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

Development of a Gas-Phase Corrosion Inhibitor for Wet-Gas Carbon Dioxide Corrosion at 200°C

Picture for Development of a Gas-Phase Corrosion Inhibitor for Wet-Gas Carbon Dioxide Corrosion at 200°C
Available for download

Although organic corrosion inhibitors have been widely applied in the energy industry, many details regarding their protection mechanism remain unknown. For example, a corrosion inhibitor adsorbs on the clean steel/aqueous solution interface, driven by electrostatic interaction. With the corrosion product
layer formed, how would the inhibitor adsorption interact with the corrosion product nucleation and precipitation? What is the effect of pre-corrosion in inhibitor testing?

Product Number: 51323-18829-SG
Author: Wei Zhang, Jason Moses, William Cardwell, Samar Agha Keshmiri, Khoa Ky, David Orta, Alyn Jenkins
Publication Date: 2023
$0.00
$20.00
$20.00

High-temperature applications remain a common challenge for organic chemistries because these chemistries might degrade under high temperatures. In this study, a corrosion inhibitor was developed for a gas compressor application at 200°C. The thermal stability, effect of various solvents, and interaction between the inhibitor molecule and the passive layer developed on C1018 carbon steel were compared experimentally. Corrosion models predicted that this passivating layer comprises primarily magnetite (Fe3O4), and surface scans showed that this passivating layer forms without the need for corrosion inhibitors. The surface scans also showed that naturally occurring defects developed in the passive-layer
matrix. As a result, although the general corrosion is expected to be low, a corrosion inhibitor is needed to mitigate localized corrosion or pitting. This paper discusses the process used to screen various corrosion inhibitor chemistries for use at 200°C. The results show that a quaternary amine-based product provides the best results under these conditions.

High-temperature applications remain a common challenge for organic chemistries because these chemistries might degrade under high temperatures. In this study, a corrosion inhibitor was developed for a gas compressor application at 200°C. The thermal stability, effect of various solvents, and interaction between the inhibitor molecule and the passive layer developed on C1018 carbon steel were compared experimentally. Corrosion models predicted that this passivating layer comprises primarily magnetite (Fe3O4), and surface scans showed that this passivating layer forms without the need for corrosion inhibitors. The surface scans also showed that naturally occurring defects developed in the passive-layer
matrix. As a result, although the general corrosion is expected to be low, a corrosion inhibitor is needed to mitigate localized corrosion or pitting. This paper discusses the process used to screen various corrosion inhibitor chemistries for use at 200°C. The results show that a quaternary amine-based product provides the best results under these conditions.

Product tags
Also Purchased
Picture for Use of Micelle Detection for Corrosion Inhibitor Screening
Available for download

51317--9721-Use of Micelle Detection for Corrosion Inhibitor Screening

Product Number: 51317--9721-SG
ISBN: 9721 2017 CP
Author: Melanie Reid
Publication Date: 2017
$20.00

This paper describes a method of exploiting the critical micelle concentration (CMC) of the corrosion inhibitors to show that the use of CMC can be used as a laboratory screening method for corrosion inhibitor selection.
Picture for High Temperature Stable Corrosion Inhibitor Development for Deepwater Applications
Available for download

High Temperature Stable Corrosion Inhibitor Development for Deepwater Applications

Product Number: 51321-16470-SG
Author: Larry Chen/Nihal Obeyesekere/Thusitha Wickramarachchi/Jonathan Wylde
Publication Date: 2021
$20.00
Picture for Corrosion Inhibitor Encapsulation For Enhanced Chemical Efficiency And Performance
Available for download

Corrosion Inhibitor Encapsulation For Enhanced Chemical Efficiency And Performance

Product Number: 51322-17548-SG
Author: Fang Cao, James Oxley, Yao Xiong, Satish Bodige, Dennis Schmatz
Publication Date: 2022
$20.00

Corrosion of pipelines made of carbon steel and exposed to wet hydrocarbons containing CO2 and H2S is a common but serious problem encountered in petroleum industry and its occurrence causes enormousexpense due to production downtime, accidental injuries, and replacement costs. Control and prevent corrosion using chemical treatment (e.g. corrosion inhibitor injection) is one of the most cost-effective solutions and commonly practiced methods to prevent corrosion failures in pipelines in oil and gas industry. Generally speaking, the active corrosion inhibitor (CI) components in commercial CI packages are usually organic, nitrogen-based surfactants such as amines, imidazoline and its derivatives. Due to the amphiphilic nature of surfactants, a good fraction of the injected CI will inevitably go into the oil phase through partitioning and to the oil/water interface.
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