Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices

High-damping rubber (HDR) material has been widely used in bearings for seismic-isolation devices in structures. Nevertheless, HDR has not yet been developed in dampers to reduce the response of structures to earthquake excitations by dissipating the energy applied to the structures under direct axi...

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Main Authors: Tzyy Wooi Teh, Chee Ghuan Tan, Mohd Zamin Jumaat
Format: Article
Language:English
Published: MDPI AG 2022-11-01
Series:Buildings
Subjects:
Online Access:https://www.mdpi.com/2075-5309/12/11/1917
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author Tzyy Wooi Teh
Chee Ghuan Tan
Mohd Zamin Jumaat
author_facet Tzyy Wooi Teh
Chee Ghuan Tan
Mohd Zamin Jumaat
author_sort Tzyy Wooi Teh
collection DOAJ
description High-damping rubber (HDR) material has been widely used in bearings for seismic-isolation devices in structures. Nevertheless, HDR has not yet been developed in dampers to reduce the response of structures to earthquake excitations by dissipating the energy applied to the structures under direct axial load. The purpose of this paper was to evaluate the feasibility of using novel hyperelastic composite material (HECM), which is an HDR material, in experimental investigations to determine its damping ratio, compressibility, and elasticity behavior under axial dynamic load for the development of novel dampers in the future. First, a series of tests on HECM was conducted using the double-shear method to determine the most suitable sample for a purely dynamic compression test. Subsequently, the HECM was used in a device working as a scaled-down damper under both direct tension and compression dynamic load conditions, and pure direct compression dynamic load conditions were tested. Various thicknesses of the HECM (6, 8, and 10 mm) used in the testing damper were examined under a constant force with various frequencies of 0.01, 0.1, 0.25, and 0.5 Hz. The results show that the 10 mm thick HECM can provide a high damping ratio of 10% to 13% under axial conditions. Hence, this study is important for evaluating HECM, which has the potential for use in developing a full-scaled rubber damper system to resist axial force in the future. The damper is a novel rubber damper with high damping capability to dissipate energy under axial load. Furthermore, the damper can serve as an alternative choice that is more durable and overcomes the current weaknesses of passive dampers.
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spelling doaj.art-bfcd8418de244932bb9fd59ebe216cc32023-11-24T03:59:43ZengMDPI AGBuildings2075-53092022-11-011211191710.3390/buildings12111917Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper DevicesTzyy Wooi Teh0Chee Ghuan Tan1Mohd Zamin Jumaat2Department of Civil Engineering, Faculty of Engineering, Universiti Malaya, Kuala Lumpur 50603, MalaysiaDepartment of Civil Engineering, Faculty of Engineering, Universiti Malaya, Kuala Lumpur 50603, MalaysiaDepartment of Civil Engineering, Faculty of Engineering, Universiti Malaya, Kuala Lumpur 50603, MalaysiaHigh-damping rubber (HDR) material has been widely used in bearings for seismic-isolation devices in structures. Nevertheless, HDR has not yet been developed in dampers to reduce the response of structures to earthquake excitations by dissipating the energy applied to the structures under direct axial load. The purpose of this paper was to evaluate the feasibility of using novel hyperelastic composite material (HECM), which is an HDR material, in experimental investigations to determine its damping ratio, compressibility, and elasticity behavior under axial dynamic load for the development of novel dampers in the future. First, a series of tests on HECM was conducted using the double-shear method to determine the most suitable sample for a purely dynamic compression test. Subsequently, the HECM was used in a device working as a scaled-down damper under both direct tension and compression dynamic load conditions, and pure direct compression dynamic load conditions were tested. Various thicknesses of the HECM (6, 8, and 10 mm) used in the testing damper were examined under a constant force with various frequencies of 0.01, 0.1, 0.25, and 0.5 Hz. The results show that the 10 mm thick HECM can provide a high damping ratio of 10% to 13% under axial conditions. Hence, this study is important for evaluating HECM, which has the potential for use in developing a full-scaled rubber damper system to resist axial force in the future. The damper is a novel rubber damper with high damping capability to dissipate energy under axial load. Furthermore, the damper can serve as an alternative choice that is more durable and overcomes the current weaknesses of passive dampers.https://www.mdpi.com/2075-5309/12/11/1917high-damping rubberhyperelastic composite materialaxial dynamic loadenergy dissipationseismicdamper
spellingShingle Tzyy Wooi Teh
Chee Ghuan Tan
Mohd Zamin Jumaat
Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
Buildings
high-damping rubber
hyperelastic composite material
axial dynamic load
energy dissipation
seismic
damper
title Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
title_full Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
title_fullStr Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
title_full_unstemmed Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
title_short Feasibility Evaluation of Novel High-Damping Rubbers as Energy-Dissipation Material under Axial Dynamic Load for Damper Devices
title_sort feasibility evaluation of novel high damping rubbers as energy dissipation material under axial dynamic load for damper devices
topic high-damping rubber
hyperelastic composite material
axial dynamic load
energy dissipation
seismic
damper
url https://www.mdpi.com/2075-5309/12/11/1917
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AT mohdzaminjumaat feasibilityevaluationofnovelhighdampingrubbersasenergydissipationmaterialunderaxialdynamicloadfordamperdevices