Coriolis mass flow metering for three-phase flow: A case study
Previous work has described the use of Coriolis mass flow metering for two-phase (gas/liquid) flow. As the Coriolis meter provides both mass flow and density measurements, it is possible to resolve the mass flows of the gas and liquid in a two-phase mixture if their respective densities are known. T...
| Main Authors: | , , , |
|---|---|
| 格式: | Journal article |
| 語言: | English |
| 出版: |
2013
|
| _version_ | 1826267829493563392 |
|---|---|
| author | Henry, M Tombs, M Zamora, M Zhou, F |
| author_facet | Henry, M Tombs, M Zamora, M Zhou, F |
| author_sort | Henry, M |
| collection | OXFORD |
| description | Previous work has described the use of Coriolis mass flow metering for two-phase (gas/liquid) flow. As the Coriolis meter provides both mass flow and density measurements, it is possible to resolve the mass flows of the gas and liquid in a two-phase mixture if their respective densities are known. To apply Coriolis metering to a three-phase (oil/water/gas) mixture, an additional measurement is required. In the work described in this paper, a water cut meter is used to indicate what proportion of the liquid flow is water. This provides sufficient information to calculate the mass flows of the water, oil and gas components. This paper is believed to be the first to detail an implementation of three-phase flow metering using Coriolis technology where phase separation is not applied. Trials have taken place at the UK National Flow Standards Laboratory three-phase facility, on a commercial three-phase meter based on the Coriolis meter/water cut measurement principle. For the 50. mm metering system, the total liquid flow rate ranged from 2.4. kg/s up to 11. kg/s, the water cut ranged from 0% to 100%, and the gas volume fraction (GVF) from 0 to 50%. In a formally observed trial, 75 test points were taken at a temperature of approximately 40. °C and with a skid inlet pressure of approximately 350. kPa. Over 95% of the test results fell within the desired specification, defined as follows: the total (oil+water) liquid mass flow error should fall within ±2.5%, and the gas mass flow error within ±5.0%. The oil mass flow error limit is ±6.0% for water cuts less than 70%, while for water cuts between 70% and 95% the oil mass flow error limit is ±15.0%. These results demonstrate the potential for using Coriolis mass flow metering combined with water cut metering for three-phase (oil/water/gas) measurement. © 2013 Elsevier Ltd. |
| first_indexed | 2024-03-06T21:00:13Z |
| format | Journal article |
| id | oxford-uuid:3aa1f3cf-1e4f-4f14-8db9-3e5f0d416a9c |
| institution | University of Oxford |
| language | English |
| last_indexed | 2024-03-06T21:00:13Z |
| publishDate | 2013 |
| record_format | dspace |
| spelling | oxford-uuid:3aa1f3cf-1e4f-4f14-8db9-3e5f0d416a9c2022-03-26T14:02:45ZCoriolis mass flow metering for three-phase flow: A case studyJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:3aa1f3cf-1e4f-4f14-8db9-3e5f0d416a9cEnglishSymplectic Elements at Oxford2013Henry, MTombs, MZamora, MZhou, FPrevious work has described the use of Coriolis mass flow metering for two-phase (gas/liquid) flow. As the Coriolis meter provides both mass flow and density measurements, it is possible to resolve the mass flows of the gas and liquid in a two-phase mixture if their respective densities are known. To apply Coriolis metering to a three-phase (oil/water/gas) mixture, an additional measurement is required. In the work described in this paper, a water cut meter is used to indicate what proportion of the liquid flow is water. This provides sufficient information to calculate the mass flows of the water, oil and gas components. This paper is believed to be the first to detail an implementation of three-phase flow metering using Coriolis technology where phase separation is not applied. Trials have taken place at the UK National Flow Standards Laboratory three-phase facility, on a commercial three-phase meter based on the Coriolis meter/water cut measurement principle. For the 50. mm metering system, the total liquid flow rate ranged from 2.4. kg/s up to 11. kg/s, the water cut ranged from 0% to 100%, and the gas volume fraction (GVF) from 0 to 50%. In a formally observed trial, 75 test points were taken at a temperature of approximately 40. °C and with a skid inlet pressure of approximately 350. kPa. Over 95% of the test results fell within the desired specification, defined as follows: the total (oil+water) liquid mass flow error should fall within ±2.5%, and the gas mass flow error within ±5.0%. The oil mass flow error limit is ±6.0% for water cuts less than 70%, while for water cuts between 70% and 95% the oil mass flow error limit is ±15.0%. These results demonstrate the potential for using Coriolis mass flow metering combined with water cut metering for three-phase (oil/water/gas) measurement. © 2013 Elsevier Ltd. |
| spellingShingle | Henry, M Tombs, M Zamora, M Zhou, F Coriolis mass flow metering for three-phase flow: A case study |
| title | Coriolis mass flow metering for three-phase flow: A case study |
| title_full | Coriolis mass flow metering for three-phase flow: A case study |
| title_fullStr | Coriolis mass flow metering for three-phase flow: A case study |
| title_full_unstemmed | Coriolis mass flow metering for three-phase flow: A case study |
| title_short | Coriolis mass flow metering for three-phase flow: A case study |
| title_sort | coriolis mass flow metering for three phase flow a case study |
| work_keys_str_mv | AT henrym coriolismassflowmeteringforthreephaseflowacasestudy AT tombsm coriolismassflowmeteringforthreephaseflowacasestudy AT zamoram coriolismassflowmeteringforthreephaseflowacasestudy AT zhouf coriolismassflowmeteringforthreephaseflowacasestudy |