Quality assessment of material models for reinforced concrete flexural members

Non‐linear constitutive models for concrete in compression are frequently defined in design codes. The engineer generally uses either the linear (in SLS) or non‐linear (in ULS) compression model. However, a large variety of different approaches exists for describing the behaviour of the cracked conc...

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Veröffentlicht in:Structural concrete : journal of the FIB 2015-03, Vol.16 (1), p.125-136
Hauptverfasser: Jung, Bastian, Morgenthal, Guido, Xu, Dong, Schröter, Hendrik
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container_title Structural concrete : journal of the FIB
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creator Jung, Bastian
Morgenthal, Guido
Xu, Dong
Schröter, Hendrik
description Non‐linear constitutive models for concrete in compression are frequently defined in design codes. The engineer generally uses either the linear (in SLS) or non‐linear (in ULS) compression model. However, a large variety of different approaches exists for describing the behaviour of the cracked concrete tension zone, and the selection of a corresponding model is usually based on qualitative engineering judgement. The aim of this paper is to assess the prediction quality of several concrete material models in order to provide a quantitative model selection. Therefore, uncertainty analysis is applied in order to investigate the model and parameter uncertainty in the bending stiffness prognosis for flexural members. The total uncertainty is converted into a prognosis model quality that allows a quantitative comparison between the material models considered. The consideration of the reinforced concrete in tension is based on the characterization of the tension stiffening effect, which describes the cracking in an average sense. In the interest of the practical applicability of the models considered, even for large structures, no discrete crack simulations based on fracture mechanics are considered. Finally, the assessment identifies that the prediction quality depends on the loading level and, furthermore, the quality across the models can be quantitatively similar as well as diverse.
doi_str_mv 10.1002/suco.201300066
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source Wiley Online Library Journals Frontfile Complete
subjects analysis and design methods
building materials / construction materials
Compressing
Concretes
Fracture mechanics
Materials selection
Mathematical models
model evaluation
model quality
model uncertainty
Nonlinearity
parameter uncertainty
Prognosis
Reinforced concrete
tension stiffening
Uncertainty
title Quality assessment of material models for reinforced concrete flexural members
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