Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine

‏ The search of next prospective source of fuel is highlighted by the research community to compensate the aspects of shortcomings of diesel fuel and to treat the harmful emissions in the transportation sector. Among numerous economic sectors, the use of petro-diesel still the main fuel using for dr...

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Main Authors: Mohammed A. Fayad, Alaa Dhari Jawad Al-Bayati, Hasanain A. Abdul Wahhab, Abbas J. Sultan, Laith S. Sabri, Hayder A. Dhahad
Format: Article
Language:English
Published: Elsevier 2024-03-01
Series:Results in Engineering
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S259012302400001X
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author Mohammed A. Fayad
Alaa Dhari Jawad Al-Bayati
Hasanain A. Abdul Wahhab
Abbas J. Sultan
Laith S. Sabri
Hayder A. Dhahad
author_facet Mohammed A. Fayad
Alaa Dhari Jawad Al-Bayati
Hasanain A. Abdul Wahhab
Abbas J. Sultan
Laith S. Sabri
Hayder A. Dhahad
author_sort Mohammed A. Fayad
collection DOAJ
description ‏ The search of next prospective source of fuel is highlighted by the research community to compensate the aspects of shortcomings of diesel fuel and to treat the harmful emissions in the transportation sector. Among numerous economic sectors, the use of petro-diesel still the main fuel using for driving heavy machinery despite the high advance in electric motors for transportation systems. The characteristics of engine performance, nitrogen oxide (NOX) emissions, size distribution of particulate matter (PM), number and oxidation reactivity of soot particles from the effects of low and high fuel injection pressures (FIPs) and adding two types of nanoparticles (Al2O3 and TiO2) to the M20B10 blend (20 % of microalgae biodiesel, 10 % n-butanol and 70 % of diesel) were studied in common-rail diesel engine at different loads. The results revealed that the adding Al2O3 and TiO2 to the M20B10 blend decreased the BSFC by 21.28 % and 22.84 %, respectively, and also improved BTE by 4.46 % and 2.35 %, respectively, for different engine loads. It is observed that the applied HFIP and M20B10+Al2O3 blend also enhance the fuel consumption by 21.28 % and increase BTE by 9.63 % in comparison with M20B10+ TiO2 blend. In contrast, the presence HFIP with nano blends increased the NOX emissions by 24.73 % with respect to the LFIP, meanwhile the NOX emissions decreased from nano blends combustion more than to the neat M20B10 blend. The combustion of M20B10+Al2O3 blend decreased the PM concentration (by 52.82 %) and number (by 33.62 %) and when compared with blend of M20B10+ TiO2 and neat M20B10 blend combustion at HFIP. Furthermore, the reactivity of soot oxidation significantly increased when adding Al2O3 into the M20B10 blend and applying HFIP compared to the M20B10+ TiO2 blend.
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spelling doaj.art-4ac66020c60d498381a69b6f5d5362f82024-03-24T07:00:30ZengElsevierResults in Engineering2590-12302024-03-0121101748Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engineMohammed A. Fayad0Alaa Dhari Jawad Al-Bayati1Hasanain A. Abdul Wahhab2Abbas J. Sultan3Laith S. Sabri4Hayder A. Dhahad5Energy and Renewable Energies Technology Center, University of Technology- Iraq, Baghdad, Iraq; Corresponding author.Department of Chemical Engineering and Petroleum Industries, Al-Mustaqbal University, Babylon, IraqTraining and Workshop Center, University of Technology- Iraq, Baghdad, IraqDepartment of Chemical Engineering, University of Technology- Iraq, Baghdad, IraqDepartment of Chemical Engineering, University of Technology- Iraq, Baghdad, IraqMechanical Engineering Department, University of Technology- Iraq, Baghdad, Iraq‏ The search of next prospective source of fuel is highlighted by the research community to compensate the aspects of shortcomings of diesel fuel and to treat the harmful emissions in the transportation sector. Among numerous economic sectors, the use of petro-diesel still the main fuel using for driving heavy machinery despite the high advance in electric motors for transportation systems. The characteristics of engine performance, nitrogen oxide (NOX) emissions, size distribution of particulate matter (PM), number and oxidation reactivity of soot particles from the effects of low and high fuel injection pressures (FIPs) and adding two types of nanoparticles (Al2O3 and TiO2) to the M20B10 blend (20 % of microalgae biodiesel, 10 % n-butanol and 70 % of diesel) were studied in common-rail diesel engine at different loads. The results revealed that the adding Al2O3 and TiO2 to the M20B10 blend decreased the BSFC by 21.28 % and 22.84 %, respectively, and also improved BTE by 4.46 % and 2.35 %, respectively, for different engine loads. It is observed that the applied HFIP and M20B10+Al2O3 blend also enhance the fuel consumption by 21.28 % and increase BTE by 9.63 % in comparison with M20B10+ TiO2 blend. In contrast, the presence HFIP with nano blends increased the NOX emissions by 24.73 % with respect to the LFIP, meanwhile the NOX emissions decreased from nano blends combustion more than to the neat M20B10 blend. The combustion of M20B10+Al2O3 blend decreased the PM concentration (by 52.82 %) and number (by 33.62 %) and when compared with blend of M20B10+ TiO2 and neat M20B10 blend combustion at HFIP. Furthermore, the reactivity of soot oxidation significantly increased when adding Al2O3 into the M20B10 blend and applying HFIP compared to the M20B10+ TiO2 blend.http://www.sciencedirect.com/science/article/pii/S259012302400001XBSFCBTEAl2O3TiO2NOX emissionsPM
spellingShingle Mohammed A. Fayad
Alaa Dhari Jawad Al-Bayati
Hasanain A. Abdul Wahhab
Abbas J. Sultan
Laith S. Sabri
Hayder A. Dhahad
Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
Results in Engineering
BSFC
BTE
Al2O3
TiO2
NOX emissions
PM
title Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
title_full Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
title_fullStr Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
title_full_unstemmed Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
title_short Effect of FIPs strategy and nanoparticles additives into the renewable fuel blends on NOX emissions, PM size distribution and soot oxidation in CRDI diesel engine
title_sort effect of fips strategy and nanoparticles additives into the renewable fuel blends on nox emissions pm size distribution and soot oxidation in crdi diesel engine
topic BSFC
BTE
Al2O3
TiO2
NOX emissions
PM
url http://www.sciencedirect.com/science/article/pii/S259012302400001X
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