Publication detail

Influence of the bi-material interface on the crack propagation through a thin protective layer

MALÍKOVÁ, L. MIARKA, P. DOUBEK, P. SEITL, S.

Original Title

Influence of the bi-material interface on the crack propagation through a thin protective layer

Type

conference paper

Language

English

Original Abstract

Finite element parametric analysis is performed on a cracked bi-material bar subjected to pure bending in order to investigate the fatigue behaviour of a short crack in the thin protective layer laser-cladded on a steel substrate. Elastic properties of the surface layer are chosen with regard to real combinations of materials when bronze, nickel or cobalt alloys are applied as the surface layers to improve the properties of the basic steel substrate and the influence of their mismatch is analysed. Classical linear elastic fracture mechanics theory is applied, and several conclusions are stated that shall help to select a suitable material of the protective layer. The conclusions can be applied analogically to any other bi-material combination.

Keywords

bi-material; laser cladding; crack; fracture mechanics; fatigue

Authors

MALÍKOVÁ, L.; MIARKA, P.; DOUBEK, P.; SEITL, S.

Released

20. 11. 2021

Publisher

Elsevier

Location

online

ISBN

2452-3216

Periodical

Procedia Structural Integrity

Year of study

33

Number

1

State

Republic of Italy

Pages from

605

Pages to

612

Pages count

8

URL

Full text in the Digital Library

BibTex

@inproceedings{BUT175075,
  author="Lucie {Malíková} and Petr {Miarka} and Pavel {Doubek} and Stanislav {Seitl}",
  title="Influence of the bi-material interface on the crack propagation through a thin protective layer",
  booktitle="Procedia of Structural Integrity",
  year="2021",
  journal="Procedia Structural Integrity",
  volume="33",
  number="1",
  pages="605--612",
  publisher="Elsevier",
  address="online",
  doi="10.1016/j.prostr.2021.10.067",
  issn="2452-3216",
  url="https://www.sciencedirect.com/science/article/pii/S2452321621001621"
}