Capacity Expansion of Gas Dehydration and Processing System via S-Turbo Train Debottlenecking Technology- A G-Field Success Story

Abstract The increasing global demand for clean energy sources has led to a surge in natural gas consumption. As the world transitions towards a low-carbon economy, the need for efficient and cost-effective gas processing technologies has become paramount. However, the escalating costs of building new gas facilities have created a significant challenge for the industry. This paper presents a novel solution to address this challenge, leveraging the S-Turbo Train debottlenecking technology to expand the capacity of existing gas dehydration systems. By optimizing the dehydration process, this innovative approach enables the increase of handling capacity by up to 100% for existing dehydration columns. The S-Turbo Train technology works by debottlenecking the dehydration system, allowing for better dehydration and reduced pressure drops. This results in a significant increase in capacity without requiring major modifications to the existing infrastructure. The proven advantages of this technology are multifaceted and includes Improved dehydration efficiency, enhanced performance of the dehydration system, ensuring higher quality gas production. 100% capacity increase possible for existing dehydration columns, enabling operators to meet growing demand without investing in new facilities. Reduction in CAPEX since there is no need for major infrastructure upgrades or new facility construction, resulting in significant capital expenditure savings. There is no additional OPEX because the technology does not introduce new operational expenses, ensuring that operating costs remain unchanged, rather reduce OPEX. Other empirical benefits include the compact design of the S-Turbo Train (STT) technology which minimizes the need for additional space, reducing the overall footprint of the facility. It also offers less carbon footprint by optimizing the dehydration process, the technology reduces energy consumption, resulting in a lower carbon footprint. Lastly, it enhanced safety since the technology minimizes the need for manual intervention, reducing safety exposure for personnel in brownfield facilities. The S-Turbo Train debottlenecking technology offers a game-changing solution for the gas industry, enabling operators to increase capacity, reduce costs, and minimize their environmental impact. This paper provides a comprehensive overview of the technology, its applications, highlighting its potential to revolutionize natural gas processing.

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Publication Details

Journal
SPE Nigeria Annual International Conference and Exhibition
Published
2025-08-04
DOI
https://doi.org/10.2118/228745-ms
Primary Topic
Maritime Transport Emissions and Efficiency
Type
article
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article

Capacity Expansion of Gas Dehydration and Processing System via S-Turbo Train Debottlenecking Technology- A G-Field Success Story

Bayo Balogun, Idaresit Udoaka, Igbigioyibo Memberr
SPE Nigeria Annual International Conference and Exhibition
Maritime Transport Emissions and Efficiency
article

Capacity Expansion of Gas Dehydration and Processing System via S-Turbo Train Debottlenecking Technology- A G-Field Success Story

Bayo Balogun, Idaresit Udoaka, Igbigioyibo Memberr
article en

Abstract

Abstract The increasing global demand for clean energy sources has led to a surge in natural gas consumption. As the world transitions towards a low-carbon economy, the need for efficient and cost-effective gas processing technologies has become paramount. However, the escalating costs of building new gas facilities have created a significant challenge for the industry. This paper presents a novel solution to address this challenge, leveraging the S-Turbo Train debottlenecking technology to expand the capacity of existing gas dehydration systems. By optimizing the dehydration process, this innovative approach enables the increase of handling capacity by up to 100% for existing dehydration columns. The S-Turbo Train technology works by debottlenecking the dehydration system, allowing for better dehydration and reduced pressure drops. This results in a significant increase in capacity without requiring major modifications to the existing infrastructure. The proven advantages of this technology are multifaceted and includes Improved dehydration efficiency, enhanced performance of the dehydration system, ensuring higher quality gas production. 100% capacity increase possible for existing dehydration columns, enabling operators to meet growing demand without investing in new facilities. Reduction in CAPEX since there is no need for major infrastructure upgrades or new facility construction, resulting in significant capital expenditure savings. There is no additional OPEX because the technology does not introduce new operational expenses, ensuring that operating costs remain unchanged, rather reduce OPEX. Other empirical benefits include the compact design of the S-Turbo Train (STT) technology which minimizes the need for additional space, reducing the overall footprint of the facility. It also offers less carbon footprint by optimizing the dehydration process, the technology reduces energy consumption, resulting in a lower carbon footprint. Lastly, it enhanced safety since the technology minimizes the need for manual intervention, reducing safety exposure for personnel in brownfield facilities. The S-Turbo Train debottlenecking technology offers a game-changing solution for the gas industry, enabling operators to increase capacity, reduce costs, and minimize their environmental impact. This paper provides a comprehensive overview of the technology, its applications, highlighting its potential to revolutionize natural gas processing.

SPE Nigeria Annual International Conference and Exhibition
Renaissance University (NG)
Openalex Percentile: Top 73%
Maritime Transport Emissions and Efficiency
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