Menu
Search
Filters
Close
Menu

02338 CONTROL OF MICROBIALLY INDUCED CORROSION IN SEAWATER INJECTION SYSTEMS USING ELECTROCHEMICAL NOISE TECHNOLOGY

Picture for 02338 CONTROL OF MICROBIALLY INDUCED CORROSION...
Available for download
Product Number: 51300-02338-SG
ISBN: 02338 2002 CP
Author: David A. Eden and Stuart S. Moody
$0.00
$20.00
$20.00
Electrochemical techniques including linear polarisation resistance, harmonic distortion analysis and electrochemical noise have been used to study the corrosion of carbon steel due to sulphate reducing bacteria (SRB) in typical seawater injection systems. The effects of SRB activity on the electrochemistry of the corroding interface and the effects of biocide treatments have been examined. Electrochemical monitoring provides a reliable means of detecting corrosion due to SRB activity, and provides new information regarding the effectiveness of biocide treatments. This study was instigated to provide a controlled laboratory investigation into bacterial metabolic activity and the associated corrosion activity of carbon steel as determined by electrochemical corrosion monitoring. SRB activity results in the corrosion of carbon steel, primarily due to the formation of hydrogen sulphide. In sea-water injection systems bacterial activity is usually monitored by sampling techniques, which is a time consuming process. Biocide activity may be controlled using a variety of biocide treatment regimes. Inadequate biocide treatment can result in excessive SRB activity, which may result in catastrophic corrosion of plant and pipe-work. Electrochemical corrosion monitoring has the advantage of having a quick response time, and modern techniques may be used to assess both uniform and localised (pitting) corrosion activity.
Electrochemical techniques including linear polarisation resistance, harmonic distortion analysis and electrochemical noise have been used to study the corrosion of carbon steel due to sulphate reducing bacteria (SRB) in typical seawater injection systems. The effects of SRB activity on the electrochemistry of the corroding interface and the effects of biocide treatments have been examined. Electrochemical monitoring provides a reliable means of detecting corrosion due to SRB activity, and provides new information regarding the effectiveness of biocide treatments. This study was instigated to provide a controlled laboratory investigation into bacterial metabolic activity and the associated corrosion activity of carbon steel as determined by electrochemical corrosion monitoring. SRB activity results in the corrosion of carbon steel, primarily due to the formation of hydrogen sulphide. In sea-water injection systems bacterial activity is usually monitored by sampling techniques, which is a time consuming process. Biocide activity may be controlled using a variety of biocide treatment regimes. Inadequate biocide treatment can result in excessive SRB activity, which may result in catastrophic corrosion of plant and pipe-work. Electrochemical corrosion monitoring has the advantage of having a quick response time, and modern techniques may be used to assess both uniform and localised (pitting) corrosion activity.
PRICE BREAKS - The more you buy, the more you save
Quantity
1+
5+
Price
$20.00
$20.00
Product tags
Also Purchased
Picture for 01244 STUDY OF MICROBIAL CONSORTIA ASSOCIATED
Available for download

01244 STUDY OF MICROBIAL CONSORTIA ASSOCIATED TO CORROSION IN SEAWATER INJECTION SYSTEMS

Product Number: 51300-01244-SG
ISBN: 01244 2001 CP
Author: J. M. Romero, M. Amaya and L. Martinez.
$20.00
Picture for 02294 ORGANIC ACID CORROSION IN OIL AND...
Available for download

02294 ORGANIC ACID CORROSION IN OIL AND GAS PRODUCTION

Product Number: 51300-02294-SG
ISBN: 02294 2002 CP
Author: Michael W. Joosten, Juri Kolts, Justin W. Hembree, and Mohsen Achour
$20.00
Picture for 02330 SELF LINEAR POLARIZATION RESISTANCE
Available for download

02330 SELF LINEAR POLARIZATION RESISTANCE

Product Number: 51300-02330-SG
ISBN: 02330 2002 CP
Author: D. Klassen and P.R. Roberge
$20.00
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