Determination of the Appropriate Plasticity Hardening Model for the Simulation of the Reverse Bending and Straightening of Wires for Civil Engineering Applications

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Adewole
Adewole
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Kazeem K
Kazeem K
α Newcastle University Newcastle University

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Determination of the Appropriate Plasticity Hardening Model for the Simulation of the Reverse Bending and Straightening of Wires for Civil Engineering Applications

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Abstract

The industry requires an understanding of the effects of reverse bending and straightening test wires for civil engineering applications undergo to detect laminations in them on their tensile properties. In this paper, the identification of the appropriate plasticity hardening model for the simulation of wires reverse bending and straightening test which involves “double” strain reversal is presented. Finite element Simulations revealed that the isotropic hardening model predicted a continuous work hardening of the wire during the bending, reverse bending, and straightening operations and did not capture the softening of the wire due to the Bauschinger effect. Conversely, the combined hardening model adequately captured both the work hardening and Bauschinger effect that are associated with the reverse bending and straightening processes. Consequently, it is demonstrated that the combined hardening model is the appropriate plasticity hardening model for the simulation of reverse bending and straightening of carbon steel wires used for civil engineering applications. This paper thus established the appropriate plasticity hardening model required for the FE simulation of the wires’ reverse bending and straightening test Needed to investigate the effects of reverse bending and straightening test on the tensile and fracture properties of a typical wire used for civil engineering applications.

References

11 Cites in Article
  1. Kazeem Adewole,Steve Bull (2013). Prediction of the fracture performance of defect-free steel bars for civil engineering applications using finite element simulation.
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Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Adewole. 2013. \u201cDetermination of the Appropriate Plasticity Hardening Model for the Simulation of the Reverse Bending and Straightening of Wires for Civil Engineering Applications\u201d. Global Journal of Research in Engineering - E: Civil & Structural GJRE-E Volume 13 (GJRE Volume 13 Issue E3): .

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Version of record

v1.2

Issue date

June 1, 2013

Language
en
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The industry requires an understanding of the effects of reverse bending and straightening test wires for civil engineering applications undergo to detect laminations in them on their tensile properties. In this paper, the identification of the appropriate plasticity hardening model for the simulation of wires reverse bending and straightening test which involves “double” strain reversal is presented. Finite element Simulations revealed that the isotropic hardening model predicted a continuous work hardening of the wire during the bending, reverse bending, and straightening operations and did not capture the softening of the wire due to the Bauschinger effect. Conversely, the combined hardening model adequately captured both the work hardening and Bauschinger effect that are associated with the reverse bending and straightening processes. Consequently, it is demonstrated that the combined hardening model is the appropriate plasticity hardening model for the simulation of reverse bending and straightening of carbon steel wires used for civil engineering applications. This paper thus established the appropriate plasticity hardening model required for the FE simulation of the wires’ reverse bending and straightening test Needed to investigate the effects of reverse bending and straightening test on the tensile and fracture properties of a typical wire used for civil engineering applications.

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Determination of the Appropriate Plasticity Hardening Model for the Simulation of the Reverse Bending and Straightening of Wires for Civil Engineering Applications

Kazeem K
Kazeem K
Adewole
Adewole Newcastle University

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