Enhancing flexible polyurethane foams with bio-based sage filler: Effects on microstructure, mechanical properties, and sustainability

This study explores the incorporation of sage (Salvia officinalis) as a bio-based filler in flexible polyurethane foams (FPUFs).Sage was added to FPUFs in varying concentrations (5, 10, and 15 wt.%) to examine its influence on the foaming process, microstructure, density, water absorption, and compression behavior.Results revealed that sage delayed the foaming reaction, reduced exothermic reaction temperatures, and enhanced foam expansion.Microstructural analysis showed finer cell structures and denser foam matrices with sage incorporation.Foam filled with 5 wt.% of sage exhibited reduced compression resistance; however, increasing the filler concentration led to improvements in compression resistance.Sage also increased water absorption due to its hygroscopic nature, though this effect plateaued at higher concentrations.These findings demonstrate the potential of sage as a sustainable additive to produce high-performance FPUFs suitable for various industrial applications.

Authors

Publication Details

Journal
Advances in Science and Technology – Research Journal
Published
2025-04-27
DOI
https://doi.org/10.12913/22998624/202852
Citations
2
Primary Topic
Polymer composites and self-healing
Type
article
Field-Weighted Citation Impact
1.21
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article

Enhancing flexible polyurethane foams with bio-based sage filler: Effects on microstructure, mechanical properties, and sustainability

Sara Sarraj, M. Szymiczek
2 citations
Advances in Science and Technology – Research Journal
Polymer composites and self-healing
1.21
article

Enhancing flexible polyurethane foams with bio-based sage filler: Effects on microstructure, mechanical properties, and sustainability

Sara Sarraj, M. Szymiczek
article en
2 citations

Abstract

This study explores the incorporation of sage (Salvia officinalis) as a bio-based filler in flexible polyurethane foams (FPUFs).Sage was added to FPUFs in varying concentrations (5, 10, and 15 wt.%) to examine its influence on the foaming process, microstructure, density, water absorption, and compression behavior.Results revealed that sage delayed the foaming reaction, reduced exothermic reaction temperatures, and enhanced foam expansion.Microstructural analysis showed finer cell structures and denser foam matrices with sage incorporation.Foam filled with 5 wt.% of sage exhibited reduced compression resistance; however, increasing the filler concentration led to improvements in compression resistance.Sage also increased water absorption due to its hygroscopic nature, though this effect plateaued at higher concentrations.These findings demonstrate the potential of sage as a sustainable additive to produce high-performance FPUFs suitable for various industrial applications.

Advances in Science and Technology – Research JournalVol. 19(6)
Responsible consumption and production
Openalex Percentile: Top 24%
Polymer composites and self-healing
1.21
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