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Rammed earth materials can bring many advantages regarding its low energy consuming and environment impacts and high thermal mass. To overcome the time consuming and labor-intensive process of construction, self-consolidating earth concrete (SCEC) can be an innovative solution to facilitate placement, consolidation, and achieve good performance. The Phase 1 will identify the optimum volume of paste, water-to-powder ratio (w/p), cement content, cement-to-clay ratio (c/c) and sand-to-total aggregate ratio (S/A) based on the targeted rheology properties and compressive strength development. This will be exploited to propose a a guideline for achieving SCEC with different soil types and achieved adapted properties given the application on hand. Moreover, no-cement mixture will be investigated in which only silt and clay are acting as binders. The Phase 2 of this investigation aims to evaluate the thermal performance of SCEC. The porosity, as a function of the microstructure of the material, and absorption of water play important roles in thermal performance of a building material since water has higher thermal conductivity than air.
Ammar Yahia
Université de La Rochelle
Engineering
Education
Université de Sherbrooke
Globalink Research Award
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