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  4. Confinement models of GFRP-confined concrete
 
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2016
Journal Article
Title

Confinement models of GFRP-confined concrete

Title Supplement
Statistical analysis and unified stress-strain models
Abstract
This paper presented a comprehensive assessment of 22 existing stress models and 13 strain models, which were developed for glass fiber reinforced polymer (GFRP)-confined concrete in uniaxial compression. In addition, a reliability evaluation of these stress and strain models was performed. A database including 212 GFRP-confined cylindrical concrete specimens was collected and analyzed to evaluate the performance of these stress and strain models. The accuracy and applicability assessment of these models were carried out by Formula test and the Pearson correlation coefficient r, and the Monte Carlo-JC method was used by for the reliability assessment. Based on the evaluation, it was found that the unconfined concrete strength Formula is the most important parameter which determines the accuracy of these stress and strain models for GFRP-confined concrete. Most stress and strain models used in this study can predict the ultimate axial strength and strain of the GFRP-confined concrete appropriately, although some scattered points exist for some models. In addition, it was found that all these models satisfy the command of reliability even some models are too conservative. Based on the database, unified stress and strain models were proposed showing better applicability.
Author(s)
Huang, Liang
Gao, Chang
Yan, Libo  
Kasal, Bohumil  
Ma, Gao
Tan, Haozhi
Journal
Journal of reinforced plastics and composites : JRPC  
DOI
10.1177/0731684416630609
Language
English
Fraunhofer-Institut für Holzforschung Wilhelm-Klauditz-Institut WKI  
Keyword(s)
  • glass fiber reinforced polymer

  • confinement model

  • database

  • statistical analysis

  • unified models

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