Dwell sensitivity fatigue behavior of high temperature materials

High Temperature Materials and Processes

Volumn 16, Issue 2, 1997, Pages 87-96

  Goswami, T ^a   Halford, G R ^b   Hoeppner, D W ^a  

^a Wichita State University   (United States)

^b NASA GLENN RESEARCH CENTER   (United States)

Author keywords

Cycles to failure; Dwell sensitivity; Isothermal and thermo mechanical fatigue; Normalized cycle ratio; Plastic and total strain ranges

Indexed keywords

HIGH TEMPERATURE PROPERTIES; NICKEL; NICKEL ALLOYS; PLASTICITY; STAINLESS STEEL; STRAIN RATE; SUPERALLOYS; TANTALUM ALLOYS;

DWELL SENSITIVITY; HIGH TEMPERATURE MATERIALS; NICKEL 201; NICKEL BASED SUPERALLOY PWA 1480; NORMALIZED CYCLE RATIO; STAINLESS STEEL 304; STAINLESS STEEL 304L; TANTALUM ALLOYS T111; TANTALUM ASTAR 811C;

FATIGUE OF MATERIALS;

EID: 0031121973     PISSN: 03346455     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (15)

1. G.R. Halford, L.R. Johnson and J.A. Brown. "High temperature LCF of Ni-201 and 304L SS", in: Advanced Earth-to-Orbit Propulsion Technohgy, R.J. Richmond and S.T. Wu (eds.), NASA Conference Publication 2437, 1986; pp. 172-204.
2. J.B. Conway, R.H. Stentz and J.T. Berling, Fatigue, Tensile, and Relaxation Behavior of Stainless Steels, Technical Information Center, U.S. Atomic Energy Commission, 1975; pp. 33-81.
3. K.D. Sheffler and G.S. Doble. "Influence of creep damage on the low cycle thermal-mechanical fatigue behavior of two tantalum base alloys", NASA-CR-121001, 1972.
4. G.A. Swanson, I. Linask, D.M. Nissley, P.P. Norris, T.G. Meyer and K.P. Walker. "Life prediction and constitutive models for engine hot section anisotropic materials program", NASA-CR-179594, 1987.
5. A.C. Gangadharan, D.H. Pai and I. Berman. "Non-linear creep
6. B.A. Cowles, D.L. Sims and J.R. Warren, NASA CR 159409, 1987.
7. Z. Song and D.W. Hoeppner, Dwell time effects on the fatigue behavior of titanium alloys, International Journal of Fatigue, 10(4), 211-218 (1989).
8. G.F. Harrison, P.H. Tranter, M.R. Winstone and W.J. Evans, in: Proc. of Conference on Designing with Titanium, Bristol, Institute of Metals, 1986; pp. 198-204.
9. W.J. Evans and M.R. Bach, Dwell-sensitive fatigue under biaxial loads in the near-alpha titanium alloy IMI 685, International Journal of Fatigue, 16, 443-452 (1994).
10. T. Goswami, Dwell sensitivity: Part I, behavior and modeling, Mechanics of Materials, 22, 105-130 (1995).
11. J.E. Hack and G.R. Leverant, Metallurgical Transactions A, 13A, 1729 (1982).
12. W.J. Plumbridge, R.H. Priest and E.G. Ellison, Damage formation during fatigue-creep interactions, in: Proc. of Third International Conference on Mechanical Behaviour of Materials, Cambridge, [[_]], p 129.
13. K.D. Challenger, A.K. Miller and C.R. Brinkman, An explanation for the effects of hold periods on the elevated temperature fatigue behavior of 2.25Cr-Mo steel. Trans. ASME, J. Eng. Materials and Technology, 103, 7-14 (1981).
14. T. Goswami, G.R. Halford and D.W. Hoeppner, Behavior and modeling of dwell effects in high temperature materials, to be submitted to International Journal of Fatigue.
15. G.R. Halford and S.S. Manson, Application of a method of estiamting high temperature low cycle fatigue behavior of materials. Trans. ASME, 61, 94-102 (1968).