Advanced boil-off gas studies of liquefied natural gas used for the space and energy industries

Growing interest in liquefied natural gas (LNG) as a rocket fuel demands reliable prediction and an improved understanding of the changes in its composition arising from the preferential boil-off of lighter components during long duration storage. Unfortunately, current methods of predicting boil-of...

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Veröffentlicht in:Acta astronautica 2022-01, Vol.190, p.444-454
Hauptverfasser: Al Ghafri, Saif Z.S., Swanger, Adam, Park, Ki Heum, Jusko, Vincent, Ryu, Yonghee, Kim, Sungwoo, Kim, Sung Gyu, Zhang, Dongke, Seo, Yutaek, Johns, Michael L., May, Eric F.
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container_end_page 454
container_issue
container_start_page 444
container_title Acta astronautica
container_volume 190
creator Al Ghafri, Saif Z.S.
Swanger, Adam
Park, Ki Heum
Jusko, Vincent
Ryu, Yonghee
Kim, Sungwoo
Kim, Sung Gyu
Zhang, Dongke
Seo, Yutaek
Johns, Michael L.
May, Eric F.
description Growing interest in liquefied natural gas (LNG) as a rocket fuel demands reliable prediction and an improved understanding of the changes in its composition arising from the preferential boil-off of lighter components during long duration storage. Unfortunately, current methods of predicting boil-off gas (BOG) evolution from cryogenic liquids are based on limited experimental data. This work reports a series of new experiments which measure the temporal change in BOG production, composition, and pressure at industrially relevant conditions for both ternary mixtures of methane, ethane, and nitrogen and an LNG mixture used as rocket fuel. Faster pressure build-up rates are consistently observed with decreasing initial liquid volume fraction, whilst a decline of 8% in the LNG higher heating value was observed after thirty-three days of weathering. The data is compared with a robust and efficient superheated vapor (SHV) model, implemented in the software package BoilFAST, which allows for reliable calculations of self-pressurisation and boil-off losses for different tank geometries and thermal insulation systems. The model exhibits good agreement with the experimental data across all conditions explored. Finally, the potential effect of LNG composition and heating value changes on rocket engine performance was assessed by examining changes in the adiabatic flame temperature and burnt gas volume ratio. While our data suggest that the rocket engine performance would improve as a result of weathering, the effectiveness of the weathered LNG as a coolant in a regeneratively cooled rocket engine decreases. Two unique apparatuses providing comprehensive sets of data for LNG fuel boil-offBoil-off-gas (BOG) measurements of LNG mixtures conducted for various conditionsIn-depth analysis of pressure build-up, composition change and BOG ratesA robust model to predict the dynamic weathering of LNG fuelPotential effect of LNG composition changes on rocket engine performance
doi_str_mv 10.1016/j.actaastro.2021.10.028
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subjects Bogs
Boil-off gas
Calorific value
Combustion
Composition effects
Ethane
Experimental data
Flame temperature
Liquefied natural gas
LNG fuel
LNG weathering
Modelling
Natural gas
Rocket engine
Rocket engines
Rocket propellants
Storage tanks
Stratification
Thermal insulation
Weathering
title Advanced boil-off gas studies of liquefied natural gas used for the space and energy industries
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