Sewage Sludge-Derived Producer Gas Valorization with the Use of Atmospheric Microwave Plasma

Atmospheric microwave plasma was applied to the processing of the partially cleaned producer gas obtained from sewage sludge gasification. The plasma processing resulted in residual tar compounds conversion and changes in the gas composition. During the tests with a different gas flow rates and micr...

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Veröffentlicht in:Waste and biomass valorization 2020-08, Vol.11 (8), p.4289-4303
Hauptverfasser: Wnukowski, Mateusz, Kordylewski, Włodzimierz, Łuszkiewicz, Dariusz, Leśniewicz, Anna, Ociepa, Mirosław, Michalski, Józef
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container_end_page 4303
container_issue 8
container_start_page 4289
container_title Waste and biomass valorization
container_volume 11
creator Wnukowski, Mateusz
Kordylewski, Włodzimierz
Łuszkiewicz, Dariusz
Leśniewicz, Anna
Ociepa, Mirosław
Michalski, Józef
description Atmospheric microwave plasma was applied to the processing of the partially cleaned producer gas obtained from sewage sludge gasification. The plasma processing resulted in residual tar compounds conversion and changes in the gas composition. During the tests with a different gas flow rates and microwave power inputs, liquid and gaseous samples were collected to evaluate the plasma reactor’s performance. The conversion efficiency ranged from 19 to 100% and it depended on the specific energy input ( SEI ), gas flow rate, initial tar concentration, and the nature of the tars compounds. Generally, it was shown that the conversion rate increased with the SEI and that the aliphatic, cyclic and substituted compounds were converted much easier than benzene. Moreover, applying plasma led to the production of heavier aromatics (i.e. naphthalene, indene, acenaphthylene) but the rise in their concentration was significantly smaller than the amount of converted compounds. The gas composition changes revealed in the increase of H 2 and CO concentration that was an effect of hydrocarbons and CO 2 conversion. Additionally, it was indicated that the microwave plasma reactor’s performance was noticeably worse than in the case of the laboratory test with a simulated producer gas. This was mainly attributed to differences in the reactors’ geometry, lower hydrogen concentration and the presence of inorganic deposit on the reactor’s walls that might have inhibited microwaves transfer. In general, the microwave plasma technology seems promising in the context of cleaning and upgrading the producer gas, however, further optimization research is necessary to make it more reliable and less energy consuming. Graphic Abstract
doi_str_mv 10.1007/s12649-019-00767-x
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The plasma processing resulted in residual tar compounds conversion and changes in the gas composition. During the tests with a different gas flow rates and microwave power inputs, liquid and gaseous samples were collected to evaluate the plasma reactor’s performance. The conversion efficiency ranged from 19 to 100% and it depended on the specific energy input ( SEI ), gas flow rate, initial tar concentration, and the nature of the tars compounds. Generally, it was shown that the conversion rate increased with the SEI and that the aliphatic, cyclic and substituted compounds were converted much easier than benzene. Moreover, applying plasma led to the production of heavier aromatics (i.e. naphthalene, indene, acenaphthylene) but the rise in their concentration was significantly smaller than the amount of converted compounds. The gas composition changes revealed in the increase of H 2 and CO concentration that was an effect of hydrocarbons and CO 2 conversion. Additionally, it was indicated that the microwave plasma reactor’s performance was noticeably worse than in the case of the laboratory test with a simulated producer gas. This was mainly attributed to differences in the reactors’ geometry, lower hydrogen concentration and the presence of inorganic deposit on the reactor’s walls that might have inhibited microwaves transfer. In general, the microwave plasma technology seems promising in the context of cleaning and upgrading the producer gas, however, further optimization research is necessary to make it more reliable and less energy consuming. 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subjects Aliphatic compounds
Aromatic compounds
Benzene
Carbon dioxide
Cleaning
Conversion
Engineering
Environment
Environmental Engineering/Biotechnology
Flow rates
Flow velocity
Gas composition
Gas flow
Gasification
Indene
Industrial Pollution Prevention
Laboratory tests
Microwave plasmas
Microwaves
Naphthalene
Optimization
Original Paper
Plasma
Plasma processing
Producer gas
Reactors
Renewable and Green Energy
Sewage sludge
Sewer gas
Tar
Tars
Waste Management/Waste Technology
title Sewage Sludge-Derived Producer Gas Valorization with the Use of Atmospheric Microwave Plasma
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