Experimental and analytical studies of a novel aluminum foam filled energy absorption connector under quasi-static compression loading

•A novel aluminum foam filled energy absorption connector was proposed.•Aluminum foam and pleated plate were used for energy absorption.•Experimental study on the energy absorption performance of the connector.•Analytical model was proposed to predict the load-displacement curve. A novel energy abso...

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Veröffentlicht in:Engineering structures 2017-01, Vol.131, p.136-147
Hauptverfasser: Wang, Yonghui, Liew, J.Y. Richard, Lee, Siew Chin, Wang, Wei
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container_title Engineering structures
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creator Wang, Yonghui
Liew, J.Y. Richard
Lee, Siew Chin
Wang, Wei
description •A novel aluminum foam filled energy absorption connector was proposed.•Aluminum foam and pleated plate were used for energy absorption.•Experimental study on the energy absorption performance of the connector.•Analytical model was proposed to predict the load-displacement curve. A novel energy absorption connector with pleated plate and aluminum foam as energy absorber was proposed to be inserted between the blast resistant façade and building to absorb blast energy and reduce blast load transferred to the building. The energy absorption performance of the connector under quasi-static compression loading was first studied by using experimental method. The deformation mechanisms were observed from the experiment and three different deformation processes were also identified. The effects of aluminum foam, pleated plate thickness and angle θo (the angle between flat plate and pleated plate) as well as pleat number on the energy absorption performance of the connector were experimentally investigated, which showed that the energy absorption capacity could be improved by filling the connector with aluminum foam and increasing the pleated plate thickness, angle θo and pleat number. Moreover, an analytical model for determining the load–displacement curve of the energy absorption connector was also developed and the predictions by the analytical model were proven to be reasonable by comparing with the experimental data.
doi_str_mv 10.1016/j.engstruct.2016.10.020
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Richard ; Lee, Siew Chin ; Wang, Wei</creator><creatorcontrib>Wang, Yonghui ; Liew, J.Y. Richard ; Lee, Siew Chin ; Wang, Wei</creatorcontrib><description>•A novel aluminum foam filled energy absorption connector was proposed.•Aluminum foam and pleated plate were used for energy absorption.•Experimental study on the energy absorption performance of the connector.•Analytical model was proposed to predict the load-displacement curve. A novel energy absorption connector with pleated plate and aluminum foam as energy absorber was proposed to be inserted between the blast resistant façade and building to absorb blast energy and reduce blast load transferred to the building. The energy absorption performance of the connector under quasi-static compression loading was first studied by using experimental method. The deformation mechanisms were observed from the experiment and three different deformation processes were also identified. The effects of aluminum foam, pleated plate thickness and angle θo (the angle between flat plate and pleated plate) as well as pleat number on the energy absorption performance of the connector were experimentally investigated, which showed that the energy absorption capacity could be improved by filling the connector with aluminum foam and increasing the pleated plate thickness, angle θo and pleat number. 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Richard</creatorcontrib><creatorcontrib>Lee, Siew Chin</creatorcontrib><creatorcontrib>Wang, Wei</creatorcontrib><title>Experimental and analytical studies of a novel aluminum foam filled energy absorption connector under quasi-static compression loading</title><title>Engineering structures</title><description>•A novel aluminum foam filled energy absorption connector was proposed.•Aluminum foam and pleated plate were used for energy absorption.•Experimental study on the energy absorption performance of the connector.•Analytical model was proposed to predict the load-displacement curve. A novel energy absorption connector with pleated plate and aluminum foam as energy absorber was proposed to be inserted between the blast resistant façade and building to absorb blast energy and reduce blast load transferred to the building. The energy absorption performance of the connector under quasi-static compression loading was first studied by using experimental method. The deformation mechanisms were observed from the experiment and three different deformation processes were also identified. The effects of aluminum foam, pleated plate thickness and angle θo (the angle between flat plate and pleated plate) as well as pleat number on the energy absorption performance of the connector were experimentally investigated, which showed that the energy absorption capacity could be improved by filling the connector with aluminum foam and increasing the pleated plate thickness, angle θo and pleat number. 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A novel energy absorption connector with pleated plate and aluminum foam as energy absorber was proposed to be inserted between the blast resistant façade and building to absorb blast energy and reduce blast load transferred to the building. The energy absorption performance of the connector under quasi-static compression loading was first studied by using experimental method. The deformation mechanisms were observed from the experiment and three different deformation processes were also identified. The effects of aluminum foam, pleated plate thickness and angle θo (the angle between flat plate and pleated plate) as well as pleat number on the energy absorption performance of the connector were experimentally investigated, which showed that the energy absorption capacity could be improved by filling the connector with aluminum foam and increasing the pleated plate thickness, angle θo and pleat number. Moreover, an analytical model for determining the load–displacement curve of the energy absorption connector was also developed and the predictions by the analytical model were proven to be reasonable by comparing with the experimental data.</abstract><cop>Kidlington</cop><pub>Elsevier Ltd</pub><doi>10.1016/j.engstruct.2016.10.020</doi><tpages>12</tpages></addata></record>
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source Elsevier ScienceDirect Journals Complete
subjects Absorption
Aluminum
Aluminum foam
Analytical model
Blast resistance
Compression
Compression loads
Deformation
Deformation effects
Deformation mechanisms
Energy
Energy absorption
Energy absorption connector
Experimental methods
Experiments
Mathematical analysis
Metal foams
Pleated plate
Research methodology
title Experimental and analytical studies of a novel aluminum foam filled energy absorption connector under quasi-static compression loading
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