Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field

A number of international, European Union and Latvian legislative acts have been developed, which regulate the efficiency of gas combustion plants and greenhouse gas emissions in the atmosphere. These legislative acts require the development of new scientifically efficient methods for gas optimal co...

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Main Authors: Krickis O., Zeltins N.
Format: Article
Language:English
Published: Sciendo 2019-08-01
Series:Latvian Journal of Physics and Technical Sciences
Subjects:
Online Access:https://doi.org/10.2478/lpts-2019-0021
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spelling doaj-59495f2a5aa94592b854281774878eff2021-09-06T19:22:27ZengSciendoLatvian Journal of Physics and Technical Sciences0868-82572019-08-0156431610.2478/lpts-2019-0021lpts-2019-0021Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic FieldKrickis O.0Zeltins N.1Riga Technical University, Department of Heat and Power Engineering Systems, 6B Kipsalas Str., Riga, LV-1048, LatviaRiga Technical University, Faculty of Power and Electrical Engineering, Institute of Power Engineering, 12-1 Azenes Str., Riga, LV-1048, LatviaA number of international, European Union and Latvian legislative acts have been developed, which regulate the efficiency of gas combustion plants and greenhouse gas emissions in the atmosphere. These legislative acts require the development of new scientifically efficient methods for gas optimal combustion with a minor impact on the environment. In order to achieve such a goal, different methods can be used, but the most efficient is an intensive electrostatic field application to control combustion and harmful emission formation in premixed flames. In the framework of the current study, the authors developed a hybrid burner, which allowed generating an intensive electrostatic field with intensity of more than 1000 kV/m. The study also investigated the impact of such a field on the formation of harmful emissions, including CO2 and flue gas temperature. The empirical results showed that an intensive DC electrostatic field generated inside of the burner had an impact on the flame shape, CO2, NOx emissions and flue gas temperature. In its turn, by applying an intensive pulsating electrostatic field (multivariable experiment) it was possible to achieve the reduction in NOx, CO emissions with a simultaneous increase in flue gas temperature, which was related to combustion process efficiency enhancement.https://doi.org/10.2478/lpts-2019-0021electrostatic fieldemissionsgas combustionionic wind
collection DOAJ
language English
format Article
sources DOAJ
author Krickis O.
Zeltins N.
spellingShingle Krickis O.
Zeltins N.
Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
Latvian Journal of Physics and Technical Sciences
electrostatic field
emissions
gas combustion
ionic wind
author_facet Krickis O.
Zeltins N.
author_sort Krickis O.
title Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
title_short Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
title_full Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
title_fullStr Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
title_full_unstemmed Gas Combustion Efficiency Enhancement: Application Study of Intense Elestrostatic Field
title_sort gas combustion efficiency enhancement: application study of intense elestrostatic field
publisher Sciendo
series Latvian Journal of Physics and Technical Sciences
issn 0868-8257
publishDate 2019-08-01
description A number of international, European Union and Latvian legislative acts have been developed, which regulate the efficiency of gas combustion plants and greenhouse gas emissions in the atmosphere. These legislative acts require the development of new scientifically efficient methods for gas optimal combustion with a minor impact on the environment. In order to achieve such a goal, different methods can be used, but the most efficient is an intensive electrostatic field application to control combustion and harmful emission formation in premixed flames. In the framework of the current study, the authors developed a hybrid burner, which allowed generating an intensive electrostatic field with intensity of more than 1000 kV/m. The study also investigated the impact of such a field on the formation of harmful emissions, including CO2 and flue gas temperature. The empirical results showed that an intensive DC electrostatic field generated inside of the burner had an impact on the flame shape, CO2, NOx emissions and flue gas temperature. In its turn, by applying an intensive pulsating electrostatic field (multivariable experiment) it was possible to achieve the reduction in NOx, CO emissions with a simultaneous increase in flue gas temperature, which was related to combustion process efficiency enhancement.
topic electrostatic field
emissions
gas combustion
ionic wind
url https://doi.org/10.2478/lpts-2019-0021
work_keys_str_mv AT krickiso gascombustionefficiencyenhancementapplicationstudyofintenseelestrostaticfield
AT zeltinsn gascombustionefficiencyenhancementapplicationstudyofintenseelestrostaticfield
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