Brian H. H. Peng
University of Canterbury
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Publication
Featured researches published by Brian H. H. Peng.
Journal of Structural Engineering-asce | 2013
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
AbstractThis paper describes the development and validation of an analytical multispring plastic hinge element that can predict elongation of ductile RC plastic hinges together with its flexural and shear responses. The element consists of layers of longitudinal and diagonal springs that represent the behavior of concrete, reinforcing bars, and diagonal compression struts. Beam tests reported in the literature, for which elongation of plastic hinges was measured at different stages of the lateral cyclic loading, were used to validate the effectiveness of the newly developed plastic hinge element. Comparisons of the analytical predictions with experimental results show that the proposed element predicts elongation of plastic hinges satisfactorily. The ability of the model to predict elongation of a plastic hinge together with its flexural and shear deformations offers a significant advancement in seismic performance assessment of RC structures.
Structures Congress 2009 | 2009
Brian H. H. Peng; R.C. Fenwick; Rajesh P. Dhakal; Athol J. Carr
In a current research project the influence that floor slabs containing precast prestressed units have on the seismic performance of plastic hinges in beams of moment resisting frames is being examined. A three dimensional, approximately half scale, one storey, two bay moment resisting frame together with adjacent floor slab has been constructed and tested. The experimental results show that the building code, ACI 318-05, underestimates the flexural strength of beams by a considerable margin. An analytical model has been developed which predicts the flexural, shear and elongation response of plastic hinges in beams subjected to inelastic rotation history and varying axial load levels. This model can be used to predict the interaction between beams in moment resisting frames and floor slabs containing precast prestressed units. Analysis using this model shows good agreement with the experimental results.
Journal of Advanced Concrete Technology | 2011
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
Journal of Advanced Concrete Technology | 2011
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
Archive | 2007
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
Archive | 2008
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
Archive | 2007
Brian H. H. Peng; Rajesh P. Dhakal; R.C. Fenwick; Athol J. Carr; D.K. Bull
Aci Structural Journal | 2014
Rajesh P. Dhakal; Brian H. H. Peng; R.C. Fenwick; Athol J. Carr; D.K. Bull
Archive | 2008
Brian H. H. Peng; R.C. Fenwick; Rajesh P. Dhakal; D.K. Bull
Journal of Constructional Steel Research | 2008
Brian H. H. Peng; Gregory A. MacRae; Warren R. Walpole; Peter J. Moss; Rajesh P. Dhakal; Charles Clifton; Clark Hyland