Fatigue and Crack Behavior of Bulk Nanostructured Metal Alloys and Composites

Cavaliere, Pasquale

doi:10.1007/978-3-030-58088-9_5

Fatigue and Fracture of Nanostructured Materials 2020

DOI: 10.1007/978-3-030-58088-9_5

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Fatigue and Crack Behavior of Bulk Nanostructured Metal Alloys and Composites

Pasquale Cavaliere¹

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2024

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Fatigue Crack Propagation Across the Multiple Length Scales of Technically Relevant Metallic Materials

Hohenwarter,

Leitner,

Pippan

2024

Annual Review of Materials Research

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The fundamentals of our understanding of fatigue crack propagation were formed more than 60 years ago by Paul C. Paris. Since then, the run toward new metallic materials and alloys with ever finer-grained microstructures has had a large impact on research. Along with enormous variation of the microstructural length scales (i.e., grain size), the essential parameters for the description of fatigue crack growth, such as the crack propagation rate and plastic zone size, also exhibit an immense change from the subnanometer to the micrometer regime. These enormous variations in the fatigue crack growth behavior's controlling parameters motivate this contribution. This article presents an overview of the effect of grain size, from the millimeter to the nanometer grain-size regime, on fatigue crack propagation of mainly ductile metals and alloys with an attempt to summarize the most important findings and underlying physical phenomena, including with respect to selected materials such as pure iron, nickel, and austenitic and pearlitic steel.

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Fatigue Crack Propagation Across the Multiple Length Scales of Technically Relevant Metallic Materials

Hohenwarter,

Leitner,

Pippan

2024

Annual Review of Materials Research

View full text Add to dashboard Cite

show abstract

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Fatigue and Crack Behavior of Bulk Nanostructured Metal Alloys and Composites

Cited by 1 publication

References 75 publications

Fatigue Crack Propagation Across the Multiple Length Scales of Technically Relevant Metallic Materials

Fatigue Crack Propagation Across the Multiple Length Scales of Technically Relevant Metallic Materials

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