Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model
Finite element analysis (FEA) is widely adopted these days to investigate relatively heavy structures such as reinforced concrete (RC) deep beam, which requires a higher investment of resources. This research aims to investigate a numerical modeling technique applicable to study the nonlinear behav...
Main Author: | |
---|---|
Format: | Article |
Language: | English |
Published: |
Taiwan Association of Engineering and Technology Innovation
2020-09-01
|
Series: | Advances in Technology Innovation |
Subjects: | |
Online Access: | http://ojs.imeti.org/index.php/AITI/article/view/5407 |
id |
doaj-8d1e38f8b51845f7a40de4654d4a46ed |
---|---|
record_format |
Article |
spelling |
doaj-8d1e38f8b51845f7a40de4654d4a46ed2020-11-25T02:48:22ZengTaiwan Association of Engineering and Technology InnovationAdvances in Technology Innovation2415-04362518-29942020-09-0110.46604/aiti.2021.5407Non-Linear Finite Element Analysis of RC Deep Beam Using CDP ModelPramod Rai0Span Systems International Co. Ltd., Phayathai, Bangkok, Thailand Finite element analysis (FEA) is widely adopted these days to investigate relatively heavy structures such as reinforced concrete (RC) deep beam, which requires a higher investment of resources. This research aims to investigate a numerical modeling technique applicable to study the nonlinear behavior of RC deep beams by using FEA based on the software, ABAQUS. The nonlinear behavior of an RC deep beam adapted from an earlier research work is captured by using the uniaxial compressive and tensile stress-strain relationship and damage parameters of concrete. The response of the FE model is verified with the experimental results in terms of the load to midspan deflection curve and damage distribution. The ultimate shear capacity predicted by the FE model is 0.75% lower, and the corresponding displacement is 6.92% higher than the experimental results. The adopted modeling technique and the constitutive concrete models demonstrate the promising results indicating its possibilities for the investigation of RC structures. http://ojs.imeti.org/index.php/AITI/article/view/5407nonlinear finite elementreinforced concrete deep beamconcrete damage plasticityabaqus |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Pramod Rai |
spellingShingle |
Pramod Rai Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model Advances in Technology Innovation nonlinear finite element reinforced concrete deep beam concrete damage plasticity abaqus |
author_facet |
Pramod Rai |
author_sort |
Pramod Rai |
title |
Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model |
title_short |
Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model |
title_full |
Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model |
title_fullStr |
Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model |
title_full_unstemmed |
Non-Linear Finite Element Analysis of RC Deep Beam Using CDP Model |
title_sort |
non-linear finite element analysis of rc deep beam using cdp model |
publisher |
Taiwan Association of Engineering and Technology Innovation |
series |
Advances in Technology Innovation |
issn |
2415-0436 2518-2994 |
publishDate |
2020-09-01 |
description |
Finite element analysis (FEA) is widely adopted these days to investigate relatively heavy structures such as reinforced concrete (RC) deep beam, which requires a higher investment of resources. This research aims to investigate a numerical modeling technique applicable to study the nonlinear behavior of RC deep beams by using FEA based on the software, ABAQUS. The nonlinear behavior of an RC deep beam adapted from an earlier research work is captured by using the uniaxial compressive and tensile stress-strain relationship and damage parameters of concrete. The response of the FE model is verified with the experimental results in terms of the load to midspan deflection curve and damage distribution. The ultimate shear capacity predicted by the FE model is 0.75% lower, and the corresponding displacement is 6.92% higher than the experimental results. The adopted modeling technique and the constitutive concrete models demonstrate the promising results indicating its possibilities for the investigation of RC structures.
|
topic |
nonlinear finite element reinforced concrete deep beam concrete damage plasticity abaqus |
url |
http://ojs.imeti.org/index.php/AITI/article/view/5407 |
work_keys_str_mv |
AT pramodrai nonlinearfiniteelementanalysisofrcdeepbeamusingcdpmodel |
_version_ |
1724748254650826752 |