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Scholars International Journal of Chemistry and Material Sciences (SIJCMS)
Volume-9 | Issue-02 | 101-114
Original Research Article
Design and Experimental Evaluation of a Multi- Layered Wall System for Heat Mitigation in Arid Environments
Anaswara Anil, Prashant Kumar Sharma, Farida Bala Tanko
Published : March 20, 2026
DOI : https://doi.org/10.36348/sijcms.2026.v09i02.003
Abstract
Food security in hyper-arid regions is constrained not only by water scarcity and soil degradation but by the thermodynamic instability of agricultural climates. In countries such as Qatar and across the Middle East and North Africa (MENA), extreme diurnal heat loads impose continuous cooling demand on controlled-environment agriculture, rendering food production energy-intensive and economically vulnerable. This study presents a novel multi-layered wall (MLW) designed to establish a controlled microclimate within interior agricultural environments under arid conditions. It is an arrangement of thermally useful materials: a high-thermal-mass clay composite for conductive attenuation; sequential semi-permeable membranes to interrupt and regulate convective exchange; a conditioned cavity that uses stack-driven airflow together with embedded cooling system; a concrete layer providing structural endurance and secondary buffering; and a recycled-plastic insulation layer to reduce residual flux. The assembly sequences moderate resistances and storage capacity to produce thermal lag, flux dispersion, and amplitude damping. Laboratory experiments under controlled radiative loading and sustained heat exposure verify the hypothesis: the MLW suppresses peak internal temperature excursions, flattens thermal gradients across interfaces, and preserves near-baseline interior conditions over prolonged forcing. Energy accounting for indoor farming loads suggests meaningful reductions in cooling demand when MLW-mediated temperature control replaces part of traditional mechanical conditioning. Index Terms- Multi-layered Wall (MLW): Structural configuration designed for progressive reduction of heat transfer. Thermal Insulation: Layers and materials engineered to reduce conductive and convective heat flux. Convective Ventilation: Stack-driven airflow mechanisms that remove excess heat from the conditioning cavity. Thermal Mass: Use of clay-based composites and water loops to absorb and regulate transient heat loads. Desert Agriculture: Application of engineered microclimates to enable sustainable crop production under arid conditions. Sustainable Development: Meeting present developmental needs without compromising the ability of future generations to do the same.
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