Gas Hydrate Growth Kinetics: A Parametric Study

Gas hydrate growth kinetics was studied at a pressure of 90 bars to investigate the effect of temperature, initial water content, stirring rate, and reactor size in stirred semi-batch autoclave reactors. The mixing energy during hydrate growth was estimated by logging the power consumed. The theoret...

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Published in:Energies
Main Authors: Remi-Erempagamo Tariyemienyo Meindinyo, Thor Martin Svartaas
Format: Article in Journal/Newspaper
Language:English
Published: MDPI AG 2016
Subjects:
T
Online Access:https://doi.org/10.3390/en9121021
https://doaj.org/article/fee1fdb4825144ed8bdcdba861086252
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spelling ftdoajarticles:oai:doaj.org/article:fee1fdb4825144ed8bdcdba861086252 2023-05-15T17:12:06+02:00 Gas Hydrate Growth Kinetics: A Parametric Study Remi-Erempagamo Tariyemienyo Meindinyo Thor Martin Svartaas 2016-12-01T00:00:00Z https://doi.org/10.3390/en9121021 https://doaj.org/article/fee1fdb4825144ed8bdcdba861086252 EN eng MDPI AG http://www.mdpi.com/1996-1073/9/12/1021 https://doaj.org/toc/1996-1073 1996-1073 doi:10.3390/en9121021 https://doaj.org/article/fee1fdb4825144ed8bdcdba861086252 Energies, Vol 9, Iss 12, p 1021 (2016) methane hydrate growth kinetics factors that affect gas hydrate growth rate reactor scale-up temperature stirring rate water content mass and heat transfer Technology T article 2016 ftdoajarticles https://doi.org/10.3390/en9121021 2022-12-30T20:08:01Z Gas hydrate growth kinetics was studied at a pressure of 90 bars to investigate the effect of temperature, initial water content, stirring rate, and reactor size in stirred semi-batch autoclave reactors. The mixing energy during hydrate growth was estimated by logging the power consumed. The theoretical model by Garcia-Ochoa and Gomez for estimation of the mass transfer parameters in stirred tanks has been used to evaluate the dispersion parameters of the system. The mean bubble size, impeller power input per unit volume, and impeller Reynold’s number/tip velocity were used for analyzing observed trends from the gas hydrate growth data. The growth behavior was analyzed based on the gas consumption and the growth rate per unit initial water content. The results showed that the growth rate strongly depended on the flow pattern in the cell, the gas-liquid mass transfer characteristics, and the mixing efficiency from stirring. Scale-up effects indicate that maintaining the growth rate per unit volume of reactants upon scale-up with geometric similarity does not depend only on gas dispersion in the liquid phase but may rather be a function of the specific thermal conductance, and heat and mass transfer limitations created by the limit to the degree of the liquid phase dispersion is batched and semi-batched stirred tank reactors. Article in Journal/Newspaper Methane hydrate Directory of Open Access Journals: DOAJ Articles Gomez ENVELOPE(-58.795,-58.795,-62.196,-62.196) Energies 9 12 1021
institution Open Polar
collection Directory of Open Access Journals: DOAJ Articles
op_collection_id ftdoajarticles
language English
topic methane hydrate growth kinetics
factors that affect gas hydrate growth rate
reactor scale-up
temperature
stirring rate
water content
mass and heat transfer
Technology
T
spellingShingle methane hydrate growth kinetics
factors that affect gas hydrate growth rate
reactor scale-up
temperature
stirring rate
water content
mass and heat transfer
Technology
T
Remi-Erempagamo Tariyemienyo Meindinyo
Thor Martin Svartaas
Gas Hydrate Growth Kinetics: A Parametric Study
topic_facet methane hydrate growth kinetics
factors that affect gas hydrate growth rate
reactor scale-up
temperature
stirring rate
water content
mass and heat transfer
Technology
T
description Gas hydrate growth kinetics was studied at a pressure of 90 bars to investigate the effect of temperature, initial water content, stirring rate, and reactor size in stirred semi-batch autoclave reactors. The mixing energy during hydrate growth was estimated by logging the power consumed. The theoretical model by Garcia-Ochoa and Gomez for estimation of the mass transfer parameters in stirred tanks has been used to evaluate the dispersion parameters of the system. The mean bubble size, impeller power input per unit volume, and impeller Reynold’s number/tip velocity were used for analyzing observed trends from the gas hydrate growth data. The growth behavior was analyzed based on the gas consumption and the growth rate per unit initial water content. The results showed that the growth rate strongly depended on the flow pattern in the cell, the gas-liquid mass transfer characteristics, and the mixing efficiency from stirring. Scale-up effects indicate that maintaining the growth rate per unit volume of reactants upon scale-up with geometric similarity does not depend only on gas dispersion in the liquid phase but may rather be a function of the specific thermal conductance, and heat and mass transfer limitations created by the limit to the degree of the liquid phase dispersion is batched and semi-batched stirred tank reactors.
format Article in Journal/Newspaper
author Remi-Erempagamo Tariyemienyo Meindinyo
Thor Martin Svartaas
author_facet Remi-Erempagamo Tariyemienyo Meindinyo
Thor Martin Svartaas
author_sort Remi-Erempagamo Tariyemienyo Meindinyo
title Gas Hydrate Growth Kinetics: A Parametric Study
title_short Gas Hydrate Growth Kinetics: A Parametric Study
title_full Gas Hydrate Growth Kinetics: A Parametric Study
title_fullStr Gas Hydrate Growth Kinetics: A Parametric Study
title_full_unstemmed Gas Hydrate Growth Kinetics: A Parametric Study
title_sort gas hydrate growth kinetics: a parametric study
publisher MDPI AG
publishDate 2016
url https://doi.org/10.3390/en9121021
https://doaj.org/article/fee1fdb4825144ed8bdcdba861086252
long_lat ENVELOPE(-58.795,-58.795,-62.196,-62.196)
geographic Gomez
geographic_facet Gomez
genre Methane hydrate
genre_facet Methane hydrate
op_source Energies, Vol 9, Iss 12, p 1021 (2016)
op_relation http://www.mdpi.com/1996-1073/9/12/1021
https://doaj.org/toc/1996-1073
1996-1073
doi:10.3390/en9121021
https://doaj.org/article/fee1fdb4825144ed8bdcdba861086252
op_doi https://doi.org/10.3390/en9121021
container_title Energies
container_volume 9
container_issue 12
container_start_page 1021
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