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3228 total products found.
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SSPC-SP 1-2016, Solvent Cleaning

Product Number: SSPC-SP 1-2016
Publication Date: 2016
$109.00
	Picture for An Exploratory Investigation of the Cracking Susceptibility of Three Corrosion Resistant Alloys under Thermal Cycles and Conditions Exceeding the Traditional NACE MR0175/ISO 15156 Recommendations
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An Exploratory Investigation of the Cracking Susceptibility of Three Corrosion Resistant Alloys under Thermal Cycles and Conditions Exceeding the Traditional NACE MR0175/ISO 15156 Recommendations

Product Number: 51324-20455-SG
Author: Manuel Marya
Publication Date: 2024
$40.00
	Picture for Effect of Curing Time on the Performance of Novolac Internal Tank Coatings - a Realistic Assessment Using Laboratory Testing
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Effect of Curing Time on the Performance of Novolac Internal Tank Coatings - a Realistic Assessment Using Laboratory Testing

Product Number: 51324-20588-SG
Author: Amal Al-Borno; Moavin Islam; A. Al Hashem; Hasan Sabri
Publication Date: 2024
$40.00
Novolac coating systems are widely used for internal applications in tanks and pressure vessels due to their excellent corrosion resistance under aggressive conditions, their availability, and ease of application. Typically, these coatings require a curing time before putting the coating into service is typically around 7-8 days at (at 20-25o C). During the vessel shutdown, the production schedule sometimes demands compromising the curing process of the lining. This puts a time constraint on the end-user in terms of coating project duration. In response to this challenge, a major oil producing company was interested in finding out if shorter curing times would be suitable to reduce the downtime. The main objective of this study was to conduct a detailed laboratory investigation on the effect of different curing times on the coating performance of four Novolac systems selected from three different manufacturers. The assessment of coating curing involved a series of tests, including Differential Scanning Calorimetry (DSC) and Attenuated Total Reflectance Fourier Transform Infrared Spectroscopy (ATR-FTIR) analyses, shore-D Hardness, X-cut adhesion, and pull-off adhesion tests. Additionally, standard laboratory coating performance tests were carried out, consisting of water immersion, cathodic disbondment, autoclave in multi-phase environments at elevated pressure and temperature, as well as atlas cell (cold-wall effect) tests. The investigation results demonstrated that even though the coatings were not fully cured, all four coating systems showed acceptable laboratory performance, after just 1 day of curing. This implies that these coatings may be put into service much earlier than the specified curing period of manufacturer which would significantly reduce the project downtime during maintenance. Subsequent field test results (not reported here) confirmed the laboratory findings.
	Picture for A New Biocide Enhancer for a Better Pipeline Treatment
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A New Biocide Enhancer for a Better Pipeline Treatment

Product Number: 51324-20576-SG
Author: Nik Nor Azrizam Nik Norizam; Hasrizal A Rahman; Azmi Mohammed Nor
Publication Date: 2024
$40.00
Picture for Predicting Corrosion of Successive Feeds in Distilling Units - An Experimental Approach
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Predicting Corrosion of Successive Feeds in Distilling Units - An Experimental Approach

Product Number: 51324-20668-SG
Author: Gheorghe Bota; Ishan Patel; Peng Jin; David Young
Publication Date: 2024
$40.00
Cheap heavy crudes become attractive for oil refineries to increase their benefit margins but the corrosivity of heavy crudes compels the refinery engineers to blend them with the more expensive light sweet crudes. Crude oil blends with complex composition including organo-sulfur compounds, fatty acids, nitrogen and chlorine compounds become corrosive when processed at high temperatures due to these reactive species. Therefore, maintaining corrosion control is a constant effort in oil refineries, and it involves the use of dedicated corrosion models combined with specific experimental lab procedures and methods. This work is presenting the practical application of a lab testing procedure used for predicting the high temperature corrosivity of different crude fractions that were run successively for different time periods in a specific “flow-through” apparatus. The testing procedure consists of two distinct phases performed in the same apparatus, at the same temperature, and for different time durations. During the first phase of the test, scales are formed using a distilling fraction on metal samples and further, in the second test phase, these preformed scales on samples are exposed without interruption to a different distilling fraction. Thus, the two successive test phases, each using a different distilling fraction, are associated with the “changing feeds” in the distilling tower. Corrosive effects are evaluated by sample weight loss measured in successive fraction tests and in separate tests performed with each of the selected fractions. Experimental results are compared to predictions of a corrosion model for sulfidation and naphthenic acid corrosion.