The results show that in all stiffness ratios and thickness ratios, strains from experimental tests have less value than strains from FE results.
Based on the test results, primary compressive characteristics were investigated in terms of the modulus of elasticity, Poisson's ratio, strain corresponding to peak stress, and the toughness.
The effect of draw ratio, strain rate and temperature on the stress relaxation behavior of TPE was investigated.
The performances and characteristics of the test specimens were analyzed in terms of load-drift relationship, dissipated energy, damping ratio, strain profile, drift capacity, effective stiffness, and ductility.
The experimental data were compared with numerical simulations and insight was provided into the effects of equivalence ratio, strain rate, heat loss, particle size and type, gravity, and flame configuration.
Population measurements were reported as the ratio (strain expression level)/ WT expression level) and are presented in Additional file 1: Table S4.
Analysis of mitral annulus velocities, E– E′ ratio, strain, and strain rate of left ventricular mid-cavity segments and conventional indexes of mitral inflow showed the worsening of left ventricular diastolic mechanics in the study group compared to healthy controls.
The coupled model is validated by comparing its predictions with the anisotropy in the experimental yield stress ratio and strain ratios at 15% tensile deformation.
The present parametric study shows that the Poisson's ratio strains have significant effects on stress fields in the insulation.
