DOI: 10.5937/jaes18-27798
This is an open access article distributed under the
CC BY 4.0
Volume 18 article 709 pages: 427 - 431
Ekaterina Gennadievna Pakhomova*
Southwest State University, Faculty of Construction and Architecture, Department of Industrial and
Civil Construction, Kursk, Russian Federation
Grigorova Natalia Pavlovna
Southwest State University, Faculty of Construction and Architecture, Department of Heat, Gas and
Water Supply, Kursk, Russian Federation
Monastyrev Pavel Vladislavovich
Tambov State Technical University, Institute of Architecture, Construction and Transport, Department of Urban Construction and Motorways, Tambov, Russian Federation
Semicheva Natalia Evgenievna
Southwest State University, Faculty of Construction and Architecture, Department of Heat, Gas and
Water Supply, Kursk, Russian Federation
Experimental studies of fine drip moisture and contaminants influence in the heat carrier on the heat transfer coefficient in the vortex heat exchanger of the heating system of gas control room were described. Pilot studies were
carried out in two stages.
At the fi rst stage, the test values of coolant temperature decrease were analyzed due to heat removal for evaporation
and heat transfer coefficient under idealized conditions without taking into account the effect of fine moisture and
contaminants on the process of heat transfer to the blades in the vortex heat exchange apparatus.
At the second stage, the heat transfer coefficient was studied under conditions close to actual operating conditions
of vortex heat exchange element, when fine moisture and specific contaminants are in the natural gas which is in
contact with water.
As a result of the first stage of experimental studies, it was found that experimental values of heat carrier temperature
decrease due to heat extraction for liquid evaporation on the surface of swirling swirler blade in vortex heat exchanger
are slightly different from those determined theoretically. And they mainly decrease.
Analysis of the heat transfer coefficient values under idealized conditions, obtained experimentally and calculated
theoretically, shows their satisfactory convergence. This convergence is measurement error and data calculation.
As a result of the second stage of pilot studies it was revealed that availability of disperse moisture increases heat
transfer coefficient in 1,4÷1,9 times. There is evaporation temperature increase as the concentration of contaminants
bombarding the mirror of liquids increases. This fact also intensifies heat exchange process.
Thus, as a result of experimental studies, the possibility of using a vortex heat exchange apparatus in a heating system
of gas control station has been confirmed.
View article
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