Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13

The article deals with the analysis of the mechanical behavior at different temperatures, uniaxial creep and uniaxial fatigue of martensitic steel X46Cr13 (1.4034, AISI 420). For the purpose of considering the aforementioned mechanical behavior, as well as determining the appropriate resistance to c...

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Main Authors: Josip Brnic, Sanjin Krscanski, Domagoj Lanc, Marino Brcic, Goran Turkalj, Marko Canadija, Jitai Niu
Format: Article
Language:English
Published: MDPI AG 2017-04-01
Series:Materials
Subjects:
Online Access:http://www.mdpi.com/1996-1944/10/4/388
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author Josip Brnic
Sanjin Krscanski
Domagoj Lanc
Marino Brcic
Goran Turkalj
Marko Canadija
Jitai Niu
author_facet Josip Brnic
Sanjin Krscanski
Domagoj Lanc
Marino Brcic
Goran Turkalj
Marko Canadija
Jitai Niu
author_sort Josip Brnic
collection DOAJ
description The article deals with the analysis of the mechanical behavior at different temperatures, uniaxial creep and uniaxial fatigue of martensitic steel X46Cr13 (1.4034, AISI 420). For the purpose of considering the aforementioned mechanical behavior, as well as determining the appropriate resistance to creep and fatigue strength levels, numerous uniaxial tests were carried out. Tests related to mechanical properties performed at different temperatures are presented in the form of engineering stress-strain diagrams. Short-time creep tests performed at different temperatures and different stress levels are presented in the form of creep curves. Fatigue tests carried out at stress ratios R = 0.25 and R = − 1 are shown in the form of S–N (fatigue) diagrams. The finite fatigue regime for each of the mentioned stress ratios is modeled by an inclined log line, while the infinite fatigue regime is modeled by a horizontal line, which represents the fatigue limit of the material and previously was calculated by the modified staircase method. Finally, the fracture toughness has been calculated based on the Charpy V-notch impact energy.
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spelling doaj.art-80231bccddc74b9aa209f3502dae42e12022-12-22T02:52:40ZengMDPI AGMaterials1996-19442017-04-0110438810.3390/ma10040388ma10040388Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13Josip Brnic0Sanjin Krscanski1Domagoj Lanc2Marino Brcic3Goran Turkalj4Marko Canadija5Jitai Niu6Department of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaDepartment of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaDepartment of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaDepartment of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaDepartment of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaDepartment of Engineering Mechanics, Faculty of Engineering, University of Rijeka, Vukovarska 51, 51000 Rijeka, CroatiaSchool of Materials Science and Engineering, Harbin Institute of Technology, XiDaZhi Street 92#, Nangang District, Harbin 150001, ChinaThe article deals with the analysis of the mechanical behavior at different temperatures, uniaxial creep and uniaxial fatigue of martensitic steel X46Cr13 (1.4034, AISI 420). For the purpose of considering the aforementioned mechanical behavior, as well as determining the appropriate resistance to creep and fatigue strength levels, numerous uniaxial tests were carried out. Tests related to mechanical properties performed at different temperatures are presented in the form of engineering stress-strain diagrams. Short-time creep tests performed at different temperatures and different stress levels are presented in the form of creep curves. Fatigue tests carried out at stress ratios R = 0.25 and R = − 1 are shown in the form of S–N (fatigue) diagrams. The finite fatigue regime for each of the mentioned stress ratios is modeled by an inclined log line, while the infinite fatigue regime is modeled by a horizontal line, which represents the fatigue limit of the material and previously was calculated by the modified staircase method. Finally, the fracture toughness has been calculated based on the Charpy V-notch impact energy.http://www.mdpi.com/1996-1944/10/4/388analysismechanical propertiesshort-time creepfatigueX46Cr13 steel
spellingShingle Josip Brnic
Sanjin Krscanski
Domagoj Lanc
Marino Brcic
Goran Turkalj
Marko Canadija
Jitai Niu
Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
Materials
analysis
mechanical properties
short-time creep
fatigue
X46Cr13 steel
title Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
title_full Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
title_fullStr Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
title_full_unstemmed Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
title_short Analysis of the Mechanical Behavior, Creep Resistance and Uniaxial Fatigue Strength of Martensitic Steel X46Cr13
title_sort analysis of the mechanical behavior creep resistance and uniaxial fatigue strength of martensitic steel x46cr13
topic analysis
mechanical properties
short-time creep
fatigue
X46Cr13 steel
url http://www.mdpi.com/1996-1944/10/4/388
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