Reduce CO2 Emission in Gas Flare
In industrial processes, particularly in oil and gas operations, managing emissions while maximizing efficiency is of paramount importance. The ever-increasing focus on environmental sustainability has led to innovative solutions for minimizing greenhouse gas emissions, notably carbon dioxide (CO2), during routine operations like gas flaring. One such cutting-edge solution involves an integrated system designed to harness fresh air, advanced sensor technology, and effective water treatment to significantly reduce CO2 emissions. This article outlines the essential materials and installation processes involved in this innovative system, highlighting its functionality and the underlying principles that make it effective. At the core of this system is a Variable Speed Drive System (VSDS) motor-controlled suction blower fan, which plays a crucial role in enhancing combustion efficiency by fostering optimal air supply to the flare head. This is complemented by a sealed water tank equipped with inlet and outlet valves, a level sensor, and a pressure gauge to monitor and control operational parameters. A dedicated smoke passage mixture pipeline ensures the controlled transfer of gas emissions to the water tank for subsequent treatment. Equipped with CO2 sensors strategically positioned to monitor gas levels throughout the system, this setup allows for real-time adjustments based on the concentration of CO2 in the smoke mixture. The setup employs a nebulization nozzle that fine sprays the smoke mixture into the water, facilitating the absorption of CO2 and minimizing harmful emissions. The water tank design is not only efficient but also functional, featuring a conical base that simplifies the removal of CO2-saturated water and enables easy maintenance.
Authors
- Stalin Rengarajan
- Sultan Muhayer Alkatbi
Institutions
- Abu Dhabi National Oil (United Arab Emirates) (AE)
Publication Details
- Published
- 2024-11-04
- DOI
- https://doi.org/10.2118/222708-ms
- Primary Topic
- Oil, Gas, and Environmental Issues
- Type
- article
- Field-Weighted Citation Impact
- 0.00