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Mesoscale partitioned analysis of brick-masonry arches
Highlights The response of brick-masonry arches is investigated using an accurate 3D mesoscale description. The mesoscale strategy is combined with a domain partitioning approach allowing for computational efficiency. The accuracy of the modelling strategy is shown in numerical examples on realistic square and skew arches.
Abstract Past research has shown that masonry mesoscale descriptions, where bricks and mortar joints are modelled separately, offer a realistic representation of the mechanical behaviour of masonry components. In the case of masonry arches, thus far the use of this approach has been restricted to 2D analysis mainly because of the significant computational effort required. However conventional 2D models may lead to a crude representation of the response of masonry arches which is inherently three-dimensional, and they cannot properly capture the actual response of masonry arches subjected to eccentric loading or the behaviour of arches with complex geometry (e.g. skew arches). In this paper, the nonlinear response of brick-masonry arches up to collapse is investigated using an accurate 3D mesoscale description utilising solid elements for representing brick units and 2D nonlinear interface elements for describing mortar joints and brick-mortar interfaces. The masonry mesoscale strategy is then combined with a domain partitioning approach allowing for parallel computation which guarantees computational efficiency. The accuracy and potential of the proposed numerical description are shown in numerical examples, including comparisons against experimental results on realistic square and skew brick-masonry arches.
Mesoscale partitioned analysis of brick-masonry arches
Highlights The response of brick-masonry arches is investigated using an accurate 3D mesoscale description. The mesoscale strategy is combined with a domain partitioning approach allowing for computational efficiency. The accuracy of the modelling strategy is shown in numerical examples on realistic square and skew arches.
Abstract Past research has shown that masonry mesoscale descriptions, where bricks and mortar joints are modelled separately, offer a realistic representation of the mechanical behaviour of masonry components. In the case of masonry arches, thus far the use of this approach has been restricted to 2D analysis mainly because of the significant computational effort required. However conventional 2D models may lead to a crude representation of the response of masonry arches which is inherently three-dimensional, and they cannot properly capture the actual response of masonry arches subjected to eccentric loading or the behaviour of arches with complex geometry (e.g. skew arches). In this paper, the nonlinear response of brick-masonry arches up to collapse is investigated using an accurate 3D mesoscale description utilising solid elements for representing brick units and 2D nonlinear interface elements for describing mortar joints and brick-mortar interfaces. The masonry mesoscale strategy is then combined with a domain partitioning approach allowing for parallel computation which guarantees computational efficiency. The accuracy and potential of the proposed numerical description are shown in numerical examples, including comparisons against experimental results on realistic square and skew brick-masonry arches.
Mesoscale partitioned analysis of brick-masonry arches
Zhang, Yanyang (Autor:in) / Macorini, Lorenzo (Autor:in) / Izzuddin, Bassam A. (Autor:in)
Engineering Structures ; 124 ; 142-166
25.05.2016
25 pages
Aufsatz (Zeitschrift)
Elektronische Ressource
Englisch
Mesoscale partitioned analysis of brick-masonry arches
Online Contents | 2016
|Engineering Index Backfile | 1886
|Dynamic investigation of continuous arches of brick masonry
Engineering Index Backfile | 1938
|Numerical investigation of arches in brick-masonry bridges
Taylor & Francis Verlag | 2018
|Dynamic investigation of continuous arches of brick masonry
Engineering Index Backfile | 1938
|