Flexural behaviour of ECC slabs reinforced with high-strength stainless steel wire rope

材料科学 抗弯强度 复合材料 延展性(地球科学) 结构工程 弯曲 极限抗拉强度 三点弯曲试验 开裂 钢筋 变形(气象学) 甲板 工程类 蠕动
作者
Xinling Wang,Yaokang Zhao,Wenwen Qian,Yongjie Chen,Ke Li,Juntao Zhu
出处
期刊:Proceedings of the Institution of Civil Engineers [ICE Publishing]
卷期号:177 (5): 410-426 被引量:2
标识
DOI:10.1680/jstbu.22.00097
摘要

Engineered cementitious composites (ECCs) have ultrahigh ductility and multiple-cracking properties. High-strength stainless steel wire rope (HSSSWR) has high tensile strength and good corrosion resistance. Taking advantage of these two materials, ECCs reinforced with HSSSWR (HSSSWR-ECCs) promise to be attractive when used in flexible and ductile link slabs in bridge deck systems, in permanent formworks of concrete members and for strengthening existing members. In this work, bending tests were performed on HSSSWR-ECC slabs with different HSSSWR reinforcement ratios and ECC formulations. The results showed that the HSSSWR-ECC slabs exhibited excellent crack-width control and deformation capacities under bending moments. An increase in the HSSSWR reinforcement ratio enhanced the flexural capacity of the HSSSWR-ECC slabs, but reduced their ductility. Adding a thickener to the ECC enhanced the crack-width control ability and ductility of the HSSSWR-ECC slabs by improving the dispersion of polyvinyl alcohol fibres in the ECC, but reduced the flexural capacity by reducing the strength of the ECC. Formulas for predicting the flexural capacity of HSSSWR-ECC slabs were developed based on related mechanics theories. The accuracy of the proposed formulas was verified by comparing the test results and predicted results using a finite-element model for HSSSWR-ECC slabs.

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