Assessment of the Mechanical and Hydraulic Performance of Kenaf Fiber Geotextiles for the Reinforcement of Road Foundation Layers

Introduction The use of geotextiles is now well established in the field of civil engineering, particularly in geotechnics, where they serve a range of functions including drainage, filtration, separation, reinforcement, protection, and erosion control. For over three decades, these materials have played a key role in the design and long-term performance of infrastructure. The development of geotextiles made from natural plant fibers, especially those derived from kenaf, represents a promising advancement that offers both economic and environmental benefits. This study aims to evaluate the mechanical and hydraulic properties of woven geotextiles made from kenaf fibers sourced from Nérékourosso, as well as their effectiveness in reinforcing road foundation layers. Methods Two types of geotextiles were produced by weaving, with mesh openings of 0 mm and 5 mm, respectively. Mechanical characterization tests were carried out, along with static puncture resistance and normal-to-plane permeability tests. CBR load-bearing tests were performed to evaluate reinforcement efficiency depending on the geotextile’s position in the foundation layer. Mechanical tests showed higher tensile strength in the cross direction for the geotextile with no mesh opening (17.19 kN/m) compared to the 5 mm mesh type (2.90 kN/m). Results The closed-mesh geotextile withstood a maximum puncture load of 1170 N, versus 540 N for the open-mesh variant. The 0 mm mesh geotextile exhibited a surface flow rate of 2200 L/min/m 2 . CBR tests indicated better performance for the 5 mm mesh geotextile, especially when placed at mid-height within the reinforced layer. Discussion These results suggest that while the closed-mesh geotextile offers superior intrinsic mechanical properties due to its dense structure, the open-mesh variant performs better in soil reinforcement applications, likely because its structure allows better interaction with surrounding materials and more effective stress distribution. Conclusion Kenaf-based woven geotextiles show promising potential for road foundation reinforcement, with mesh configuration significantly influencing performance.

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Publication Details

Journal
The Open Civil Engineering Journal
Published
2025-11-28
DOI
https://doi.org/10.2174/0118741495424845251112103116
Primary Topic
Geotechnical Engineering and Soil Stabilization
Type
article
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article

Assessment of the Mechanical and Hydraulic Performance of Kenaf Fiber Geotextiles for the Reinforcement of Road Foundation Layers

Hamma Fabien Yonli, David Yemboini Kader Toguyeni, Sidpouita Mathilde Koudougou, Médaninpo Fidèle Yonli et al.
The Open Civil Engineering Journal
Geotechnical Engineering and Soil Stabilization
article

Assessment of the Mechanical and Hydraulic Performance of Kenaf Fiber Geotextiles for the Reinforcement of Road Foundation Layers

Hamma Fabien Yonli, David Yemboini Kader Toguyeni, Sidpouita Mathilde Koudougou, Médaninpo Fidèle Yonli, Dieudonné Tankoano, Wendgoudi Emmanuel Nikièma
article en

Abstract

Introduction The use of geotextiles is now well established in the field of civil engineering, particularly in geotechnics, where they serve a range of functions including drainage, filtration, separation, reinforcement, protection, and erosion control. For over three decades, these materials have played a key role in the design and long-term performance of infrastructure. The development of geotextiles made from natural plant fibers, especially those derived from kenaf, represents a promising advancement that offers both economic and environmental benefits. This study aims to evaluate the mechanical and hydraulic properties of woven geotextiles made from kenaf fibers sourced from Nérékourosso, as well as their effectiveness in reinforcing road foundation layers. Methods Two types of geotextiles were produced by weaving, with mesh openings of 0 mm and 5 mm, respectively. Mechanical characterization tests were carried out, along with static puncture resistance and normal-to-plane permeability tests. CBR load-bearing tests were performed to evaluate reinforcement efficiency depending on the geotextile’s position in the foundation layer. Mechanical tests showed higher tensile strength in the cross direction for the geotextile with no mesh opening (17.19 kN/m) compared to the 5 mm mesh type (2.90 kN/m). Results The closed-mesh geotextile withstood a maximum puncture load of 1170 N, versus 540 N for the open-mesh variant. The 0 mm mesh geotextile exhibited a surface flow rate of 2200 L/min/m 2 . CBR tests indicated better performance for the 5 mm mesh geotextile, especially when placed at mid-height within the reinforced layer. Discussion These results suggest that while the closed-mesh geotextile offers superior intrinsic mechanical properties due to its dense structure, the open-mesh variant performs better in soil reinforcement applications, likely because its structure allows better interaction with surrounding materials and more effective stress distribution. Conclusion Kenaf-based woven geotextiles show promising potential for road foundation reinforcement, with mesh configuration significantly influencing performance.

The Open Civil Engineering JournalVol. 19(1)
Université Joseph Ki-Zerbo (BF), BARKA Foundation (BF), Centre National de Semences Forestières (BF)
Openalex Percentile: Top 62%
Geotechnical Engineering and Soil Stabilization
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