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Study of diesel-biodiesel blends combustion and emission characteristics in a CI engine by adding nanoparticles of Mn (II) supramolecular complex
The supramolecular complex (SC1) [Mn(EIN)4(NCS)2] was synthesized and characterized as a new nanosized emulsion additive to improve the fuel incineration and emission formation behavior of a diesel-biodiesel blends-fueled CI engine. X-ray diffraction of one crystal, a spectroscopy technique and tran...
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Published in: | Atmospheric pollution research 2020-01, Vol.11 (1), p.117-128 |
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Main Authors: | , , , , , , , |
Format: | Article |
Language: | English |
Subjects: | |
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Online Access: | Get full text |
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Summary: | The supramolecular complex (SC1) [Mn(EIN)4(NCS)2] was synthesized and characterized as a new nanosized emulsion additive to improve the fuel incineration and emission formation behavior of a diesel-biodiesel blends-fueled CI engine. X-ray diffraction of one crystal, a spectroscopy technique and transmission electron microscopy (TEM) have been entirely examined for the structure formation of SC1. Adding 50, 100, and 150 ppm of SC1 with hydrogen peroxide (H2O2) is used to prepare the nanofluids emulsions. Nanosized SC1 with an average particle size of 15.25 nm is used as the heterogeneous medium for generating •OH radicals and O2 which are essential for the improvement of diesel-biodiesel blends fuel reactivity in a CI engine cylinder. Three Diesel-Biodiesel Blends with SC1 nanofluid emulsions have been prepared by blending 49% of diesel #1 fuel, 49% waste cooking oil biodiesel, 2% of SC1 nanofluid emulsion with hydrogen peroxide (H2O2) by the motorized agitator. The CI engine features are examined with all three SC1 nanofluid emulsions and the findings are discussed under separate conditions with conventional diesel and diesel-biodiesel blends. The operations of the diesel engine in the presence of SC1 nanofluid emulsions improve the thermal brake efficiency by 14.8–20.52% for diesel fuel. Furthermore, for SC1 nanofluid emulsions, CO and HC emissions are drastically decreased by 48.19–62.05% and 15.34–60.94% compared to pure diesel fuel, respectively. It is observed that the NOx emissions for all SC1 nanofluids combustion increase by 30.41–67.62% and the smoke emissions reduce by 32–44.27% as has been compared with pure Diesel.
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•Fuel blends combustion stability has improved with the addition of SC1/H2O2 system.•Performance of the CI engine relies on the aid of the nanosized SC1 additive.•The HC emissions reduced by 60.94% if 150 ppm of the nanosized SC1 was add.•The CO was reduced by 62.05% if 150 ppm of the nanosized SC1 was added.•BTE is improved by 20.52% if 150 ppm concentration of SC1 was added. |
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ISSN: | 1309-1042 1309-1042 |
DOI: | 10.1016/j.apr.2019.09.021 |