AMPP Store - Products tagged with 'cmc'

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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.

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51318-11184-Advances in on-site corrosion inhibitor management

Product Number: 51318-11184-SG

Author: Fiona Mackay / Andrew Osnowski / Emma Perfect / Scott Rankin

Publication Date: 2018

$20.00

On-site personnel can now be trained to gather and test samples. Development of this on-site testing kit is described and a case study presented on its use in the field. Feedback provided from on-site personnel, and further development of the method are discussed.

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Can Micelles Be Used To Expedite And Enhance Laboratory Qualification Testing?

Product Number: 51322-17824-SG

Author: Scott Rankin, Andy Osnowski, Emma Perfect

Publication Date: 2022

$20.00

The prevention of internal corrosion remains a significant challenge during the production of oil and gas. The use of film forming corrosion inhibitors is an important and cost-effective means of protecting assets from corrosion. These chemicals operate by forming a protective layer between the corrosive species present in the produced fluids and the pipe surface.

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Correlating physical chemistry with interfacial properties: Effect of salinity on the partitioning, distribution and performance of a quaternary amine corrosion inhibitor

Product Number: 51323-19142-SG

Author: Richard Barker, Joshua Owen, Richard C. Woollam, Yasmin Hayagheib, Raeesa Bhamji, Jeanine Williams, William H. Durnie, Mariana C. Folena, Abubaker Abdelmagid, Hanan Farhat

Publication Date: 2023

$20.00

Corrosion inhibitors provide a cost effective method for internal corrosion control of carbon and low alloy steel infrastructure within the oil and gas industry. The correct selection and validation of inhibitors is essential to ensure successful, safe and reliable operation of infrastructure. Corrosion inhibitors used in upstream oil and gas production are characteristic of surfactant molecules, which adsorb at the metalsolution interface, creating a dynamic physical barrier that reduces electrochemical dissolution.

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Transition from Combinatorial Chemistry to Present Day Robotics in Product Development for Oil Field Chemicals

Product Number: MECC23-20245-SG

Author: Nihal Obeyesekere; Thusitha Wickramarachchi

Publication Date: 2023

$20.00

Combinatorial chemistry is a laboratory technique in which millions of molecular constructions can be synthesized and tested as candidates for new drugs, new catalysts, shorter manufacturing process, or novel molecules for specific targets. Combinatorial chemistry was invented for drug discovery in pharmaceutical industry in early 1980s. This was the concept that was at the forefront at the search of procedures that were expected to accelerate and facilitate new molecules for various targets such as new drug discoveries, or new molecules for any intended target.

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Unravelling Surfactant Partitioning: Part 1 - Fundamental Theory and Modelling of Single and Multi-component Surfactant Distribution Responses

Product Number: 51324-20882-SG

Author: Richard Barker; Joshua Owen; Richard C. Woollam; William H. Durnie; Mariana C. Folena

Publication Date: 2024

$40.00

The application of corrosion inhibitors are fundamental to the safe and reliable operation of carbon steel infrastructure, presenting one of the most cost effective methods of internal pipeline corrosion control when deployed correctly. Despite decades of application in the oil and gas industry, a number of gaps remain in relation to our fundamental understanding of the performance of inhibitors. This is particularly true in the context of partitioning, and more so when the system under consideration comprises multiple surfactants. Part 1 of this two-part paper provides a detailed insight into the fundamentals of surfactant partitioning. Initially, the role of micellization in influencing single surfactant partitioning/distribution behavior between oil and brine is discussed, providing theoretical explanations for single surfactant system responses. The complexity of the systems examined increases with consideration extending to multi-surfactant environments, accompanied by discussion of idealized theoretical behavior. Subsequently, an idealized model to predict multi-component distribution responses between oil and brine is presented. To explore the model’s capabilities, experimental partitioning and micellization data collected from previous studies for two benzyl ammonium chloride corrosion inhibitors (BAC-C12 and BAC-C16) is integrated into the model. Such integration permits investigation into the effect of surfactant concentrations, relative surfactant molar ratios and water cut on partitioning/distribution behavior.

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Unravelling Surfactant Partitioning: Part 2 - Experimental Study of Multi-Component Surfactant Partitioning Responses and Their Influence on Inhibition Performance

Product Number: 51324-20883-SG

Author: Richard Barker; Joshua Owen; Raeesa Bhamji; Jeanine Williams; Amber Sykes

Publication Date: 2024

$40.00

In Part 1 of this two-part paper, a predictive model for multi-component partitioning was developed based on knowledge of individual component micellization and partitioning characteristics. In Part 2, the model’s validity is assessed through comparison with experimental partitioning data for an 1 wt.% NaCl brine:toluene system containing mixtures of two benzylammonium chloride corrosion inhibitors (BAC-C12 and BAC-C16). Following model validation, the implications of the experimental partitioning behavior on corrosion inhibition performance are examined via rotating cylinder electrode (RCE) experiments. Through selected experiments, the important role of each of the two surfactants and their relative molar concentration in influencing overall corrosion inhibition performance is examined. While BAC-C12 exhibited poor inhibition in isolation, when combined with BAC-C16 at specific molar ratios, BAC-C12 played a crucial role in retaining the longer chain surfactant in the aqueous phase. This response enabled BAC-C16 (the more effective surfactant corrosion inhibitor) to work synergistically with BAC-C12 to suppress carbon steel corrosion more effectively than the two components alone under these particular conditions.

Products tagged with 'cmc'

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

51318-11184-Advances in on-site corrosion inhibitor management

Can Micelles Be Used To Expedite And Enhance Laboratory Qualification Testing?

Correlating physical chemistry with interfacial properties: Effect of salinity on the partitioning, distribution and performance of a quaternary amine corrosion inhibitor

Transition from Combinatorial Chemistry to Present Day Robotics in Product Development for Oil Field Chemicals

Unravelling Surfactant Partitioning: Part 1 - Fundamental Theory and Modelling of Single and Multi-component Surfactant Distribution Responses

Unravelling Surfactant Partitioning: Part 2 - Experimental Study of Multi-Component Surfactant Partitioning Responses and Their Influence on Inhibition Performance

Association for Materials Protection and Performance