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Saleh Ahmmad, Bakhtyar
Horvath-Kalman, Eszter
Mohammed, Kamaran
2025-03-31T11:29:52Z
2025-03-31T11:29:52Z
2024-12-30
2064-2520hu_HU
http://hdl.handle.net/20.500.14044/28590
Modelling concrete columns confined with fiber-reinforced polymer (FRP) using finite element (FEM) analysis is a difficult task due to the need for precise definition of material and interaction parameters. The inclusion of FRP confinement in composites introduces complexities in representing the volumetric behavior of concrete under triaxle stress conditions. The behavior of confined concrete differs from that of non-confined concrete due to the passive nature of FRP confinement, requiring consideration of flow rules, damage parameters, strain hardening/softening constitutive relationships, and a pressure-dependent yield criterion. This project aims to address these challenges by proposing a modified plastic damage model, a concrete dilation model, and a new set of concrete hardening/softening rules using the advanced FE program ABAQUS CAE. The FE model's strengths and limitations are evaluated by comparing it with experimental results from this project, as well as other findings from literature, including both experimental and analytical studieshu_HU
dc.formatPDFhu_HU
enhu_HU
3D Finite Element Modelling of FRP Confined Concrete Columnhu_HU
Open accesshu_HU
Óbudai Egyetemhu_HU
Budapesthu_HU
Ybl Miklós Építéstudományi Karhu_HU
Óbudai Egyetemhu_HU
Művészetek - építőművészethu_HU
finite elementhu_HU
fiber-reinforced polymerhu_HU
FE program ABAQUS CAEhu_HU
Tudományos cikkhu_HU
YBL Journal of Built Environmenthu_HU
local.tempfieldCollectionsFolyóiratcikkekhu_HU
Kiadói változathu_HU
8 p.hu_HU
1. sz.hu_HU
9. évf.hu_HU
2024hu_HU
Óbudai Egyetemhu_HU


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