PSI - Issue 47

Jan Patrick Sippel et al. / Procedia Structural Integrity 47 (2023) 608–616 Author name / Structural Integrity Procedia 00 (2019) 000 – 000

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Acknowledgements This research was funded by the Deutsche Forschungsgemeinschaft (DFG, German Research Foundation) – project number 408139037. References Bathias, C., 2001. Designing Components Against Gigacycle Fatigue. Proceedings of the International Conference on Fatigue in the Very High Cycle Regime, Vienna, 97-109. Bayraktar, E., Garcias, I., Bathias, C., 2006. Failure Mechanisms of Automotive Metallic Alloys in the Very High Cycle Fatigue Range. International Journal of Fatigue 11, 1590-1602. Beswick, J.M., 1989. Fracture and Fatigue Crack Propagation Properties of Hardened 52100 Steel. Metallurgical and Materials Transaction A 20, 1961-1973. Christ, H.J., 2018. Preface, in “Fatigue of Materials at Very High Numbers of Loading Cycles”. In: Christ, H.J., R. (Ed.). Springer Fachmedien, Wiesbaden, V-VI. Furuya, Y., 2010. Size Effects in Gigacycle Fatigue of High-Strength Steel under Ultrasonic Fatigue Testing. Procedia Engineering 1, 485-490. Heinz, S., Balle, F., Wagner, G., Eifler, D., 2013. Analysis of Fatigue Properties and Failure Mechanisms of Ti6Al4V in the Very High Cycle Fatigue Regime using Ultrasonic Technology and 3D Laser Scanning Vibrometry. Ultrasonics 8,1433-1440. Hong, Y., Lei, Z., Sun, C., Zhao, A., 2014. Propensities of Crack Interior Initiation and Early Growth for Very-High-Cycle Fatigue of High Strength Steels. International Journal of Fatigue 58,144-151. Khayatzadeh, A., Sippel. J.P., Guth, S., Lang, K.-H., Kerscher, E., 2022. Influence of a Thermo-Mechanical Treatment on the Fatigue Lifetime and Crack Initiation Behavior of a Quenched and Tempered Steel. Metals 12, 204. Mayer, H., Papakyriacou, M., Rippan, R., Stanzl-Tschegg, S., 2001. Influence of Loading Frequency on the High Cycle Fatigue Properties of AlZnMgCu1.5 Aluminium Alloy. Material Science and Engineering: A 314,48-54. Murakami, Y., Kodama, S., Konuma, S., 1989. Quantitative Evaluation of Effects of Non-Metallic Inclusions on Fatigue Strength of High Strength Steels. I: Basic Fatigue Mechanism and Evaluation of Correlation between the Fatigue Fracture Stress and the Size and Location of Non Metallic Inclusions. International Journal of Fatigue 11, 291-298. Murakami, Y., Nomoto, T., Ueda, T., 2000. On the Mechanism of Fatigue Failure in the Superlong Life Regime (N > 107 cycles). Part II: a Fractographic Investigation. Fatigue and Fracture of Engineering Materials and Structures 23,903-910. Shanyavskiy, A.A., 2013. Mechanisms and Modeling of Subsurface Fatigue Cracking in Metals. Engineering Fracture Mechanics 110, 350-363. Sippel, J.P., Kerscher, E., 2020. Properties of the Fine Granular Area and Postulated Models for its Formation during Very High Cycle Fatigue – A Review. Applied Sciences 23, 8475. Spriestersbach, D., Grad, P., Brodyanski, A., Lösch, J., Kopnarski, M., Kerscher, E.,2018. Very High Cycle Fatigue Crack Initiation: Investigation of Fatigue M echanisms and Threshold Values for 100Cr6, in “Fatigue of Materials at Very High Numbers of Loading Cycles”. In: Christ, H.J., R. (Ed.). Springer Fachmedien, Wiesbaden, 167-210. Wahab, A., Mokthar, E., Mazen, A., 2014. Effect of Heat Treatment on the Fracture Toughness of AISI 4140 Steel. Minia Journal of Engineering and Technology 1,1-6.

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