Predicting Shear Strength of Cyclically Loaded Interior Beam-Column Joints Using GAs
Editors
Nader Ghafoori
Document Type
Chapter
Publication Date
2009
Publication Title
Challenges, Opportunities and Solutions in Structural Engineering and Construction
Publisher
CRC Press
First page number:
105
Last page number:
110
Abstract
One of the major problems in evaluating RC structures is estimating the strength of beam-column joints under cyclic loading. This is due to the lack of a clear formula to rely on. Behavior of the cyclically loaded beam-column joints is very complex and several mechanisms control it. Furthermore, several parameters are known to have significant effect on the shear capacity of the joint namely: joint shear reinforcement, concrete compressive strength, joint aspect ratio and column axial stress. The contribution of each of these parameters noticeably varies for each of the proposed formulae in the literature. This paper aims to evaluate some of the existing joint shear capacity formulae of cyclically loaded joints per ACI and AIJ, and subsequently optimize these formulae using genetic algorithms technique (GAs). The paper also is proposing a new formula for calculating the shear capacity of cyclically loaded beam-column joints.
Keywords
Concrete; Concrete beams; Genetic algorithms; Reinforced concrete; Shear (Mechanics)
Disciplines
Civil and Environmental Engineering | Construction Engineering and Management | Engineering | Structural Engineering
Language
English
Permissions
Use Find in Your Library, contact the author, or interlibrary loan to garner a copy of the item. Publisher policy does not allow archiving the final published version. If a post-print (author's peer-reviewed manuscript) is allowed and available, or publisher policy changes, the item will be deposited.
Repository Citation
Said, A. M.,
Khalifa, E.
(2009).
Predicting Shear Strength of Cyclically Loaded Interior Beam-Column Joints Using GAs. In Nader Ghafoori,
Challenges, Opportunities and Solutions in Structural Engineering and Construction
105-110.
CRC Press.
http://dx.doi.org/10.1201/9780203859926.ch18