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Effect of calcined nanoclay on microstructural and mechanical properties of chemically treated hemp fabric-reinforced cement nanocomposites
Highlights Synthesis of treated hemp fabric reinforced nanoclay–cement nanocomposites. The optimum hemp fabric content was 6.9wt% (i.e. 6 fabric layers). Treated hemp fabric reinforced cement composites exhibited the highest strength. Addition of 1wt% calcined nanoclay imparted the optimum strength and toughness.
Abstract The influence of calcined nanoclay (CNC) and chemical treatment on the microstructure and mechanical properties of treated hemp fabric-reinforced cement nanocomposites has been investigated. The optimum hemp fabric content for these nanocomposites is 6.9wt% (i.e. 6 fabric layers). Alkali-treated hemp fabric-reinforced cement composites exhibit the highest flexural strength when compared to their non-treated counterparts. In addition, mechanical properties are improved as a result of CNC addition. An optimum replacement of ordinary Portland cement with 1wt% CNC is observed through reduced porosity and increased density, flexural strength and fracture toughness in treated hemp fabric-reinforced nanocomposite. It is shown that CNC behaves not only as a filler to improve the microstructure, but also as the activator to facilitate the pozzolanic reaction and thus improved the adhesion between the treated hemp fabric and the matrix.
Effect of calcined nanoclay on microstructural and mechanical properties of chemically treated hemp fabric-reinforced cement nanocomposites
Highlights Synthesis of treated hemp fabric reinforced nanoclay–cement nanocomposites. The optimum hemp fabric content was 6.9wt% (i.e. 6 fabric layers). Treated hemp fabric reinforced cement composites exhibited the highest strength. Addition of 1wt% calcined nanoclay imparted the optimum strength and toughness.
Abstract The influence of calcined nanoclay (CNC) and chemical treatment on the microstructure and mechanical properties of treated hemp fabric-reinforced cement nanocomposites has been investigated. The optimum hemp fabric content for these nanocomposites is 6.9wt% (i.e. 6 fabric layers). Alkali-treated hemp fabric-reinforced cement composites exhibit the highest flexural strength when compared to their non-treated counterparts. In addition, mechanical properties are improved as a result of CNC addition. An optimum replacement of ordinary Portland cement with 1wt% CNC is observed through reduced porosity and increased density, flexural strength and fracture toughness in treated hemp fabric-reinforced nanocomposite. It is shown that CNC behaves not only as a filler to improve the microstructure, but also as the activator to facilitate the pozzolanic reaction and thus improved the adhesion between the treated hemp fabric and the matrix.
Effect of calcined nanoclay on microstructural and mechanical properties of chemically treated hemp fabric-reinforced cement nanocomposites
Hakamy, A. (author) / Shaikh, F.U.A. (author) / Low, I.M. (author)
Construction and Building Materials ; 95 ; 882-891
2015-07-15
10 pages
Article (Journal)
Electronic Resource
English
Thermal and mechanical properties of hemp fabric-reinforced nanoclay–cement nanocomposites
British Library Online Contents | 2014
|Characteristics of hemp fabric reinforced nanoclay–cement nanocomposites
Elsevier | 2014
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