Reliability analysis techniques have matured in recent years, but they are not yet widely accepted by the deterministic community. One of the major objections is that the available techniques are not adequate to evaluate the risk of real complex structures. To overcome this concern, a new, efficient and accurate hybrid finite element-based reliability method is presented to evaluate the reliability of real nonlinear structures excited by short duration dynamic loadings applied in the time domain, including earthquake loading. It intelligently integrates the response surface method, the finite element method, the first-order reliability method, and an iterative linear interpolation scheme. The method explicitly considers nonlinearities due to geometry and material characteristics, boundary or support conditions, connection conditions and the uncertainty in them. Time domain reliability of any structures that can be represented by finite elements can be evaluated with this approach, thus removing one of the major concerns of the deterministic community. The applicability of the method is demonstrated with the help of several examples.
|Original language||English (US)|
|Title of host publication||Recent Developments in Reliability-Based Civil Engineering|
|Publisher||World Scientific Publishing Co.|
|Number of pages||2|
|ISBN (Print)||9789812707222, 9812564195, 9789812564191|
|State||Published - Jan 1 2006|
ASJC Scopus subject areas