Bio Engineering: Learning from the Termites
Published in Earth & Environment, Materials, and Civil Engineering
A Narrative Behind the Study
Termites have long intrigued scientists and builders alike due to their remarkable ability to construct resilient structures using natural resources. Their mounds, often deeply rooted in the soil, display a unique cohesion and strength that is difficult to replicate. As human activity continues to encroach on these ecosystems, termite mounds are frequently abandoned. Our study taps into the potential of this Termite Mound Soil (TMS), a material rich in kaolinitic clay, for sustainable ceramic composite development.
Meanwhile, plastic bottles and sawdust, by-products of our modern consumption and wood industries, remain significant environmental pollutants. Sawdust is commonly burned, releasing greenhouse gases, and PET plastics persist in ecosystems for decades. This study proposes a circular engineering approach, where these wastes are valorized as reinforcements in ceramic composites, rather than discarded or incinerated.
Key Insights
✅ PET-TMS composites showed higher porosity (up to 43%), reduced density, and lower compressive strength, but are ideal for lightweight, insulating, and non-load-bearing applications.
✅ Sawdust-TMS composites had moderate porosity (up to 33%) and higher compressive strength, making them suitable for moderate-load structural applications.
✅ The kaolinitic nature and binding capacity of TMS enhanced composite cohesion, while sawdust ash contributed fluxing oxides that improved densification.
Policy and Practice Recommendations
📌 Promote eco-friendly construction by incentivizing the use of waste-based ceramic composites in public and low-income housing projects.
📌 Integrate waste valorization standards into national and municipal waste management policies.
📌 Encourage research-industry collaboration for developing scalable production models using termite mound soil and agro-waste.
📌 Support legislation banning open burning of sawdust and plastics, offering R&D-driven alternatives like this.
This publication contributes meaningfully to the fields of sustainable construction materials, environmental waste recovery, and green engineering innovations.
We invite academics, practitioners, policymakers, and environmental stakeholders to explore the full article.
🔗 Read the full article: https://doi.org/10.1007/s43939-025-00367-8
Follow the Topic
-
Discover Materials
This is a broad, open access journal publishing research from across all fields of materials research.
Related Collections
With Collections, you can get published faster and increase your visibility.
Exclusive Papers of Editorial Board Members
Note that articles in this collection are by Editorial Board Members only.
Publishing Model: Open Access
Deadline: Ongoing
Advanced Functional Materials: Disordered Systems, Nanoparticles, and Emerging Application in Energy, Photonics, and Security
Disordered systems, nanostructured materials, and functional composites play a pivotal role in advancing next-generation technologies. With growing demands for high-performance materials in energy, photonics, and security applications, understanding and harnessing the physical properties of complex and disordered systems is crucial. Research in nanoparticle design and synthesis, light scattering phenomena, and thermo-optical conversion mechanisms offers promising solutions for efficient radiative cooling, energy harvesting, and heat management. Additionally, the development of anticounterfeiting technologies and physical unclonable functions (PUFs) is key to ensuring secure identification and authentication in a digitized world.
This Collection invites contributions from researchers, engineers, and material scientists to share breakthroughs, methodologies, and practical innovations in these areas. We welcome submissions related, but not limited to, disordered systems, functional nanoparticles, advanced scattering techniques, novel radiative cooling materials, thermo-optical conversion devices, anticounterfeiting technologies, and PUF-based systems.
This Collection supports and amplifies research related to SDG 7 and SDG 9.
Keywords: Disorderd system, nanoparticles, functional materials, scattering, radiative cooling, thermooptical conversion, anticounterfeiting, physical unclonable function (PUF)
Publishing Model: Open Access
Deadline: Jun 30, 2026
Please sign in or register for FREE
If you are a registered user on Research Communities by Springer Nature, please sign in