Abstract: Cement based composite materials are widely used in modern engineering construction because of their rich raw materials, low price, simple production process and high strength. But this kind of material has a series of problems such as high brittleness and crack for a long time. In view of these problems, researchers are mainly committed to improving the mechanical properties of cement-based materials. However, in the current situation, modern buildings put forward many new requirements for cement-based materials, not only to have good mechanical behavior, but also to have as many additional functions as possible. Appropriate functional filler can not only improve the mechanical properties and durability of cement-based composite, but also effectively regulate the conductivity, thermal conductivity and other functions of cement-based materials. Steel fiber, polymer fiber and mineral fiber are common functional additives for a long time. These materials can be used to improve the mechanical properties of materials depending on their strength and toughness. However, these reinforced materials can not change the hydration products of cement in structure, so the high brittleness and cracks of cement-based materials exist. Some of the carbon based materials can be modified after they are added into the cement-based composite materials. It can not only change its structure from the micro aspect, so as to improve the mechanical properties, but also improve the conductivity, thermal conductivity and other properties. So that cement-based composite materials can meet the requirements of the times as much as possible. In this paper, based on the research of various carbon based materials doped with cement-based composites in recent years, the basic principles of the influence of different carbon based materials (CF, CB, CNTs, GR and GO) on the properties of cement-based composites are summarized, and the related research of five materials mixed with cement-based composites in recent years is summarized. In addition, this paper also briefly summarizes the effects of these materials after composite and mutual modification, and puts forward some views on the research prospects of cement-based composite materials.
张小涛, 李庆超, 李东旭. 碳基材料对水泥基材料性能的影响[J]. 材料导报, 2021, 35(Z1): 220-224.
ZHANG Xiaotao, LI Qingchao, LI Dongxu. Effect of Carbon Based Materials on Properties of Cement Based Materials. Materials Reports, 2021, 35(Z1): 220-224.
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