Compression behaviour and crashworthiness analysis of aluminum foam filled corrugated and tapered tubes with graded thickness
Santhosh Reddy, Vignesh Sampath, C. Lakshmana Rao

TL;DR
This study investigates the crashworthiness of aluminum foam-filled corrugated and tapered tubes with graded thickness, demonstrating improved energy absorption and controlled deformation modes through finite element simulations.
Contribution
It introduces novel tube configurations with graded thickness and corrugation, analyzing their crash behavior and optimizing parameters for better energy absorption.
Findings
Corrugated tubes exhibit more controllable deformation modes.
Foam filling shifts deformation to a more desirable concertina mode.
Corrugated tubes have lower peak force fluctuations.
Abstract
Thin-walled straight circular tubes (SCT) are frequently used as energy absorbing devices in the crashworthy applications. This paper introduces a various tubal configuration, namely aluminium foam filled corrugation tube and tapered tube with graded thickness, to control the collapse mode, and minimize the peak crushing force and fluctuations in force-displacement curves. Dynamic crushing simulations were carried out using commercially available finite element package ABAQUS explicit 6.13 at impact velocity of 60 km/h (corresponding to 16.7 m/s). A comparative study on the dynamic crushing behaviour of aluminum foam-filled tapered with graded thickness and corrugated tubes were performed. The results showed that deformation mode of corrugated tube is more controllable and predictable in the case of empty tubes. In foam filled tubes the mode of deformation changing from diamond or mixed…
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Taxonomy
TopicsCellular and Composite Structures · Fluid Dynamics Simulations and Interactions · Automotive and Human Injury Biomechanics
