Assessment of the factors influencing micropitting in rolling/sliding contacts

By A. Oila, S. Bull. 2005

148 citations recorded by the source corpus.

Subfields: Materials Chemistry, Mechanical Engineering, Mechanics of Materials

View Paper: https://www.semanticscholar.org/paper/116d232e2ecde7d9bd1a583632156ce80c7dc875

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Materials Chemistry

1. G. Morales-Espejel
2. V. Brizmer
3. P. Rycerz
4. A. Kadiric
5. H. Bhadeshia

In Mechanical Engineering

1. G. Morales-Espejel
2. P. Rycerz
3. A. Kadiric
4. V. Brizmer
5. A. Olver
6. H. Bhadeshia
7. Dean Deng
8. F. G. Caballero

In Mechanics of Materials

1. G. Morales-Espejel
2. P. Rycerz
3. A. Kadiric
4. V. Brizmer
5. A. Olver
6. H. Bhadeshia
7. Karan S. Derekar

Citations in the corpus

• Propagation of surface initiated rolling contact fatigue cracks in bearing steel (2017, background): “Cracks are found to propagate along the boundary between the work-hardened plastically deformed regions and the softer matrix due to the developing residual stresses [45,46].”
• Steels for bearings (2012, background): “Work on carburised gear steels indicates that the key factors other than material type, influencing the development of micropits contact experiments, are surface finish, lubricant, load, temperature, speed and slide–to–roll ratio; the last two have the greatest effect on pit propagation whereas the ”
• Micropitting Modelling in Rolling–Sliding Contacts: Application to Rolling Bearings (2011, background): “This phenomenon has been the subject of many recent experimental and numerical studies (Oila and Bull ( 7 ) ; Brandao, et al.”