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Experimental validation of a computationally efficient beam element for combined finite–discrete element modelling of structures in distress

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Abstract

 The combined finite/discrete element method is adopted to model the pre-failure and post failure transient dynamics of reinforced concrete structures. For this purpose a novel beam element is introduced in order to increase CPU and RAM efficiency. In this paper the accuracy and reliability of this element is assessed when used in dynamic loading conditions. Experiments, which have already been undertaken at the Swiss Federal Institute of Technology, are used for comparison and validation. The results indicate that the element introduced is capable of accurately modelling inertia and contact effects in pre and post failure dynamics, up to collapse.

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Received: 1 August 2002 / Accepted: 9 January 2002

A debt of gratitude is owed to Prof. Bachman and Mrs. N. Ammann for their kind and sincerely appreciated assistance in the provision of the reports from the Swiss Federal Institute of Technology. The assistance provided by Dr. W. Ammann and Dr. S. Heubbe-Walker in the translation of the reports is also gratefully acknowledged.

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Bangash, T., Munjiza, A. Experimental validation of a computationally efficient beam element for combined finite–discrete element modelling of structures in distress. Computational Mechanics 30, 366–373 (2003). https://doi.org/10.1007/s00466-003-0412-9

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  • DOI: https://doi.org/10.1007/s00466-003-0412-9

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