Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol
Water content in natural gas poses threat to process facilities such as column distillation. Natural gas from reservoirs usually contains water vapor, the presence of water vapor in gas processing causes bad impact to process facilities. Dry Gas composition data was taken from Salamander Energy. Opt...
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doaj-dea27100d1b3481f9ec0e204ed979d322020-11-25T02:40:45ZengUniversitas Islam Riau (UIR) PressJournal of Earth Energy Engineering2301-80972540-93522018-04-0171111810.25299/jeee.2018.vol7(1).981Dehydration Simulation of Natural Gas by using Tri Ethylene GlycolEric Farda0Akademi Migas BalonganWater content in natural gas poses threat to process facilities such as column distillation. Natural gas from reservoirs usually contains water vapor, the presence of water vapor in gas processing causes bad impact to process facilities. Dry Gas composition data was taken from Salamander Energy. Optimization of natural gas dehydration using Tri Ethylene Glycol was carried out using Aspen HYSYS V8.6 with Peng-Robinson fluid package. The natural gas dehydrating plant was designed with operating conditions of 394 bar and 460C and 10 MMSCFD and 6.8 MMSCFD gas flow rate were inputted. Results obtained from HYSYS simulation shows. Three different TEG flowrates were used for this simulation. Results obtained from simulation that . For the purpose of running the plant economically, the minimum flow rate of TEG which will reduce the water content to within the limit of pipeline specification, is very important and the result obtained showed that a minimum of 3 m3/h of TEG is required to reduce the water content of a gas stream of 10MMSCFD to 6.8lb/MMSCFD, which is within the limit of 6-7lb/MMSCFD, this value when compare to gas plant which uses 15m3/h for the gas stream of 10MMSCFD to achieve the same water content specification is far lower. Values below this flow rate (3.5m3/h) may not reduce the water content to the specified limit.https://journal.uir.ac.id/index.php/JEEE/article/view/981dehydrationtri ethylene glycolnatural gasabsorberstripperreboilerheat exchanger |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Eric Farda |
spellingShingle |
Eric Farda Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol Journal of Earth Energy Engineering dehydration tri ethylene glycol natural gas absorber stripper reboiler heat exchanger |
author_facet |
Eric Farda |
author_sort |
Eric Farda |
title |
Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol |
title_short |
Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol |
title_full |
Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol |
title_fullStr |
Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol |
title_full_unstemmed |
Dehydration Simulation of Natural Gas by using Tri Ethylene Glycol |
title_sort |
dehydration simulation of natural gas by using tri ethylene glycol |
publisher |
Universitas Islam Riau (UIR) Press |
series |
Journal of Earth Energy Engineering |
issn |
2301-8097 2540-9352 |
publishDate |
2018-04-01 |
description |
Water content in natural gas poses threat to process facilities such as column distillation. Natural gas from reservoirs usually contains water vapor, the presence of water vapor in gas processing causes bad impact to process facilities. Dry Gas composition data was taken from Salamander Energy. Optimization of natural gas dehydration using Tri Ethylene Glycol was carried out using Aspen HYSYS V8.6 with Peng-Robinson fluid package. The natural gas dehydrating plant was designed with operating conditions of 394 bar and 460C and 10 MMSCFD and 6.8 MMSCFD gas flow rate were inputted. Results obtained from HYSYS simulation shows. Three different TEG flowrates were used for this simulation. Results obtained from simulation that . For the purpose of running the plant economically, the minimum flow rate of TEG which will reduce the water content to within the limit of pipeline specification, is very important and the result obtained showed that a minimum of 3 m3/h of TEG is required to reduce the water content of a gas stream of 10MMSCFD to 6.8lb/MMSCFD, which is within the limit of 6-7lb/MMSCFD, this value when compare to gas plant which uses 15m3/h for the gas stream of 10MMSCFD to achieve the same water content specification is far lower. Values below this flow rate (3.5m3/h) may not reduce the water content to the specified limit. |
topic |
dehydration tri ethylene glycol natural gas absorber stripper reboiler heat exchanger |
url |
https://journal.uir.ac.id/index.php/JEEE/article/view/981 |
work_keys_str_mv |
AT ericfarda dehydrationsimulationofnaturalgasbyusingtriethyleneglycol |
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1724780021247115264 |