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      The Effect of Concrete Footing Shape in Differential Settlement: A Seismic Design

      1 , 1 , 1
      Advances in Civil Engineering
      Hindawi Limited

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          Abstract

          This paper presents the numerical results of concrete footing-soil foundation seismic interaction mechanism. The concrete footing has been made with two different shapes, but with the equal volume of concrete material. The concrete footing-soil foundation has been analyzed using nonlinear finite elements, with the fixed-base state. The simulated near-fault ground motions have been applied to the concrete footing-soil foundation. The problem has been formulated based on the settlement controlled analysis. The local geotechnical conditions of all configurations have been analyzed. The numerical analysis results indicate that the shape of a concrete footing alters seismic response, revises inertial interaction, enhances damping ratio, improves load carry capacity, modifies cyclic differential settlement, revises failure patterns, minimizes nonlinear deformation, and changes cyclic strain energy dissipation. The novelty of this research work is the strain energy has more been dissipated with artistic concrete footing design.

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          Most cited references25

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          Finite element analysis of punching shear of concrete slabs using damaged plasticity model in ABAQUS

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            An experimental and numerical study of reinforced ultra-high performance concrete slabs under blast loads

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              Numerical Investigation of Load-Carrying Capacity of GFRP-Reinforced Rectangular Concrete Members Using CDP Model in ABAQUS

              The present work demonstrates the nonlinear finite element analysis (NLFEA) of 13 concentrically and eccentrically loaded short rectangular concrete column specimens reinforced with GFRP and conventional steel bars. GFRP bars are lightweight having the high tensile strength and high corrosion resistance. An NLFEA model for the rectangular concrete specimens was developed using the commercial software ABAQUS Standard and calibrated for different materials and geometric parameters based on the previous experimental test results of the studied specimen. The behavior of reinforced concrete was modelled using the concrete damaged plasticity (CDP) model, the behavior of steel bars was simulated as a bilinear elastoplastic material, and the GFRP bars were considered as a linear elastic material. After the calibration of CDP parameters, the control sample was used for the further numerical parametric analysis to investigate the effect of critical parameters, i.e., the area of concrete (A c), the compressive strength of concrete ( f c ′ ), and the ratio of longitudinal reinforcement ( ρ l ) and transverse reinforcement ( ρ t ) on the load-carrying capacity of columns. The results show that the selected NLFEA model can simulate the behavior of columns accurately and there was good agreement of numerical results obtained from ABAQUS Standard with the experimental results.
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                Author and article information

                Journal
                Advances in Civil Engineering
                Advances in Civil Engineering
                Hindawi Limited
                1687-8086
                1687-8094
                April 10 2019
                April 10 2019
                : 2019
                : 1-8
                Affiliations
                [1 ]Faculty of Architecture and Civil Engineering, Huaiyin Institute of Technology, Huai’an, China
                Article
                10.1155/2019/9747896
                6fe2f94a-28ed-4cc4-812b-59c189afae4f
                © 2019

                http://creativecommons.org/licenses/by/4.0/

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