The Effect of Nano-CaCO3 on the Properties of Concrete: A Review

Zijian Zhang; Jianqiang Han

doi:10.54097/885f8h30

Authors

Zijian Zhang
Jianqiang Han

DOI:

https://doi.org/10.54097/885f8h30

Keywords:

Nano-CaCO3, Mechanical Property, Durability, Concrete, Dispersion Technology

Abstract

Nano-CaCO₃ has shown important potential in improving the comprehensive performance of concrete due to its relatively low cost and significant environmental benefits. A number of studies have shown that nano-CaCO₃ mainly improves the performance of concrete by accelerating the hydration reaction of cement and optimizing the microstructure. Appropriate addition of nano-CaCO₃ can effectively improve the early strength of concrete and enhance its durability. However, the high specific surface area of nano-CaCO₃ can easily lead to agglomeration, which not only weakens its nano-effect, but also may damage the workability of concrete. Therefore, the key to its practical application is to solve the dispersion problem. Future research should focus on the development of efficient and economical nano-CaCO₃ dispersion technology and explore its composite modification effect with other materials. Promote its large-scale application in the field of green and high-performance building materials.

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