Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members

Steel reinforced concrete members in bending acquire their load carrying capacity from the integration between concrete compression and steel tensile strength. The codes neglect the concrete tensile capacity since it is relatively small compared to the compressive strength. Hypothetically, if a low...

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Main Authors: Han Aylie, Buntara Sthenly Gan, Sholihin As’ad, M. Mirza Abdillah Pratama
Format: Article
Language:English
Published: Taiwan Association of Engineering and Technology Innovation 2015-10-01
Series:International Journal of Engineering and Technology Innovation
Online Access:http://ojs.imeti.org/index.php/IJETI/article/view/32
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spelling doaj-9973b638784d4d4d8538c435ec77366c2020-11-25T02:44:49ZengTaiwan Association of Engineering and Technology InnovationInternational Journal of Engineering and Technology Innovation2223-53292226-809X2015-10-0154Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural MembersHan AylieBuntara Sthenly GanSholihin As’adM. Mirza Abdillah PratamaSteel reinforced concrete members in bending acquire their load carrying capacity from the integration between concrete compression and steel tensile strength. The codes neglect the concrete tensile capacity since it is relatively small compared to the compressive strength. Hypothetically, if a low concrete strength is assigned to the layers in tension, it leads to economical and environmental advantages. A method for producing functionally graded concrete (FGC) having a gradation in compressive strength and stiffness throughout the depth of a member was developed. Uniaxial compression tests on cylindrical FGC specimens were conducted and verified numerically using finite element models. We suggest that the compressive strength of FGC approaches the lower grade concrete layers while the stiffness properties follow the higher grade concrete layers. This potential could be exploited for the flexural member, through optimising of material use while improving the serviceability of the memberhttp://ojs.imeti.org/index.php/IJETI/article/view/32
collection DOAJ
language English
format Article
sources DOAJ
author Han Aylie
Buntara Sthenly Gan
Sholihin As’ad
M. Mirza Abdillah Pratama
spellingShingle Han Aylie
Buntara Sthenly Gan
Sholihin As’ad
M. Mirza Abdillah Pratama
Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
International Journal of Engineering and Technology Innovation
author_facet Han Aylie
Buntara Sthenly Gan
Sholihin As’ad
M. Mirza Abdillah Pratama
author_sort Han Aylie
title Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
title_short Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
title_full Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
title_fullStr Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
title_full_unstemmed Parametric Study of the Load Carrying Capacity of Functionally Graded Concrete of Flexural Members
title_sort parametric study of the load carrying capacity of functionally graded concrete of flexural members
publisher Taiwan Association of Engineering and Technology Innovation
series International Journal of Engineering and Technology Innovation
issn 2223-5329
2226-809X
publishDate 2015-10-01
description Steel reinforced concrete members in bending acquire their load carrying capacity from the integration between concrete compression and steel tensile strength. The codes neglect the concrete tensile capacity since it is relatively small compared to the compressive strength. Hypothetically, if a low concrete strength is assigned to the layers in tension, it leads to economical and environmental advantages. A method for producing functionally graded concrete (FGC) having a gradation in compressive strength and stiffness throughout the depth of a member was developed. Uniaxial compression tests on cylindrical FGC specimens were conducted and verified numerically using finite element models. We suggest that the compressive strength of FGC approaches the lower grade concrete layers while the stiffness properties follow the higher grade concrete layers. This potential could be exploited for the flexural member, through optimising of material use while improving the serviceability of the member
url http://ojs.imeti.org/index.php/IJETI/article/view/32
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AT buntarasthenlygan parametricstudyoftheloadcarryingcapacityoffunctionallygradedconcreteofflexuralmembers
AT sholihinasad parametricstudyoftheloadcarryingcapacityoffunctionallygradedconcreteofflexuralmembers
AT mmirzaabdillahpratama parametricstudyoftheloadcarryingcapacityoffunctionallygradedconcreteofflexuralmembers
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