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Abstract
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This work deals with the formulation and implementation of an energy-momentum
conserving algorithm for conducting the nonlinear transient analysis of structures,
within the framework of stress-based hybrid elements. Hybrid elements, which are
based on a two-field variational formulation, are much less susceptible to locking than
conventional displacement-based elements within the static framework. We show that
this advantage carries over to the transient case, so that not only are the
solutions obtained more accurate, but they are obtained in fewer iterations. We
demonstrate the eficacy of the algorithm on a wide range of problems such as
ones involving dynamic buckling, complicated three-dimensional motions, et
cetera.
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Publication
Received: 23 November 2008
Accepted: 5 February 2009
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