Characterization of Particulate from Biodiesel-Blended Engine Equipped with Exhaust Nonthermal Plasma Charger Using Thermo-Gravimetric Analysis

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Encouraging the use of alternative fuels available in Thailand is mainly due to fuel crisis within the past few decades. The government has recently drafted a renewable energy long-term plan to increase biofuel production. This has emboldened biodiesel to be used as fuel for agriculture and transportation, in particular. Diesel engines are promising for reducing carbon dioxide emissions related fuel energy consumption. Ordinarily, diesel combustion generates particulate matter and nitrogen oxides in trade-off relationship. However, advanced techniques for engine technology and aftertreatment devices have been abundantly developed to mitigate these hindrances. To break the trade-off emissions, an example technique is to fuel engines with biodiesel incorporated with exhaust gas recirculation. Among available options, nonthermal plasma (NTP) is one of the techniques that charges exhaust gas with high power electricity to reduce some emissions. This paper investigates on a light-duty diesel engine running on biodiesel blends with steady-state controlled operational parameters. An NTP device is equipped to the exhaust system with load variation. Exhaust gas are measured prior to- and after- the NTP reactor in terms of smoke opacity and compositions, categorized by a thermo-gravimetric analysis. The NTP equipped engine can normally operate with lower gaseous emissions than those of non NTP equipped engine. This shows even more benefits when the engine is fuelled with biodiesel. It is suggested that used cars running on biodiesel blends can be modified with this technology in order to improve exhaust emissions to meet forthcoming tighten emission regulations as it does not require complex modification. Copyright © 2015 SAE International and Copyright © 2015 TSAE. View source
Year

2015

Publisher

SAE International

Volume

2015-March

Number

March

DOI

http://dx.doi.org/10.4271/2015-01-0111

Language

Keyword(s)

Alternative fuels, Automotive engineering, Biodiesel, Carbon dioxide, Diesel engines, Economic and social effects, Energy utilization, Exhaust gas recirculation, Gas emissions, Global warming, Gravimetric analysis, Nitrogen oxides, Thermogravimetric analysis, Biofuel production, Carbon dioxide emissions, Emission regulation, Light-duty diesel engines, Operational parameters, Particulate Matter, Renewable energies, Trade-off relationship, Automobile engines

Classification
Form: Journal Article
Geographical Area: Thailand

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