Experimental and Numerical Investigation of Hydrogen Embrittlement Effect on Microdamage Evolution of Advanced High-Strength Dual-Phase Steel

The effect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical approaches. In the experimental section, the tensile test was performed under different testing conditions, i.e., vacuum, in-situ hydrogen plasma c...

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Vydané v:	Metals and materials international Ročník 27; číslo 7; s. 2276 - 2291
Hlavní autori:	Asadipoor, M., Kadkhodapour, J., Pourkamali Anaraki, A., Sharifi, S. M. H., Darabi, A. Ch, Barnoush, A.
Médium:	Journal Article
Jazyk:	English
Vydavateľské údaje:	Seoul The Korean Institute of Metals and Materials 01.07.2021 Springer Nature B.V 대한금속·재료학회
Predmet:	Characterization and Evaluation of Materials Chemistry and Materials Science Damage assessment Dimpling Dual phase steels Ductile fracture Elongation Engineering Thermodynamics Evolution Failure mechanisms Finite element method Fracture surfaces Heat and Mass Transfer High strength steels Hydrogen Hydrogen charging Hydrogen embrittlement Hydrogen plasma Machines Magnetic Materials Magnetism Manufacturing Materials Science Mathematical models Mechanical properties Metallic Materials Processes Solid Mechanics Tensile tests Three dimensional models Ultimate tensile strength Yield stress 재료공학 Ex-situ electrochemical hydrogen charging Damage evolution GTN damage model In-situ hydrogen plasma charging Hydrogen embrittlement
ISSN:	1598-9623, 2005-4149
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Abstract	The effect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical approaches. In the experimental section, the tensile test was performed under different testing conditions, i.e., vacuum, in-situ hydrogen plasma charging (IHPC), ex-situ electrochemical hydrogen charging (EEHC), and ex-situ + in-situ hydrogen charging (EIHC) conditions. The post-mortem analysis was conducted on the fracture surface of specimens to illuminate the impact of hydrogen on the microstructure and mechanical properties. The results showed that under all of hydrogen charging conditions, the yield stress and ultimate tensile strength were slightly sensitive to hydrogen, while tensile elongation was profoundly affected. While only ductile dimple features were observed on the fracture surfaces in vacuum condition, the results indicated a simultaneous action of the hydrogen-enhanced decohesion (HEDE) and hydrogen enhanced localized plasticity (HELP) mechanisms of HE, depending on the local concentration of hydrogen under the IHPC and EEHC conditions. At the EIHC condition, the HEDE model was the dominant failure mechanism, which was manifested by the HE-induced large crack. In the numerical approach, a finite-element analysis was developed to include the Gorson–Tvergaard–Needleman (GTN) damage model in Abaqus™ software. To numerically describe the damage mechanism, the GTN damage model was utilized in the 3D finite-element model. After calibration of damage parameters, the predicted damage mechanisms for two testing conditions, i.e., vacuum and EIHC, were compared with experimental results. Graphic Abstract
AbstractList	The efect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical approaches. In the experimental section, the tensile test was performed under diferent testing conditions, i.e., vacuum, in-situ hydrogen plasma charging (IHPC), ex-situ electrochemical hydrogen charging(EEHC), and ex-situ+in-situ hydrogen charging (EIHC) conditions. The post-mortem analysis was conducted on the fracturesurface of specimens to illuminate the impact of hydrogen on the microstructure and mechanical properties. The resultsshowed that under all of hydrogen charging conditions, the yield stress and ultimate tensile strength were slightly sensitive tohydrogen, while tensile elongation was profoundly afected. While only ductile dimple features were observed on the fracturesurfaces in vacuum condition, the results indicated a simultaneous action of the hydrogen-enhanced decohesion (HEDE)and hydrogen enhanced localized plasticity (HELP) mechanisms of HE, depending on the local concentration of hydrogenunder the IHPC and EEHC conditions. At the EIHC condition, the HEDE model was the dominant failure mechanism,which was manifested by the HE-induced large crack. In the numerical approach, a fnite-element analysis was developed toinclude the Gorson–Tvergaard–Needleman (GTN) damage model in Abaqus™ software. To numerically describe the damagemechanism, the GTN damage model was utilized in the 3D fnite-element model. After calibration of damage parameters, thepredicted damage mechanisms for two testing conditions, i.e., vacuum and EIHC, were compared with experimental results. KCI Citation Count: 0 The effect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical approaches. In the experimental section, the tensile test was performed under different testing conditions, i.e., vacuum, in-situ hydrogen plasma charging (IHPC), ex-situ electrochemical hydrogen charging (EEHC), and ex-situ + in-situ hydrogen charging (EIHC) conditions. The post-mortem analysis was conducted on the fracture surface of specimens to illuminate the impact of hydrogen on the microstructure and mechanical properties. The results showed that under all of hydrogen