MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE

Hydrate film growth has been examined at the hydrocarbon/water interface for cyclopentane and methane hydrate. Video microscopy was used to measure hydrate film thickness, propagation rate across the hydrocarbon/water interface and gas consumption measurements characterized the hydrate formation mec...

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Main Authors: Taylor, Craig J., Miller, Kelly T., Koh, Carolyn A., Sloan, E. Dendy
Other Authors: University of British Columbia. Department of Chemical and Biological Engineering, International Conference on Gas Hydrates (6th : 2008 : Vancouver, B.C.)
Format: Conference Object
Language:English
Published: 2008
Subjects:
Online Access:http://hdl.handle.net/2429/1140
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spelling ftunivbritcolcir:oai:circle.library.ubc.ca:2429/1140 2023-05-15T17:11:44+02:00 MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE Taylor, Craig J. Miller, Kelly T. Koh, Carolyn A. Sloan, E. Dendy University of British Columbia. Department of Chemical and Biological Engineering International Conference on Gas Hydrates (6th : 2008 : Vancouver, B.C.) 2008-07 708885 bytes application/pdf http://hdl.handle.net/2429/1140 eng eng Attribution-NonCommercial-NoDerivatives 4.0 International http://creativecommons.org/licenses/by-nc-nd/4.0/ Sloan, E. Dendy Koh, Carolyn A. Sum, Amadeu CC-BY-NC-ND Clathrate hydrate Crystallization Hydrate film formation Optical microscopy Text Conference Paper 2008 ftunivbritcolcir 2019-10-15T17:43:35Z Hydrate film growth has been examined at the hydrocarbon/water interface for cyclopentane and methane hydrate. Video microscopy was used to measure hydrate film thickness, propagation rate across the hydrocarbon/water interface and gas consumption measurements characterized the hydrate formation mechanism. Cyclopentane and methane hydrate film formation were measured over the temperature range of 260–279K and pressure range of atmospheric to 8.3MPa. Hydrate formation was initiated by the propagation of a thin, porous film across the hydrocarbon/water interface. The propagation rate and thickening of the hydrate film was strongly dependent on the hydrate former solubility in the aqueous phase, in the absence and presence of hydrate. Cyclopentane hydrate film thickness began at ~12 μm and grew to a final thickness (15–40 μm) which increased with subcooling. Methane hydrate film thickness began at ~ 5 μm and grew to a final thickness (20–100 μm) which also increased with subcooling. The hydrate film grew into the water phase. Gas consumption measurements indicated that the aqueous phase supplied hydrate former during the initial hydrate growth, and the free gas supplied the hydrate former for film thickening and development. Hydrate film formation at the hydrocarbon/water interface was proposed to consist of three consecutive stages: propagation, development and bulk conversion. Non UBC Unreviewed Conference Object Methane hydrate University of British Columbia: cIRcle - UBC's Information Repository
institution Open Polar
collection University of British Columbia: cIRcle - UBC's Information Repository
op_collection_id ftunivbritcolcir
language English
topic Clathrate hydrate
Crystallization
Hydrate film formation
Optical microscopy
spellingShingle Clathrate hydrate
Crystallization
Hydrate film formation
Optical microscopy
Taylor, Craig J.
Miller, Kelly T.
Koh, Carolyn A.
Sloan, E. Dendy
MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
topic_facet Clathrate hydrate
Crystallization
Hydrate film formation
Optical microscopy
description Hydrate film growth has been examined at the hydrocarbon/water interface for cyclopentane and methane hydrate. Video microscopy was used to measure hydrate film thickness, propagation rate across the hydrocarbon/water interface and gas consumption measurements characterized the hydrate formation mechanism. Cyclopentane and methane hydrate film formation were measured over the temperature range of 260–279K and pressure range of atmospheric to 8.3MPa. Hydrate formation was initiated by the propagation of a thin, porous film across the hydrocarbon/water interface. The propagation rate and thickening of the hydrate film was strongly dependent on the hydrate former solubility in the aqueous phase, in the absence and presence of hydrate. Cyclopentane hydrate film thickness began at ~12 μm and grew to a final thickness (15–40 μm) which increased with subcooling. Methane hydrate film thickness began at ~ 5 μm and grew to a final thickness (20–100 μm) which also increased with subcooling. The hydrate film grew into the water phase. Gas consumption measurements indicated that the aqueous phase supplied hydrate former during the initial hydrate growth, and the free gas supplied the hydrate former for film thickening and development. Hydrate film formation at the hydrocarbon/water interface was proposed to consist of three consecutive stages: propagation, development and bulk conversion. Non UBC Unreviewed
author2 University of British Columbia. Department of Chemical and Biological Engineering
International Conference on Gas Hydrates (6th : 2008 : Vancouver, B.C.)
format Conference Object
author Taylor, Craig J.
Miller, Kelly T.
Koh, Carolyn A.
Sloan, E. Dendy
author_facet Taylor, Craig J.
Miller, Kelly T.
Koh, Carolyn A.
Sloan, E. Dendy
author_sort Taylor, Craig J.
title MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
title_short MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
title_full MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
title_fullStr MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
title_full_unstemmed MACROSCOPIC INVESTIGATION OF HYDRATE FILM GROWTH AT THE HYDROCARBON/WATER INTERFACE
title_sort macroscopic investigation of hydrate film growth at the hydrocarbon/water interface
publishDate 2008
url http://hdl.handle.net/2429/1140
genre Methane hydrate
genre_facet Methane hydrate
op_rights Attribution-NonCommercial-NoDerivatives 4.0 International
http://creativecommons.org/licenses/by-nc-nd/4.0/
Sloan, E. Dendy
Koh, Carolyn A.
Sum, Amadeu
op_rightsnorm CC-BY-NC-ND
_version_ 1766068499624493056