Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading

An experimental investigation on the dynamic interfacial bond behaviours between hybrid carbon/basalt fibre reinforced polymer (FRP) sheets and concrete under high loading velocities (i.e., 8.33E-6, 1.0, 3.0, and 8.0 m/s) is carried out in this study. The single-lap shear specimens are evaluated wit...

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Main Authors: Yuan, C., Chen, Wensu, Pham, Thong, Hao, Hong, Cui, J., Shi, Y.
Format: Journal Article
Language:English
Published: ELSEVIER SCI LTD 2020
Subjects:
Online Access:http://purl.org/au-research/grants/arc/LP150100259
http://hdl.handle.net/20.500.11937/91676
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author Yuan, C.
Chen, Wensu
Pham, Thong
Hao, Hong
Cui, J.
Shi, Y.
author_facet Yuan, C.
Chen, Wensu
Pham, Thong
Hao, Hong
Cui, J.
Shi, Y.
author_sort Yuan, C.
building Curtin Institutional Repository
collection Online Access
description An experimental investigation on the dynamic interfacial bond behaviours between hybrid carbon/basalt fibre reinforced polymer (FRP) sheets and concrete under high loading velocities (i.e., 8.33E-6, 1.0, 3.0, and 8.0 m/s) is carried out in this study. The single-lap shear specimens are evaluated with different stacking sequences of FRP sheets (i.e., CFRP and BFRP) bonded to the concrete substrates. Experimental results including debonding failure modes, ultimate debonding strain, debonding load, interfacial fracture energy, and bond-slip response are discussed and evaluated. The testing results show that the interfacial bond behaviours between either sole FRP sheet or hybrid carbon/basalt FRP composite and concrete are sensitive to strain rate. The sole FRP sheet exhibits higher strain rate sensitivity than hybrid composite. The interfacial shear resistance between hybrid FRP sheets and concrete is improved due to the effect of FRP hybridization and strain rate. Additionally, the stacking sequence of FRP composites results in different bond performance when the loading speed is less than 1 m/s, while the effect of stacking sequence on bonding behaviour is insignificant when the loading speed is over 1 m/s. The hybrid composites have a relatively longer effective bond length under both quasi-static and dynamic loadings. Empirical formulae are proposed based on the test data to predict the dynamic interfacial bonding strength and shear stress between single or hybrid FRP sheet and concrete at various strain rates.
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institution Curtin University Malaysia
institution_category Local University
language English
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publishDate 2020
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spelling curtin-20.500.11937-916762023-05-24T06:54:48Z Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading Yuan, C. Chen, Wensu Pham, Thong Hao, Hong Cui, J. Shi, Y. Science & Technology Technology Engineering, Chemical Materials Science, Multidisciplinary Engineering Materials Science Strain rate Dynamic interfacial bond behaviour Hybrid FRP composites Single-lap shear tests REINFORCED POLYMER SHEETS FRP COMPOSITES JOINTS STRENGTH LENGTH An experimental investigation on the dynamic interfacial bond behaviours between hybrid carbon/basalt fibre reinforced polymer (FRP) sheets and concrete under high loading velocities (i.e., 8.33E-6, 1.0, 3.0, and 8.0 m/s) is carried out in this study. The single-lap shear specimens are evaluated with different stacking sequences of FRP sheets (i.e., CFRP and BFRP) bonded to the concrete substrates. Experimental results including debonding failure modes, ultimate debonding strain, debonding load, interfacial fracture energy, and bond-slip response are discussed and evaluated. The testing results show that the interfacial bond behaviours between either sole FRP sheet or hybrid carbon/basalt FRP composite and concrete are sensitive to strain rate. The sole FRP sheet exhibits higher strain rate sensitivity than hybrid composite. The interfacial shear resistance between hybrid FRP sheets and concrete is improved due to the effect of FRP hybridization and strain rate. Additionally, the stacking sequence of FRP composites results in different bond performance when the loading speed is less than 1 m/s, while the effect of stacking sequence on bonding behaviour is insignificant when the loading speed is over 1 m/s. The hybrid composites have a relatively longer effective bond length under both quasi-static and dynamic loadings. Empirical formulae are proposed based on the test data to predict the dynamic interfacial bonding strength and shear stress between single or hybrid FRP sheet and concrete at various strain rates. 2020 Journal Article http://hdl.handle.net/20.500.11937/91676 10.1016/j.ijadhadh.2020.102569 English http://purl.org/au-research/grants/arc/LP150100259 ELSEVIER SCI LTD fulltext
spellingShingle Science & Technology
Technology
Engineering, Chemical
Materials Science, Multidisciplinary
Engineering
Materials Science
Strain rate
Dynamic interfacial bond behaviour
Hybrid FRP composites
Single-lap shear tests
REINFORCED POLYMER SHEETS
FRP COMPOSITES
JOINTS
STRENGTH
LENGTH
Yuan, C.
Chen, Wensu
Pham, Thong
Hao, Hong
Cui, J.
Shi, Y.
Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title_full Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title_fullStr Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title_full_unstemmed Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title_short Interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
title_sort interfacial bond behaviour between hybrid carbon/basalt fibre composites and concrete under dynamic loading
topic Science & Technology
Technology
Engineering, Chemical
Materials Science, Multidisciplinary
Engineering
Materials Science
Strain rate
Dynamic interfacial bond behaviour
Hybrid FRP composites
Single-lap shear tests
REINFORCED POLYMER SHEETS
FRP COMPOSITES
JOINTS
STRENGTH
LENGTH
url http://purl.org/au-research/grants/arc/LP150100259
http://hdl.handle.net/20.500.11937/91676