A new 3d creep‐fatigue‐elasticity damage interaction diagram based on the total tensile strain energy density model

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Abstract

Fatigue damage, creep damage, and their interactions are the critical factors in degrading the integrity of most high‐temperature engineering structures. A reliable creep‐fatigue damage interaction diagram is a crucial issue for the design and assessment of high‐temperature components used in power plants. In this paper, a new three‐dimensional creep‐fatigue‐elasticity damage interaction diagram was constructed based on a developed life prediction model for both high‐temperature fatigue and creep fatigue. The total tensile strain energy density concept is adopted as a damage parameter for life prediction by using the elastic strain energy density and mean stress concepts. The model was validated by a great deal of data such as P91 steel at 550 °C, Haynes 230 at 850 °C, Alloy 617 at 850 and 950 °C, and Inconel 625 at 815 °C. The estimation values have very high accuracy since nearly all the test data fell into the scatter band of 2.0.

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APA

Wang, Q., Zhang, N., & Wang, X. (2020). A new 3d creep‐fatigue‐elasticity damage interaction diagram based on the total tensile strain energy density model. Metals, 10(2). https://doi.org/10.3390/met10020274

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