Overview of Fatigue Crack Initiation in Carbon and Low-Alloy Steels in Light Water Reactor Environments
暂无分享,去创建一个
[1] A. F. Deardorff,et al. Evaluation of conservatisms and environmental effects in ASME Code, Section III, Class 1 fatigue analysis , 1994 .
[2] Makoto Higuchi,et al. Effects of strain rate change on fatigue life of carbon steel in high-temperature water , 1997 .
[3] E. E. Nelson,et al. Modeling of fatigue crack growth rate for ferritic steels in light water reactor environments , 1995 .
[4] B. F. Langer,et al. Design of Pressure Vessels for Low-Cycle Fatigue , 1962 .
[5] Shunji Sato,et al. Low Cycle Fatigue Behavior of Pressure Vessel Steels in High Temperature Pressurized Water , 1991 .
[6] Omesh K. Chopra,et al. Low-cycle fatigue of piping and pressure vessel steels in LWR environments , 1998 .
[7] O. K. Chopra,et al. Effects of LWR coolant environments on fatigue design curves of carbon and low-alloy steels , 1998 .
[8] K. J. Miller,et al. Short crack fatigue behaviour in a medium carbon steel , 1984 .
[9] Jeffrey M. Keisler,et al. Statistical models for estimating fatigue strain-life behavior of pressure boundary materials in light water reactor environments , 1996 .
[10] Shunji Sato,et al. EFFECT OF DISSOLVED OXYGEN CONCENTRATION ON FATIGUE CRACK GROWTH BEHAVIOR OF A533B STEEL IN HIGH TEMPERATURE WATER , 1993 .
[11] N. Dowling. Crack Growth During Low-Cycle Fatigue of Smooth Axial Specimens , 1977 .
[12] K. Kussmaul,et al. Formation and growth of cracking in feed water pipes and RPV nozzles , 1984 .
[13] A. J. Giannuzzi,et al. Low cycle fatigue evaluation of primary piping materials in a BWR environment , 1977 .
[14] J M Barsom,et al. FATIGUE BEHAVIOR OF PRESSURE VESSEL STEELS , 1974 .
[15] O. K. Chopra,et al. Effects of LWR environments on fatigue life of carbon and low-alloy steels , 1995 .
[16] E. Kiss,et al. Low Cycle Fatigue of Commercial Piping Steels in a BWR Primary Water Environment , 1981 .
[17] S. R. Gosselin,et al. An environmental factor approach to account for reactor water effects in light water reactor pressure vessel and piping fatigue evaluations , 1996 .
[18] T. Ogawa,et al. THE GROWTH OF MICROSTRUCTURALLY SMALL FATIGUE CRACKS IN A FERRITIC‐PEARLITIC STEEL , 1988 .
[19] K. Iida,et al. Effects of Temperature and Dissolved Oxygen Contents on Fatigue Lives of Carbon and Low Alloy Steels in LWR Water Environments , 1997 .
[20] William J. Shack,et al. Evaluation of effects of LWR coolant environments on fatigue life of carbon and low-alloy steels , 1996 .
[21] E. A. Lange,et al. Full-Size Pressure Vessel Testing and Its Application to Design , 1964 .
[22] A. G. Ware,et al. Application of NUREG/CR-5999 interim fatigue curves to selected nuclear power plant components , 1995 .
[23] Kunihiro Iida. A review of fatigue failures in LWR plants in Japan , 1992 .
[24] Ryoji Yuuki,et al. FATIGUE MICROCRACKS IN A LOW CARBON STEEL , 1985 .
[25] G. L. Wire,et al. Initiation of environmentally-assisted cracking in low-alloy steels , 1996 .
[26] Jeffrey M. Keisler,et al. Fatigue strain-life behavior of carbon and low-alloy steels, austenitic stainless steels, and Alloy 600 in LWR environments , 1995 .
[27] G. L. Wire,et al. The Effect of Water Flow Rate Upon the Environmentally Assisted Cracking Response of a Low-Alloy Steel , 1995 .
[28] J. Yu,et al. An analysis of the effects of sulphur content and potential on corrosion fatigue crack growth in reactor pressure vessel steels , 1996 .
[29] Makoto Higuchi,et al. Fatigue strength correction factors for carbon and low-alloy steels in oxygen-containing high-temperature water , 1991 .
[30] J. B. Terrell,et al. Effect of cyclic frequency on the fatigue life of ASME SA-106-B piping steel in PWR environments , 1988 .