Exhaust toxicity evaluation in a gas turbine engine fueled by aviation fuel containing synthesized hydrocarbons

Purpose The purpose of this paper is to examine the toxicological impacts of exhaust generated during the combustion process of aviation fuel containing synthesized hydrocarbons. Design/methodology/approach Tests on aircraft turbine engines in full scale are complex and expensive. Therefore, a minia...

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Veröffentlicht in:Aircraft engineering 2020-01, Vol.92 (1), p.60-66
Hauptverfasser: Gawron, Bartosz, Białecki, Tomasz, Janicka, Anna, Zawiślak, Maciej, Górniak, Aleksander
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container_end_page 66
container_issue 1
container_start_page 60
container_title Aircraft engineering
container_volume 92
creator Gawron, Bartosz
Białecki, Tomasz
Janicka, Anna
Zawiślak, Maciej
Górniak, Aleksander
description Purpose The purpose of this paper is to examine the toxicological impacts of exhaust generated during the combustion process of aviation fuel containing synthesized hydrocarbons. Design/methodology/approach Tests on aircraft turbine engines in full scale are complex and expensive. Therefore, a miniature turbojet engine was used in this paper as a source of exhaust gases. Toxicity was tested using innovative BAT–CELL Bio–Ambient Cell method, which consists of determination of real toxic impact of the exhaust gases on the human lung A549 and mouse L929 cells. The research was of a comparative nature. The engine was powered by a conventional jet fuel and a blend of conventional jet fuel with synthesized hydrocarbons. Findings The results show that the BAT–CELL method allows determination of the real exhaust toxicity during the combustion process in a turbine engine. The addition of a synthetic component to conventional jet fuel affected the reduction of toxicity of exhaust gases. It was confirmed for both tested cell lines. Originality/value In the literature related to the area of aviation, numerous publications in the field of testing the emission of exhaust gaseous components, particulates or volatile organic compounds can be found. However, there is a lack of research related to the evaluation of the real exhaust toxicity. In addition, it appears that the data given in aviation sector, mainly related to the emission levels of gaseous exhaust components (CO, Nox and HC) and particulate matters, might be insufficient. To fully describe the engine exhaust emissions, they should be supplemented with additional tests, i.e. in terms of toxicity.
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source Emerald A-Z Current Journals
subjects Aircraft
Aircraft engines
Aviation
Aviation fuel
Cell culture
Combustion
Emission analysis
Energy consumption
Evaluation
Exhaust gases
Gas turbine engines
Gases
Hydrocarbons
Jet engine fuels
Jet engines
Laboratory animals
Particulates
R&D
Research & development
Synthesis
Toxicity
Toxicity testing
Toxicology
Turbojet engines
VOCs
Volatile organic compounds
title Exhaust toxicity evaluation in a gas turbine engine fueled by aviation fuel containing synthesized hydrocarbons
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