Server maintenance is scheduled for Saturday, December 21st between 6am-10am CST.

During that time, parts of our website will be affected until maintenance is completed. Thank you for your patience.

Menu
Search
Filters
Close
Menu

Evaluation of A Rapid Solution For SRB Monitoring In Industrial Water System

Picture for Evaluation of A Rapid Solution For SRB Monitoring In Industrial Water System
Available for download

Uncontrolled growth of microorganisms in the oil field production systems have a major negative impact on the productivity and asset integrity in oil and gas industry. Sulphate-reducing bacteria (SRB) have been found as the most troublesome group of microorganisms among all organisms involved in MIC of carbon steel and other metals used in the oil industry (Abdullah et al 2014). The formation of SRB biofilm on steel surface can affect the kinetics of anodic and cathodic reactions, leading to an acceleration of steel corrosion (Beech and Sunner, 2004: Zuo,2007). In addition to that, SRB contributes to hydrogen sulfide-driven reservoir souring, increased suspended solids, reservoir plugging, etc., in oil field sites.

Product Number: 51322-17554-SG
Author: Khloud Alramadan, Joseph Puthuvelil, and Salman Al-Mutiry
Publication Date: 2022
Industries: Corrosion Monitoring and Control , Coatings
$0.00
$20.00
$20.00

Sulfate-reducing bacteria (SRB) have been found to be the most troublesome group of microorganisms involved in microbial induced corrosion (MIC) of carbon steel and other metals used in the oil and gas industry. Uncontrolled growth of microorganisms in the oil field production systems has a major negative impact on the productivity and asset integrity. For monitoring microbial SRB populations, the conventional NACE-TM0194 method; based on the most probable number theory (MPN) and serial dilution technique, is still followed where it can take up to 28 days to be completed. Thus, there is an interest in having a rapid and inexpensive method to assess the presence of SRB in different environments for the control of MIC and also for taking mitigation measures like the biocide injection. In this study, a commercial rapid sulfate reducing bacteria monitoring solution was applied as a novel strategy on water samples produced by Ghawar Field under Southern Area Oil Operations (SAOO) in Saudi Arabia, where we have compared this modern technique with the conventional MPN method. The comparative analysis showed that rapid SRB detection pouch technology can be implemented in quantifying SRB bacteria in all clean water systems including sea water, ground water, fire tank water, and cooling water where H2S is not present. The technology is showing a good correlation with the traditional MPN method with major advantages, such as reducing the time-to-result to three days, achieving cost saving, excellent tool to examine the effectiveness of biocide, the pouch formulation will work on all salinity (Total Dissolved Solids) levels, no interference from common oil field chemicals except H2S, easy to handle and easy to train.

Sulfate-reducing bacteria (SRB) have been found to be the most troublesome group of microorganisms involved in microbial induced corrosion (MIC) of carbon steel and other metals used in the oil and gas industry. Uncontrolled growth of microorganisms in the oil field production systems has a major negative impact on the productivity and asset integrity. For monitoring microbial SRB populations, the conventional NACE-TM0194 method; based on the most probable number theory (MPN) and serial dilution technique, is still followed where it can take up to 28 days to be completed. Thus, there is an interest in having a rapid and inexpensive method to assess the presence of SRB in different environments for the control of MIC and also for taking mitigation measures like the biocide injection. In this study, a commercial rapid sulfate reducing bacteria monitoring solution was applied as a novel strategy on water samples produced by Ghawar Field under Southern Area Oil Operations (SAOO) in Saudi Arabia, where we have compared this modern technique with the conventional MPN method. The comparative analysis showed that rapid SRB detection pouch technology can be implemented in quantifying SRB bacteria in all clean water systems including sea water, ground water, fire tank water, and cooling water where H2S is not present. The technology is showing a good correlation with the traditional MPN method with major advantages, such as reducing the time-to-result to three days, achieving cost saving, excellent tool to examine the effectiveness of biocide, the pouch formulation will work on all salinity (Total Dissolved Solids) levels, no interference from common oil field chemicals except H2S, easy to handle and easy to train.

Product tags
Also Purchased
Picture for Erosion Corrosion Phenomena In Oil And Gas Facilities: Evaluation And Monitoring
Available for download

Erosion Corrosion Phenomena In Oil And Gas Facilities: Evaluation And Monitoring

Product Number: 51322-17665-SG
Author: Raquel Araujo, Mioara Stroe, Kuate-Teku Rheingold, Igor Pipas, Francisco Mateus-Garcia, Laurent Dehays
Publication Date: 2022
$20.00

High flow velocity can have negative impact on the integrity of the oil and gas production equipment. This negative impact can manifest by the reduction of Corrosion Inhibitor (CI) efficiency: the higher the flow velocity, the lower the CI efficiency. The negative impact can also manifest by the occurrence of liquid erosion corrosion phenomena.
Picture for 10206 Effect of Water Content on the Growth of SRB in Crude Oil
Available for download

10206 Effect of Water Content on the Growth of SRB in Crude Oil

Product Number: 51300-10206-SG
ISBN: 10206 2010 CP
Author: Bente-Lise Lillebo, Egil Sunde, Terje Torsvik and Hans Kristian Hornnes
Publication Date: 2010
$20.00
Picture for Extending the Life of an Ageing Forty Two Years Old Offshore Wet Crude Pipeline
Available for download

Extending the Life of an Ageing Forty Two Years Old Offshore Wet Crude Pipeline

Product Number: 51322-17532-SG
Author: Faisal M. Al-Abbas, Qasim Saleem, Bander Al-Otaibi, Balasubramani Bakthavatchalu, Ebadul Haque
Publication Date: 2022
$20.00

The hydrocarbon exploration in the ocean and deep sea was started as early as early as the 1850s, when the first drilling was carried out in California, USA. Other early oil explorations activities were later recorded in Pakistan (1886), Peru (1869), India (1890) and Dutch East Indies (1893).1 In 1930s, the development of the Gulf of Mexico as an offshore area started with oil first being produced in 1938.1 The production from the North Sea brought more technical challenges to the offshore industry.
Categories
Industry
Recently viewed
Popular tags
View all

Association for Materials Protection and Performance

© AMPP All Rights Reserved.
Membership Terms of Content Use
Contact Customer Support