Performance enhancement of natural asphalt using waste-derived modifiers: Sugarcane molasses and waste engine oil

The growing demand for sustainable and high-performance asphalt binders has prompted the exploration of waste-derived modifiers. This study investigates the performance enhancement of Natural Asphalt (NA) using Sugarcane Molasses (SM) and Waste Engine Oil (WEO). The modified blends were prepared by partially replacing 50 % NA with varying proportions of SM and WEO ranging from 10 % to 40 % of the total weight of NA. Comprehensive testing was conducted, including penetration, softening point, ductility, viscosity, Bending Beam Rheometer (BBR), Multiple Stress Creep Recovery (MSCR), Energy Dispersive X-ray Spectroscopy (EDX), Fourier Transform Infrared (FTIR) spectroscopy, and Scanning Electron Microscopy (SEM). The results demonstrated that modified blends with a high WEO content significantly increased fluidity, reducing rotational viscosity by up to 91 % for the blend with 40 % WEO and 10 % SM at 135 °C. Conversely, higher SM content increased stiffness, as seen in the blend with 40 % SM and 10 % WEO, with penetration values rising by 305 % compared to unmodified NA. Rheological testing showed that the 40 % SM and 10 % WEO blend achieved the highest rutting resistance with a Performance Grade (PG) of 88 °C, while the 40 % WEO and 10 % SM blend exhibited the best fatigue resistance with a 55 % reduction in G* .sinδ. Low-temperature performance was significantly improved across all blends, with the 40 % WEO and 10 % SM blend achieving the lowest creep stiffness and highest m-value, ensuring superior thermal cracking resistance. Chemical analysis revealed increased oxygen content (18.6 %) and reduced sulfur content (60 %) in the 40 % SM and 10 % WEO blend, indicating enhanced oxidation resistance. SEM analysis confirmed the development of dense morphology in the 40 % SM and 10 % WEO blend, correlating with superior structural integrity. Grey decision analysis identified the 40 % SM and 10 % WEO blend as the optimal blend with the lowest bull’s-eye distance, reflecting balanced performance across all parameters. These findings highlight the complementary effects of SM and WEO in enhancing the performance of NA, with the 40 % SM and 10 % WEO blend emerging as the most promising blend for bio-asphalt applications. • Replacing Natural Asphalt with Sugarcane Molasses (SM) and Waste Engine Oil (WEO). • The blend with 40 % WEO and 10 % SM contents increased its fluidity. • The blend with 40 % SM and 10 % WEO increased its stiffness. • The blend with 40 % WEO and 10 % SM exhibited the best fatigue resistance. • The SEM analysis showed a dense morphology in the 40 % SM and 10 % WEO blend.

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Publication Details

Journal
Cleaner Waste Systems
Published
2025-03-20
DOI
https://doi.org/10.1016/j.clwas.2025.100261
Citations
2
Primary Topic
Asphalt Pavement Performance Evaluation
Type
article
Field-Weighted Citation Impact
1.91
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article

Performance enhancement of natural asphalt using waste-derived modifiers: Sugarcane molasses and waste engine oil

Mayank Sukhija, Mazen J. Al‐Kheetan, Yazeed S. Jweihan, Nazar Oukaili et al.
2 citations
Cleaner Waste Systems
Asphalt Pavement Performance Evaluation
1.91
article

Performance enhancement of natural asphalt using waste-derived modifiers: Sugarcane molasses and waste engine oil

Mayank Sukhija, Mazen J. Al‐Kheetan, Yazeed S. Jweihan, Nazar Oukaili, Amjad H. Khalil Albayati, Ahmed Mahir Mohammed, Seyed Hamidreza Ghaffar, Mustafa M. Moudhafar, Aliaa F. Al-ani
article en
2 citations

Abstract

The growing demand for sustainable and high-performance asphalt binders has prompted the exploration of waste-derived modifiers. This study investigates the performance enhancement of Natural Asphalt (NA) using Sugarcane Molasses (SM) and Waste Engine Oil (WEO). The modified blends were prepared by partially replacing 50 % NA with varying proportions of SM and WEO ranging from 10 % to 40 % of the total weight of NA. Comprehensive testing was conducted, including penetration, softening point, ductility, viscosity, Bending Beam Rheometer (BBR), Multiple Stress Creep Recovery (MSCR), Energy Dispersive X-ray Spectroscopy (EDX), Fourier Transform Infrared (FTIR) spectroscopy, and Scanning Electron Microscopy (SEM). The results demonstrated that modified blends with a high WEO content significantly increased fluidity, reducing rotational viscosity by up to 91 % for the blend with 40 % WEO and 10 % SM at 135 °C. Conversely, higher SM content increased stiffness, as seen in the blend with 40 % SM and 10 % WEO, with penetration values rising by 305 % compared to unmodified NA. Rheological testing showed that the 40 % SM and 10 % WEO blend achieved the highest rutting resistance with a Performance Grade (PG) of 88 °C, while the 40 % WEO and 10 % SM blend exhibited the best fatigue resistance with a 55 % reduction in G* .sinδ. Low-temperature performance was significantly improved across all blends, with the 40 % WEO and 10 % SM blend achieving the lowest creep stiffness and highest m-value, ensuring superior thermal cracking resistance. Chemical analysis revealed increased oxygen content (18.6 %) and reduced sulfur content (60 %) in the 40 % SM and 10 % WEO blend, indicating enhanced oxidation resistance. SEM analysis confirmed the development of dense morphology in the 40 % SM and 10 % WEO blend, correlating with superior structural integrity. Grey decision analysis identified the 40 % SM and 10 % WEO blend as the optimal blend with the lowest bull’s-eye distance, reflecting balanced performance across all parameters. These findings highlight the complementary effects of SM and WEO in enhancing the performance of NA, with the 40 % SM and 10 % WEO blend emerging as the most promising blend for bio-asphalt applications. • Replacing Natural Asphalt with Sugarcane Molasses (SM) and Waste Engine Oil (WEO). • The blend with 40 % WEO and 10 % SM contents increased its fluidity. • The blend with 40 % SM and 10 % WEO increased its stiffness. • The blend with 40 % WEO and 10 % SM exhibited the best fatigue resistance. • The SEM analysis showed a dense morphology in the 40 % SM and 10 % WEO blend.

Cleaner Waste SystemsVol. 11
Oregon State University (US), University of Dubai (AE), University of Baghdad (IQ), Applied Science Private University (JO), Mutah University (JO)
Responsible consumption and production
Openalex Percentile: Top 17%
Asphalt Pavement Performance Evaluation
1.91
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