charging conditions, the yield stress and ultimate tensile strength were slightly sensitive to hydrogen, while tensile elongation was profoundly affected. While only ductile dimple features were observed on the fracture surfaces in vacuum condition, the results indicated a simultaneous action of the hydrogen-enhanced decohesion (HEDE) and hydrogen enhanced localized plasticity (HELP) mechanisms of HE, depending on the local concentration of hydrogen under the IHPC and EEHC conditions. At the EIHC condition, the HEDE model was the dominant failure mechanism, which was manifested by the HE-induced large crack. In the numerical approach, a finite-element analysis was developed to include the Gorson–Tvergaard–Needleman (GTN) damage model in Abaqus™ software. To numerically describe the damage mechanism, the GTN damage model was utilized in the 3D finite-element model. After calibration of damage parameters, the predicted damage mechanisms for two testing conditions, i.e., vacuum and EIHC, were compared with experimental results.Graphic Abstract The effect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical approaches. In the experimental section, the tensile test was performed under different testing conditions, i.e., vacuum, in-situ hydrogen plasma charging (IHPC), ex-situ electrochemical hydrogen charging (EEHC), and ex-situ + in-situ hydrogen charging (EIHC) conditions. The post-mortem analysis was conducted on the fracture surface of specimens to illuminate the impact of hydrogen on the microstructure and mechanical properties. The results showed that under all of hydrogen charging conditions, the yield stress and ultimate tensile strength were slightly sensitive to hydrogen, while tensile elongation was profoundly affected. While only ductile dimple features were observed on the fracture surfaces in vacuum condition, the results indicated a simultaneous action of the hydrogen-enhanced decohesion (HEDE) and hydrogen enhanced localized plasticity (HELP) mechanisms of HE, depending on the local concentration of hydrogen under the IHPC and EEHC conditions. At the EIHC condition, the HEDE model was the dominant failure mechanism, which was manifested by the HE-induced large crack. In the numerical approach, a finite-element analysis was developed to include the Gorson–Tvergaard–Needleman (GTN) damage model in Abaqus™ software. To numerically describe the damage mechanism, the GTN damage model was utilized in the 3D finite-element model. After calibration of damage parameters, the predicted damage mechanisms for two testing conditions, i.e., vacuum and EIHC, were compared with experimental results. Graphic Abstract
Author	Sharifi, S. M. H. Barnoush, A. Pourkamali Anaraki, A. Kadkhodapour, J. Asadipoor, M. Darabi, A. Ch
Author_xml	– sequence: 1 givenname: M. orcidid: 0000-0002-3055-7710 surname: Asadipoor fullname: Asadipoor, M. organization: Department of Mechanical and Industrial Engineering, Norwegian University of Science and Technology, Department of Mechanical Engineering, Shahid Rajaee Teacher Training University – sequence: 2 givenname: J. orcidid: 0000-0002-5106-2098 surname: Kadkhodapour fullname: Kadkhodapour, J. organization: Department of Mechanical Engineering, Shahid Rajaee Teacher Training University – sequence: 3 givenname: A. orcidid: 0000-0002-6735-5055 surname: Pourkamali Anaraki fullname: Pourkamali Anaraki, A. email: ali_pourkamali@sru.ac.ir organization: Department of Mechanical Engineering, Shahid Rajaee Teacher Training University – sequence: 4 givenname: S. M. H. surname: Sharifi fullname: Sharifi, S. M. H. organization: Department of Mechanical Engineering, Petroleum University of Technology – sequence: 5 givenname: A. Ch orcidid: 0000-0001-9460-7572 surname: Darabi fullname: Darabi, A. Ch organization: Department of Mechanical Engineering, Shahid Rajaee Teacher Training University, Materials Science and Strength of Materials, Institute for Materials Testing, University of Stuttgart – sequence: 6 givenname: A. orcidid: 0000-0002-5584-5516 surname: Barnoush fullname: Barnoush, A. organization: Department of Mechanical and Industrial Engineering, Norwegian University of Science and Technology
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Snippet	The effect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical... The efect of hydrogen on the microdamage evolution of 1200M advanced high-strength steel was evaluated by the combination of experimental and numerical...
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SubjectTerms	Characterization and Evaluation of Materials Chemistry and Materials Science Damage assessment Dimpling Dual phase steels Ductile fracture Elongation Engineering Thermodynamics Evolution Failure mechanisms Finite element method Fracture surfaces Heat and Mass Transfer High strength steels Hydrogen Hydrogen charging Hydrogen embrittlement Hydrogen plasma Machines Magnetic Materials Magnetism Manufacturing Materials Science Mathematical models Mechanical properties Metallic Materials Processes Solid Mechanics Tensile tests Three dimensional models Ultimate tensile strength Yield stress 재료공학
Title	Experimental and Numerical Investigation of Hydrogen Embrittlement Effect on Microdamage Evolution of Advanced High-Strength Dual-Phase Steel
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