly. Among externally set control variables, density and polymer chain length play a critical role in influencing the anisotropic uniaxial stress. Short chain polymers more or less behave like rigid molecules. Temperature and rate of loading, in the range considered, have a very mild effect on the uniaxial stress
Stress overshoot is one of the most important nonlinear Theological phenomena exhibited by polymeric...
The flexible polymers have an outstanding impact-resistant performance because of the improved stiff...
In this study, we present details of the stress-optical behavior of a linear polyethylene melt under...
We present a study correlating uniaxial stress in a polymer with its underlying structure when it is...
This dissertation presents a numerical study using molecular dynamic simulations that interrogates t...
We investigate the evolution of polymer structure and its influence on uniaxial anisotropic stress u...
The molecular origin of the stress in entangled polymers is reconsidered here, in order to ascertain...
A new framework is being developed to describe stress production and relaxation in dense polymeric s...
In this study, we present details of the stress–optical behavior of a linear polyethylene melt under...
One of the most important nonlinear rheological phenomena in flowing polymeric materials is the stre...
One of the most important nonlinear rheological phenomena in flowing polymeric materials is the stre...
Results of stress-strain, infrared dichroism, and birefringence experiments on silica-filled poly(di...
We use molecular dynamics simulations to study the thermo-mechanical response of a thermosetting pol...
The birefringence on anisotropic materials under flow has been tremendously useful for understanding...
International audienceWe present results from molecular dynamics simulations for an all-atoms model ...
Stress overshoot is one of the most important nonlinear Theological phenomena exhibited by polymeric...
The flexible polymers have an outstanding impact-resistant performance because of the improved stiff...
In this study, we present details of the stress-optical behavior of a linear polyethylene melt under...
We present a study correlating uniaxial stress in a polymer with its underlying structure when it is...
This dissertation presents a numerical study using molecular dynamic simulations that interrogates t...
We investigate the evolution of polymer structure and its influence on uniaxial anisotropic stress u...
The molecular origin of the stress in entangled polymers is reconsidered here, in order to ascertain...
A new framework is being developed to describe stress production and relaxation in dense polymeric s...
In this study, we present details of the stress–optical behavior of a linear polyethylene melt under...
One of the most important nonlinear rheological phenomena in flowing polymeric materials is the stre...
One of the most important nonlinear rheological phenomena in flowing polymeric materials is the stre...
Results of stress-strain, infrared dichroism, and birefringence experiments on silica-filled poly(di...
We use molecular dynamics simulations to study the thermo-mechanical response of a thermosetting pol...
The birefringence on anisotropic materials under flow has been tremendously useful for understanding...
International audienceWe present results from molecular dynamics simulations for an all-atoms model ...
Stress overshoot is one of the most important nonlinear Theological phenomena exhibited by polymeric...
The flexible polymers have an outstanding impact-resistant performance because of the improved stiff...
In this study, we present details of the stress-optical behavior of a linear polyethylene melt under...