## Abstract

The three-dimensional Navier's equations are solved analytically for the case of a cylindrical inclusion of radius "a" which is embedded in a plate of arbitrary thickness 2 h. Both the plate and the inclusion are assumed to be of homogeneous and isotropic materials with different material properties. Perfect bonding is assumed to prevail at the interface. As to loading, a uniform tension is applied in the plane of the plate at points remote from the inclusion. The analysis shows all stresses including the octahedral shear stress to be sensitive to the radius to half thickness ratio (a/h) as well as the material properties. In the limit, as (μ_{2}/μ_{1})→ 0 and as μ_{2}μ_{1}→ 1 (where μ_{2} and μ_{1} are, respectively, the shear moduli of the inclusion and of the plate) the results for a cylindrical hole and a continuous plate are recovered. Similarly as (a/h) → ∞ (very thin plate) the plane stress solution is recovered. Moreover, for (μ_{2}/μ_{1})>1.0 the presence of a stress singularity near the point of intersection of the inclusion and the free surface of the plate is confirmed by the numerical results.

Original language | English (US) |
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Pages (from-to) | 129-146 |

Number of pages | 18 |

Journal | International Journal of Fracture |

Volume | 39 |

Issue number | 1-3 |

DOIs | |

State | Published - Mar 1989 |

## ASJC Scopus subject areas

- Computational Mechanics
- Modeling and Simulation
- Mechanics of Materials