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This work introduces a novel flow assurance strategy which utilizes a multifunctional coating applied via in-situ pigging to provide passive protection to the pipeline interior.
Flow assurance challenges in pipelines such as corrosion, scaling and hydrate formation can greatly reduce flow efficiency and pose significant risk. The addition of chemical corrosion inhibitors or drag reducers represents a continuous operating expense, while intervention via mechanical cleaning can require extensive downtime. Furthermore, no widely accepted technique exists to evaluate pipeline sections in need of remediation. This work introduces a novel flow assurance strategy which utilizes a multifunctional coating applied via in-situ pigging to provide passive protection to the pipeline interior. The coating consists of a low surface energy material which is impermeable to water and oil and resistant to hydrate and scale deposition. The coating is capable of large scale application to in-place, heavily worn pipelines, demonstrating exceptional adhesion even on imperfectly prepared surfaces. The protective coating is combined with an in-field tool that can assess coating health, determine quality assurance, and the presence of deposition products. Such a combined protection and monitoring system can be seen as a step forward towards realizing the dream of “smart” pipelines in the oil and gas industry.
Key words: coatings, flow assurance, scale, corrosion, drag, in-situ pigging
Pertinent mechanisms of scale and deposition control processes as well as the sources of contaminants are discussed. Methods of prevention and control parameters are demonstrated with laboratory and field results.
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Experiments and corrosion modeling were conducted - with 10, 50, and 100 cm2 coupons in circular, triangular, and cylindrical shapes - to develop an approach to evaluate optimal cathodic protection (CP) coupon size and shape for monitoring CP in field.
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