Material Characterization: A Comparative Test of Insulation Materials in Hot Climates


Authors : Nicolas Monje Mejia; Maatouk Khoukhi

Volume/Issue : Volume 10 - 2025, Issue 1 - January


Google Scholar : https://tinyurl.com/322xmxzz

Scribd : https://tinyurl.com/mrx4yvuc

DOI : https://doi.org/10.5281/zenodo.14848280


Abstract : This study delves into the potential of using puffed waste rice as an insulation material for hot climates, responding to the pressing need for sustainable building practices in light of climate change. Traditional insulation often comes with significant environmental drawbacks, from the resources needed for production to the energy consumed throughout its lifecycle. In contrast, sustainable biomaterials like puffed rice present a promising alternative, boosting insulation performance while also promoting conservation and reducing waste. We investigate the key properties of puffed waste rice insulation, including thermal conductivity, water resistance, density, and water absorption. Additionally, we compare it to conventional insulation materials such as polystyrene to assess its feasibility and overall performance within the construction industry. Our findings aim to showcase the potential of biomaterials in advancing energy-efficient and eco-friendly building practices, ultimately contributing to a more sustainable future.

Keywords : Sustainability; Insulation Materials; Hydrotropic Performance; Polystyrene Insulation; Puffed Rice Insulation.

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This study delves into the potential of using puffed waste rice as an insulation material for hot climates, responding to the pressing need for sustainable building practices in light of climate change. Traditional insulation often comes with significant environmental drawbacks, from the resources needed for production to the energy consumed throughout its lifecycle. In contrast, sustainable biomaterials like puffed rice present a promising alternative, boosting insulation performance while also promoting conservation and reducing waste. We investigate the key properties of puffed waste rice insulation, including thermal conductivity, water resistance, density, and water absorption. Additionally, we compare it to conventional insulation materials such as polystyrene to assess its feasibility and overall performance within the construction industry. Our findings aim to showcase the potential of biomaterials in advancing energy-efficient and eco-friendly building practices, ultimately contributing to a more sustainable future.

Keywords : Sustainability; Insulation Materials; Hydrotropic Performance; Polystyrene Insulation; Puffed Rice Insulation.

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