From Soil to Skyline: Edible Insects and Big Data Analytics for Sustainable Construction in Smart Cities

This study explores the feasibility of alternative construction materials, including insect-based composites, in comparison to conventional materials such as concrete, fiberglass, and hempcrete. A novel predictive modeling approach was employed to assess the thermal performance, fire resistance, and cost-effectiveness of these materials. The model was validated using experimental test results, demonstrating an accuracy of 92 % in predicting thermal conductivity and an 85 % match with fire resistance classifications. Key findings indicate that insect-based materials exhibit the lowest thermal conductivity (0.03 W/mK) while maintaining a cost advantage due to lower raw material expenses. However, fire resistance remains a challenge, requiring additional treatments for regulatory compliance. The cost analysis reveals that processing constitutes the highest expenditure (40 %), highlighting a key scalability constraint. To address these limitations, a regional processing hub strategy is proposed to enhance supply chain efficiency. This research uniquely integrates predictive modeling with empirical validation to provide data-driven insights into the viability of sustainable construction materials. The findings contribute to advancing eco-friendly building solutions while identifying key barriers to large-scale implementation.

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Publication Details

Published
2025-04-13
DOI
https://doi.org/10.1109/wids-psu64963.2025.00021
Primary Topic
Animal and Plant Science Education
Type
article
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article

From Soil to Skyline: Edible Insects and Big Data Analytics for Sustainable Construction in Smart Cities

Elkhawad Ali Elfaki, Abdalbasit Adam Mariod, Ramy Mahmoud, Selma Abdelrahman Hussein et al.
Animal and Plant Science Education
article

From Soil to Skyline: Edible Insects and Big Data Analytics for Sustainable Construction in Smart Cities

Elkhawad Ali Elfaki, Abdalbasit Adam Mariod, Ramy Mahmoud, Selma Abdelrahman Hussein, A Salih
article en

Abstract

This study explores the feasibility of alternative construction materials, including insect-based composites, in comparison to conventional materials such as concrete, fiberglass, and hempcrete. A novel predictive modeling approach was employed to assess the thermal performance, fire resistance, and cost-effectiveness of these materials. The model was validated using experimental test results, demonstrating an accuracy of 92 % in predicting thermal conductivity and an 85 % match with fire resistance classifications. Key findings indicate that insect-based materials exhibit the lowest thermal conductivity (0.03 W/mK) while maintaining a cost advantage due to lower raw material expenses. However, fire resistance remains a challenge, requiring additional treatments for regulatory compliance. The cost analysis reveals that processing constitutes the highest expenditure (40 %), highlighting a key scalability constraint. To address these limitations, a regional processing hub strategy is proposed to enhance supply chain efficiency. This research uniquely integrates predictive modeling with empirical validation to provide data-driven insights into the viability of sustainable construction materials. The findings contribute to advancing eco-friendly building solutions while identifying key barriers to large-scale implementation.

Prince Sultan University (SA), University of Jeddah (SA), University of Bisha (SA)
Openalex Percentile: Top 87%
Animal and Plant Science Education
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From Soil to Skyline: Edible Insects and Big Data Analytics for Sustainable Construction in Smart Cities — Elkhawad Ali Elfaki, Abdalbasit Adam Mariod, et al. · (2025) | TGRS Research Map | TGRS