Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams

The architecture and weights of an artificial neural network model that predicts time-dependent deflection have been developed and optimized. To satisfy the serviceability limit states, a concrete structure must be serviceable and perform its intended function throughout its working life. Excessive...

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Main Authors: Faiq M. S. Al-Zwainy, Rana I. K. Zaki, Atheer Mahmood Al-saadi, Huda F. Ibraheem
Format: Article
Language:English
Published: Taylor & Francis Group 2018-01-01
Series:Cogent Engineering
Subjects:
Online Access:http://dx.doi.org/10.1080/23311916.2018.1477485
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spelling doaj-88703c6034a945feb58a77bef2ca46472021-03-02T14:46:47ZengTaylor & Francis GroupCogent Engineering2331-19162018-01-015110.1080/23311916.2018.14774851477485Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beamsFaiq M. S. Al-Zwainy0Rana I. K. Zaki1Atheer Mahmood Al-saadi2Huda F. Ibraheem3College of Engineering, Al-Nahrain UniversityCollege of Engineering, Al-Nahrain UniversityMinistry of Construction and HousingAl-Iraqia UniversityThe architecture and weights of an artificial neural network model that predicts time-dependent deflection have been developed and optimized. To satisfy the serviceability limit states, a concrete structure must be serviceable and perform its intended function throughout its working life. Excessive deflection should not impair the function of the structure or be aesthetically unacceptable. Cracks should not be unsightly or wide enough to lead to durability problems. Design for the serviceability limit states involves making reliable predictions of the instantaneous and time-dependent deflection of reinforced concrete beams. This is complicated by the nonlinear behavior of concrete caused mainly by cracking, tension stiffening, creep, and shrinkage. This paper provides a statistical approach for predicting the time-dependent deflection of reinforced concrete beams at service loads and outlines a validity of the proposed method in comparison with the American Concrete Institute (ACI) method.http://dx.doi.org/10.1080/23311916.2018.1477485time-dependent deflectionbeamsreinforced concretestatistical analysisartificial neural networksvariabilityparametric study
collection DOAJ
language English
format Article
sources DOAJ
author Faiq M. S. Al-Zwainy
Rana I. K. Zaki
Atheer Mahmood Al-saadi
Huda F. Ibraheem
spellingShingle Faiq M. S. Al-Zwainy
Rana I. K. Zaki
Atheer Mahmood Al-saadi
Huda F. Ibraheem
Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
Cogent Engineering
time-dependent deflection
beams
reinforced concrete
statistical analysis
artificial neural networks
variability
parametric study
author_facet Faiq M. S. Al-Zwainy
Rana I. K. Zaki
Atheer Mahmood Al-saadi
Huda F. Ibraheem
author_sort Faiq M. S. Al-Zwainy
title Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
title_short Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
title_full Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
title_fullStr Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
title_full_unstemmed Validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
title_sort validity of artificial neural modeling to estimate time-dependent deflection of reinforced concrete beams
publisher Taylor & Francis Group
series Cogent Engineering
issn 2331-1916
publishDate 2018-01-01
description The architecture and weights of an artificial neural network model that predicts time-dependent deflection have been developed and optimized. To satisfy the serviceability limit states, a concrete structure must be serviceable and perform its intended function throughout its working life. Excessive deflection should not impair the function of the structure or be aesthetically unacceptable. Cracks should not be unsightly or wide enough to lead to durability problems. Design for the serviceability limit states involves making reliable predictions of the instantaneous and time-dependent deflection of reinforced concrete beams. This is complicated by the nonlinear behavior of concrete caused mainly by cracking, tension stiffening, creep, and shrinkage. This paper provides a statistical approach for predicting the time-dependent deflection of reinforced concrete beams at service loads and outlines a validity of the proposed method in comparison with the American Concrete Institute (ACI) method.
topic time-dependent deflection
beams
reinforced concrete
statistical analysis
artificial neural networks
variability
parametric study
url http://dx.doi.org/10.1080/23311916.2018.1477485
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