An experimental investigation of the impacts of titanium dioxide (TiO2) and ethanol on performance and emission characteristics on diesel engines run with castor Biodiesel ethanol blended fuel

Investigating the impact of ethanol and TiO2 on the performance and emission characteristics of diesel engines running on a blend of ethanol and castor biodiesel is the primary goal of this study. The nanoparticles of ethanol, biodiesel, and TiO2 diesel fuel were combined at several concentrations. Diesel, B10, B20, B30, B10E10T, B20E10T, B30E10T, B10E20T, B20E20T, and B30E20T were among the various fuels that were investigated. The physiochemical properties of all the sample fuels were assessed, including density, pour point, cloud point, fire point, flash point, and kinematic viscosity. Following this, other engine performance indicators, such as torque, power, and fuel-consumption, were examined. Studies were also carried out on the properties of emissions, including CO, CO2, HC, and NO. Peak braking power and engine torque were found for each fuel under investigation at around 2750 and 2500 rpm, respectively. The addition reduced the brake-specific fuel consumption for B10E20T by 7.41 % while increasing the braking engine's torque and power by 8.64 and 3.86 %, respectively, in compared to blends without the TiO2 additions. When compared to diesel, the exhaust emission data without the addition of TiO2 revealed a decrease in CO and HC emissions but an increase in CO2 and NO emissions. On the other hand, using ethanol blend reduced NO emissions. According to the overall findings, diesel engine performance, combustion characteristics, and exhaust gas emissions were enhanced averagely by 7.43 % when a certain ratio of ethanol, biodiesel, and TiO2 additives (B10E20 + 50 ppm) was used. • Effects of titanium dioxide (TiO2) and Ethanol on the emission and performance characteristics of compression ignition engine. • Eethanol, castor biodiesel, and TiO2 blend effect on combustion parameters. • Effects of titanium dioxide (TiO2) nanoparticle on combustion efficiency. • Potential of biodiesel to replace gasoline in the future 10 years.

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Publication Details

Journal
Fuel Processing Technology
Published
2024-09-21
DOI
https://doi.org/10.1016/j.fuproc.2024.108137
Citations
17
Primary Topic
Biodiesel Production and Applications
Type
article
Field-Weighted Citation Impact
3.14
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article

An experimental investigation of the impacts of titanium dioxide (TiO2) and ethanol on performance and emission characteristics on diesel engines run with castor Biodiesel ethanol blended fuel

Dinku Seyoum Zeleke, Addisu Kassahun Tefera
17 citations
Fuel Processing Technology
Biodiesel Production and Applications
3.14
article

An experimental investigation of the impacts of titanium dioxide (TiO2) and ethanol on performance and emission characteristics on diesel engines run with castor Biodiesel ethanol blended fuel

Dinku Seyoum Zeleke, Addisu Kassahun Tefera
article en
17 citations

Abstract

Investigating the impact of ethanol and TiO2 on the performance and emission characteristics of diesel engines running on a blend of ethanol and castor biodiesel is the primary goal of this study. The nanoparticles of ethanol, biodiesel, and TiO2 diesel fuel were combined at several concentrations. Diesel, B10, B20, B30, B10E10T, B20E10T, B30E10T, B10E20T, B20E20T, and B30E20T were among the various fuels that were investigated. The physiochemical properties of all the sample fuels were assessed, including density, pour point, cloud point, fire point, flash point, and kinematic viscosity. Following this, other engine performance indicators, such as torque, power, and fuel-consumption, were examined. Studies were also carried out on the properties of emissions, including CO, CO2, HC, and NO. Peak braking power and engine torque were found for each fuel under investigation at around 2750 and 2500 rpm, respectively. The addition reduced the brake-specific fuel consumption for B10E20T by 7.41 % while increasing the braking engine's torque and power by 8.64 and 3.86 %, respectively, in compared to blends without the TiO2 additions. When compared to diesel, the exhaust emission data without the addition of TiO2 revealed a decrease in CO and HC emissions but an increase in CO2 and NO emissions. On the other hand, using ethanol blend reduced NO emissions. According to the overall findings, diesel engine performance, combustion characteristics, and exhaust gas emissions were enhanced averagely by 7.43 % when a certain ratio of ethanol, biodiesel, and TiO2 additives (B10E20 + 50 ppm) was used. • Effects of titanium dioxide (TiO2) and Ethanol on the emission and performance characteristics of compression ignition engine. • Eethanol, castor biodiesel, and TiO2 blend effect on combustion parameters. • Effects of titanium dioxide (TiO2) nanoparticle on combustion efficiency. • Potential of biodiesel to replace gasoline in the future 10 years.

Fuel Processing TechnologyVol. 264
Addis Ababa Science and Technology University (ET)
Openalex Percentile: Top 8%
Biodiesel Production and Applications
3.14
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An experimental investigation of the impacts of titanium dioxide (TiO2) and ethanol on performance and emission characteristics on diesel engines run with castor Biodiesel ethanol blended fuel — Dinku Seyoum Zeleke, Addisu Kassahun Tefera · Fuel Processing Technology (2024) | TGRS Research Map | TGRS