AMPP Store - Products tagged with 'top-of-the-line corrosion'

Available for download

51318-10823-Effect of different parameters on the inhibition efficacy of decanethiol

Product Number: 51318-10823-SG

Author: Z. Belarbi / F. Farelas / D. Young / M. Singer / S. Nesic

Publication Date: 2018

$20.00

The overall objective of the present research is to investigate the effect of operating parameters on the inhibition efficacy of decanethiol in top of the line corrosion (TLC).

Available for download

Development of an Electrochemical Method to Study Top-Of-The-Line Corrosion

Product Number: 51317--9106-SG

ISBN: 9106 2017 CP

Author: Md Mayeedul Islam

Publication Date: 2017

$20.00

A top-of-the-line monitoring cell has been developed, that measures in-situ corrosion rates by electrochemical methods. The data presented in this paper have been conducted over 5 days at variable condensation rates to evaluate the feasibility and accuracy of the methods applied.

Available for download

Development Of Methodologies For Continuous And Batch Inhibitor Film Persistency Investigation In The Laboratory

Product Number: 51322-18056-SG

Author: Mengqiu Pan, Kasra Shayar Bahadori, Maryam Eslami, Bruce Brown, Marc Singer

Publication Date: 2022

$20.00

Application of corrosion inhibitors confer many advantages for combatting internal pipeline corrosion in the upstream oil and gas industry. It is known that the associated costs for using corrosion inhibitors are low compared to other mitigation techniques [1]. For continuous injection procedures, water-soluble inhibitors are not expected to form long-lasting films, so they must be continuously injected to maintain their effectiveness. Batch inhibitors are usually higher molecular weight species and oil soluble. They tend to be more tenacious, providing a protective barrier between the water and the metal over a long period of time.

Available for download

Influence of High CO2 Partial Pressure on Top-of-the-Line Corrosion

Product Number: 51324-21220-SG

Author: Maryam Eslami; Bernardo Augusto Farah Santos; David Young; Sondre Gjertsen; Marc Singer

Publication Date: 2024

$40.00

Top-of-the-line corrosion (TLC) is an important type of material degradation that occurs due to the heat exchange between the pipeline and its surroundings, which results in water condensation on the internal surface of the pipe. This type of corrosion is specific to wet gas pipelines with stratified flow regimes. In this research, the effect of high CO2 partial pressure (pCO2) on TLC rate and mechanism was studied. The experiments were conducted in a high-pressure TLC autoclave with pCO2 ranging from 20 to 100 bar, solution temperatures of 30 and 50 °C, and different water condensation conditions (0.001-0.1 ml/m2.s). The experimental conditions covered environments where CO2 was either gaseous or supercritical. The results revealed that uniform and localized TLC rates increase with water condensation rate and solution temperature. However, as long as CO2 remained gaseous, pCO2 showed a negligible influence on both uniform and localized TLC rates. At a high CO2 content, the formation of a protective FeCO3 layer decreased the TLC rate, especially at lower water condensation rates. Nevertheless, the risk of localized corrosion at high and medium water condensation rates remained an issue. In the supercritical CO2 environment (pCO2 of 100 bar and solution temperature of 50 °C), the difference in temperature between the CO2 dense phase and the specimens caused water drop out and corrosion. In this environment, the high pCO2 and low pH of the dropped-out water led to high uniform and localized corrosion rates. However, under this condition, the difference in corrosion rates of specimens with different cooling rates was negligible due to their similar surface temperature.

Products tagged with 'top-of-the-line corrosion'

51318-10823-Effect of different parameters on the inhibition efficacy of decanethiol

Development of an Electrochemical Method to Study Top-Of-The-Line Corrosion

Development Of Methodologies For Continuous And Batch Inhibitor Film Persistency Investigation In The Laboratory

Influence of High CO2 Partial Pressure on Top-of-the-Line Corrosion

Association for Materials Protection and Performance