An extension of the strip yield model towards the calculation of crack opening and closure under non-isothermal loading conditions is the main prerequisite for its applicability in thermal fatigue analy- ses. The aim of this contribution is to implement a new proposal to this feature. Here, the yield stress is allowed to be location and time dependent. With this extension, the cyclic crack tip opening displacements, DCTOD, can be calculated. They are assumed to be related uniquely to the crack growth rate. The corresponding empirical relationship is derived from conventional isothermal fatigue crack growth behaviour of steels. Its integration leads to fatigue crack growth curves and lives
Fatigue of mechanical components corresponds to the fatigue growth of very small fatigue cracks up t...
The “plasticity-induced crack closure” phenomenon is the leading mechanism which controls the main e...
The fatigue of mechanical components can be explained by the growth of very small fatigue cracks, w...
An extension of the strip yield model towards the calculation of crack opening and closure under non...
The strip-yield model is a common tool to calculate the cyclic crack tip opening displacement and th...
Plasticity induced crack closure is a leading mechanism to control main aspects of fatigue crack gr...
Repeated exposure to rapid temperature transients causes gradual damage in material. This is called ...
In this paper fatigue crack closure under in-phase and out-of-phase thermomechanical fatigue (TMF) l...
The well-known load frequency effect on creep-fatigue crack growth is explained by the interactions ...
‘‘Plasticity-induced crack closure’’ phenomenon is the leading mechanism of different effects (R-rat...
In this paper, a crack opening stress equation for in-phase and out-of-phase thermomechanical fatigu...
The paper presents results from fatigue crack growth tests for two nickel-base superalloys MAR-M247 ...
A combined experimental and theoretical study of fatigue crack closure behaviour, in two structural ...
Copyright © 2009 Elsevier Ltd All rights reserved.Experiments have shown that the application of an ...
Fatigue of mechanical components corresponds to the fatigue growth of very small fatigue cracks up t...
The “plasticity-induced crack closure” phenomenon is the leading mechanism which controls the main e...
The fatigue of mechanical components can be explained by the growth of very small fatigue cracks, w...
An extension of the strip yield model towards the calculation of crack opening and closure under non...
The strip-yield model is a common tool to calculate the cyclic crack tip opening displacement and th...
Plasticity induced crack closure is a leading mechanism to control main aspects of fatigue crack gr...
Repeated exposure to rapid temperature transients causes gradual damage in material. This is called ...
In this paper fatigue crack closure under in-phase and out-of-phase thermomechanical fatigue (TMF) l...
The well-known load frequency effect on creep-fatigue crack growth is explained by the interactions ...
‘‘Plasticity-induced crack closure’’ phenomenon is the leading mechanism of different effects (R-rat...
In this paper, a crack opening stress equation for in-phase and out-of-phase thermomechanical fatigu...
The paper presents results from fatigue crack growth tests for two nickel-base superalloys MAR-M247 ...
A combined experimental and theoretical study of fatigue crack closure behaviour, in two structural ...
Copyright © 2009 Elsevier Ltd All rights reserved.Experiments have shown that the application of an ...
Fatigue of mechanical components corresponds to the fatigue growth of very small fatigue cracks up t...
The “plasticity-induced crack closure” phenomenon is the leading mechanism which controls the main e...
The fatigue of mechanical components can be explained by the growth of very small fatigue cracks, w...