Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
787599 | International Journal of Pressure Vessels and Piping | 2008 | 6 Pages |
Abstract
An analysis of a two-phase composite component under time-dependent heat flux is presented. The fundamental thermoelastic solution is obtained in terms of complex potentials via the technique of the analytical continuation in order to satisfy the continuous conditions on the interface. The hereditary integral associated with the Kelvin-Maxwell model is applied to simulate the thermoviscoelastic properties while a thermorheologically simple material is considered. Based on the correspondence principle, the Laplace transformed thermoviscoelastic solution is directly determined from the corresponding thermoelastic one. The real-time solution can then be solved numerically by taking inverse Laplace transform. Some typical examples of interface stresses induced by various time-dependent heat flux are discussed. Finally, the solution of a crack embedded in the bi-material subjected to a uniform heat flux is also discussed.
Related Topics
Physical Sciences and Engineering
Engineering
Mechanical Engineering
Authors
Rwei-Ching Chang, Jhy-Jen Shyr, Jien-Jong Chen,