Then the crushing behavior and energy absorption characteristics of the BHTS under axial impact loading are investigated by numerical simulation.
This work studies the collapse behavior and energy absorption of corrugated tapered tubes (CTT) under axial crushing numerically.
On this basis, this paper investigates the cyclic behavior and energy absorption capabilities of SPSWs with trapezoidally-corrugated and centrally-perforated infill plates.
But the axial crush behavior and energy absorption capability of foam-filled composite tubes are threatened by elevated and high temperatures.
The test results demonstrated that the axial crush behavior and energy absorption capacity of foam-filled GFRP tubes were determined by the environmental temperature.
We present a comprehensive modeling and numerical study focusing on the energy quasi-static crushing behavior and energy absorption characteristics of hollow tube microlattice structures.
Systematic parametric studies were carried out to study the effect of material properties, including yield and ultimate strength of material, strain rate effect, location of cutout, tube length and impact speed on the crushing behaviors and energy absorption capacity of aluminum and steel tubes.
The failure characteristics, yield and ultimate capacities, deflection, cracking behavior, ductility and energy absorption capacities were evaluated.
The finite element analysis (FEA) were also performed using ABAQUS® software to predict the collapse behavior and energy-absorption characteristics of the same categories of GFRP specimen models similar to the experimental conditions.
The axial load behavior of the hybrid column specimens, such as cracking, initial stiffness, peak load, displacement ductility, and energy absorption capacity, varied greatly with the test parameters.
(2) The axial load behavior of the hybrid column specimens, such as cracking, initial stiffness, peak load, displacement ductility, and energy absorption capacity, varied greatly with the test parameters.
