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The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Published

Standard

The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator. / Ahmed, Tariq; Russell, Paul; Makwashi, Nura et al.
In: SPE Production and Operation, Vol. 36, No. 4, 10.11.2021, p. 962-975.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

Ahmed, T, Russell, P, Makwashi, N, Hamad, F & Gooneratne, S 2021, 'The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator', SPE Production and Operation, vol. 36, no. 4, pp. 962-975. https://doi.org/10.2118/205517-PA

APA

Ahmed, T., Russell, P., Makwashi, N., Hamad, F., & Gooneratne, S. (2021). The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator. SPE Production and Operation, 36(4), 962-975. https://doi.org/10.2118/205517-PA

Vancouver

Ahmed T, Russell P, Makwashi N, Hamad F, Gooneratne S. The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator. SPE Production and Operation. 2021 Nov 10;36(4):962-975. Epub 2021 Jun 28. doi: 10.2118/205517-PA

Author

Ahmed, Tariq ; Russell, Paul ; Makwashi, Nura et al. / The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator. In: SPE Production and Operation. 2021 ; Vol. 36, No. 4. pp. 962-975.

Bibtex

@article{24c811df8b884f0c91469b453300f325,
title = "The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator",
abstract = "In the first part of this work, the development of a capital cost optimization model for sizing three-phase separators was described. The developed model uses generalized reduced gradient nonlinear algorithms to determine the minimum cost associated with the construction of horizontal separators subject to four sets of constraints. In the second part, an experimental test rig was designed and used to investigate the effect of gas flow rate, liquid flow rate, and slenderness ratio (L/D) on the separation performance of horizontal three-phase separators. The results indicated an inverse relationship between an increase in gas and liquid flow rate and the separator outlet quality. It also indicated a direct relationship between an increase in slenderness ratio and separator outlet quality. The results also showed that the gradient change of the percentage of water in the oil outlet with respect to slenderness ratio decreased to ratios of 6:1. Hence, the separation rate increased. At ratios greater than 6:1, the separation still increases, but the gradient change in separation drops off, implying that the benefit in terms of separation is diminishing beyond this point. Therefore, the optimal slenderness ratio for technical reasons is 6:1.",
keywords = "Separation and Treating, residence time, separation",
author = "Tariq Ahmed and Paul Russell and Nura Makwashi and Faik Hamad and Samantha Gooneratne",
year = "2021",
month = nov,
day = "10",
doi = "10.2118/205517-PA",
language = "English",
volume = "36",
pages = "962--975",
journal = "SPE Production and Operation",
issn = "1930-1855",
publisher = "Society of Petroleum Engineers (SPE)",
number = "4",

}

RIS

TY - JOUR

T1 - The Effects of Inlet Flow Rates and Slenderness Ratio on the Separation Performance of a Horizontal Three-Phase Separator

AU - Ahmed, Tariq

AU - Russell, Paul

AU - Makwashi, Nura

AU - Hamad, Faik

AU - Gooneratne, Samantha

PY - 2021/11/10

Y1 - 2021/11/10

N2 - In the first part of this work, the development of a capital cost optimization model for sizing three-phase separators was described. The developed model uses generalized reduced gradient nonlinear algorithms to determine the minimum cost associated with the construction of horizontal separators subject to four sets of constraints. In the second part, an experimental test rig was designed and used to investigate the effect of gas flow rate, liquid flow rate, and slenderness ratio (L/D) on the separation performance of horizontal three-phase separators. The results indicated an inverse relationship between an increase in gas and liquid flow rate and the separator outlet quality. It also indicated a direct relationship between an increase in slenderness ratio and separator outlet quality. The results also showed that the gradient change of the percentage of water in the oil outlet with respect to slenderness ratio decreased to ratios of 6:1. Hence, the separation rate increased. At ratios greater than 6:1, the separation still increases, but the gradient change in separation drops off, implying that the benefit in terms of separation is diminishing beyond this point. Therefore, the optimal slenderness ratio for technical reasons is 6:1.

AB - In the first part of this work, the development of a capital cost optimization model for sizing three-phase separators was described. The developed model uses generalized reduced gradient nonlinear algorithms to determine the minimum cost associated with the construction of horizontal separators subject to four sets of constraints. In the second part, an experimental test rig was designed and used to investigate the effect of gas flow rate, liquid flow rate, and slenderness ratio (L/D) on the separation performance of horizontal three-phase separators. The results indicated an inverse relationship between an increase in gas and liquid flow rate and the separator outlet quality. It also indicated a direct relationship between an increase in slenderness ratio and separator outlet quality. The results also showed that the gradient change of the percentage of water in the oil outlet with respect to slenderness ratio decreased to ratios of 6:1. Hence, the separation rate increased. At ratios greater than 6:1, the separation still increases, but the gradient change in separation drops off, implying that the benefit in terms of separation is diminishing beyond this point. Therefore, the optimal slenderness ratio for technical reasons is 6:1.

KW - Separation and Treating

KW - residence time

KW - separation

U2 - 10.2118/205517-PA

DO - 10.2118/205517-PA

M3 - Journal article

VL - 36

SP - 962

EP - 975

JO - SPE Production and Operation

JF - SPE Production and Operation

SN - 1930-1855

IS - 4

ER -