Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process

This paper presents a novel experimental and computational methodology to characterize the fracture behavior of the intermetallic bonding layer particularly for the bimetallic forming applications. The proposed methodology was applied to Al-Sn bearing alloy/mild steel bimetallic composite. Tensile-s...

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Autores principales: Wajdi Rajhi, Badreddine Ayadi, Abdul Khaliq, Abdulaziz Al-Ghamdi, Shaher Al-shammrei, Atef Boulila, Mohamed Aichouni
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Publicado: Elsevier 2021
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spelling oai:doaj.org-article:66702f8e32494e7a9c192177dbb4b9c62021-12-04T04:32:19ZConstitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process0264-127510.1016/j.matdes.2021.110294https://doaj.org/article/66702f8e32494e7a9c192177dbb4b9c62021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S0264127521008492https://doaj.org/toc/0264-1275This paper presents a novel experimental and computational methodology to characterize the fracture behavior of the intermetallic bonding layer particularly for the bimetallic forming applications. The proposed methodology was applied to Al-Sn bearing alloy/mild steel bimetallic composite. Tensile-shear bimetal samples were fabricated to test the metallurgical bonding layer under shear conditions. Based on the macroscopic behavior, the coupled elasto-plasticity and damage constitutive equations for the bond material were formulated and implemented. The used damage model is written within the framework of the thermodynamic of irreversible processes with the concept of internal state variables and the framework of continuum damage mechanics (CDM). The characterization of the shear fracture behavior of the bond has included FE numerical simulation of tensile-shear tests of the bimetallic composite using ABAQUS/Explicit® FE code with the specially developed VUMAT subroutine. Accordingly, a calibration approach has been proposed to identify the fracture parameters of the bond based on the correspondence between the numerically predicted and experimental global shear force–displacement responses. These parameters have been applied to FE model of the U-bending testing of Al-Sn/mild steel bimetallic composite. A qualitative correspondence between numerically predicted results and U-bending experiment of the bimetal conducted under high-speed camera is deemed extremely satisfactory.Wajdi RajhiBadreddine AyadiAbdul KhaliqAbdulaziz Al-GhamdiShaher Al-shammreiAtef BoulilaMohamed AichouniElsevierarticleAl-Sn bearing alloy/mild steel bimetallic compositeIntermetallic bonding layer (IMBL)Tension–shear testingIdentificationFracture behaviorU–bending testMaterials of engineering and construction. Mechanics of materialsTA401-492ENMaterials & Design, Vol 212, Iss , Pp 110294- (2021)
institution DOAJ
collection DOAJ
language EN
topic Al-Sn bearing alloy/mild steel bimetallic composite
Intermetallic bonding layer (IMBL)
Tension–shear testing
Identification
Fracture behavior
U–bending test
Materials of engineering and construction. Mechanics of materials
TA401-492
spellingShingle Al-Sn bearing alloy/mild steel bimetallic composite
Intermetallic bonding layer (IMBL)
Tension–shear testing
Identification
Fracture behavior
U–bending test
Materials of engineering and construction. Mechanics of materials
TA401-492
Wajdi Rajhi
Badreddine Ayadi
Abdul Khaliq
Abdulaziz Al-Ghamdi
Shaher Al-shammrei
Atef Boulila
Mohamed Aichouni
Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
description This paper presents a novel experimental and computational methodology to characterize the fracture behavior of the intermetallic bonding layer particularly for the bimetallic forming applications. The proposed methodology was applied to Al-Sn bearing alloy/mild steel bimetallic composite. Tensile-shear bimetal samples were fabricated to test the metallurgical bonding layer under shear conditions. Based on the macroscopic behavior, the coupled elasto-plasticity and damage constitutive equations for the bond material were formulated and implemented. The used damage model is written within the framework of the thermodynamic of irreversible processes with the concept of internal state variables and the framework of continuum damage mechanics (CDM). The characterization of the shear fracture behavior of the bond has included FE numerical simulation of tensile-shear tests of the bimetallic composite using ABAQUS/Explicit® FE code with the specially developed VUMAT subroutine. Accordingly, a calibration approach has been proposed to identify the fracture parameters of the bond based on the correspondence between the numerically predicted and experimental global shear force–displacement responses. These parameters have been applied to FE model of the U-bending testing of Al-Sn/mild steel bimetallic composite. A qualitative correspondence between numerically predicted results and U-bending experiment of the bimetal conducted under high-speed camera is deemed extremely satisfactory.
format article
author Wajdi Rajhi
Badreddine Ayadi
Abdul Khaliq
Abdulaziz Al-Ghamdi
Shaher Al-shammrei
Atef Boulila
Mohamed Aichouni
author_facet Wajdi Rajhi
Badreddine Ayadi
Abdul Khaliq
Abdulaziz Al-Ghamdi
Shaher Al-shammrei
Atef Boulila
Mohamed Aichouni
author_sort Wajdi Rajhi
title Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
title_short Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
title_full Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
title_fullStr Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
title_full_unstemmed Constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: Modeling and application to bimetal forming process
title_sort constitutive behavior and fracture of intermetallic compound layer in bimetallic composite materials: modeling and application to bimetal forming process
publisher Elsevier
publishDate 2021
url https://doaj.org/article/66702f8e32494e7a9c192177dbb4b9c6
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