Steel and Composite Structures

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Uniaxial fatigue, creep and stress-strain responses of steel 30CrNiMo8

  • Brnic, Josip (Department of Engineering Mechanics, University of Rijeka, Faculty of Engineering) ;
  • Brcic, Marino (Department of Engineering Mechanics, University of Rijeka, Faculty of Engineering) ;
  • Krscanski, Sanjin (Department of Engineering Mechanics, University of Rijeka, Faculty of Engineering) ;
  • Lanc, Domagoj (Department of Engineering Mechanics, University of Rijeka, Faculty of Engineering) ;
  • Chen, Sijie (School of Material Science and Engineering, Henan Polytechnic University)
  • Received : 2019.01.11
  • Accepted : 2019.03.22
  • Published : 2019.05.25
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Abstract

The choice of individual material for industrial application is primarily based on knowledge of its behavior in similar applications and similar environmental conditions. Contemporary design implies knowledge of material behavior and knowledge in the area of structural analysis supported by large capacity computers. Bearing this in mind, this paper presents and analyzes the experimental results related to the mechanical properties of the material considered (30CrNiMo8/1.6580/AISI 4340) at different temperatures as well as its creep and fatigue behavior. All experimental tests were carried out as uniaxial tests. The test results related to the mechanical properties are presented in the form of engineering stress-strain diagrams. The results related to the creep behavior of the material are shown in the form of creep curves, while the fatigue of the material is shown in the form of stress - life (S - N) diagram. Based on these experimental results, the values of the following properties are determined: ultimate tensile strength (${\sigma}_{m,20}=696MPa$), yield strength (${\sigma}_{0.2,20}=355.5MPa$), modulus of elasticity ($E_{,20}=217GPa$) and fatigue limit (${\sigma}_{f,20,R=-1}=280.4MPa$). Results related to fatigue tests were obtained at room temperature and stress ratio R = -1.

Keywords

Acknowledgement

Grant : Investigation, analysis and modeling the behavior of structural elements stressed at room and high temperatures, Failure analysis of materials in marine environment

Supported by : University of Rijeka

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