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Control de corrosión en tanques subterráneos mediante protección catodÍca (CP). Tanques de acero dulce y partes metálicas . Criterios, diseño, instalacción, mantenimiento.
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This NACE International standard practice includes guidelines for surface preparation, material requirements, application, and handling of hot- and cold-applied wax and component wrappers and wax-based tape coating systems for the protection of underground pipe, fittings, and valves. The standard outlines material requirements for hot- and cold-applied wax coatings, and handling of the coated components, and includes five tables that provide material requirements and references to standard test methods for the various coating materials discussed. This standard is intended for use by corrosion control personnel, design engineers, project managers, purchasers, and construction engineers and managers.
Application of zinc and aluminum alloys to steel substrates using thermal spray, referred to as “metalizing” or “thermal spray coatings” (TSCs). Preparation, application, measurement, sealers and topcoats.
This standard contains requirements for steel panels used to perform tests for evaluation of various performance characteristics of protective coatings applied to steel substrates. Panels meeting requirements of this standard may be used for tests including, but not limited to, natural and accelerated exposure in or out of the laboratory; tests to determine resistance to various chemicals, impact, and abrasion; and tests to characterize properties such as color, gloss, adhesion, and hardness. Requirements for steel composition, panel dimensions, surface preparation, ambient conditions for application and cure of coatings, and location and dimensions of scribes on coated panels are included.
This paper will provide information on current SSPC training and certification programs related to industry standards and practical aspects of selecting, specifying, and using coatings safely, effectively and economically to protect structures in harsh marine environments.
Proper surface preparation to create sufficient adhesion of a coating over the substrate is fundamentally important in the long-life performance of a protective coating. Abrasive blast cleaning provides a fast and well-established method of surface preparation, which utilizes energy generated by an air supply to deliver a mass of abrasive particles at certain speeds and volumes to impact the steel resulting in a cleaned surface. The method not only cleans the surface to remove rust, scale, paint, and similar contaminations, but also roughens the surface to produce mechanical and chemical adhesion for a coating. Therefore, abrasive blasting is the preferred method for preparing steel for the application of high-performance coatings and routinely used for achieving the required surface conditions prior to a coating work.
The University of Kentucky’s Kentucky Transportation Center (KTC) is working with the Kentucky Transportation Cabinet (KYTC) and the structural steel coating industry to develop a revolutionary tool to aid in the inspection of protective coatings applied to steel structures.
Since the inception of the US commercial nuclear power program in the 1950’s, criteria have existed for ensuring the satisfactory performance of reactor containment protective coatings over the life of the plant. These criteria have been modified and updated periodically to reflect improvement of the industry and regulatory experience and knowledge bases. This presentation reviews the development of the current qualification requirements for US commercial nuclear power plant reactor containment coatings.
When protective coatings are considered for application work, normal uses such as concrete coating, waterproofing, abrasion protection; steel corrosion protection; and other protective applications are the norm. However, there is a whole world of other uses for protective coatings including personal protection applications. The reality is that coating systems are being used for a variety of government, military, police and personal protection applications with excellent results.
Protective coatings are ubiquitous on offshore oil structures. As with most situations, the use of coatings is driven by myriad factors unique to the industry. The paper will provide an overview of the types of structures, the coatings used in different zones of the structures, and the pragmatic and regulatory criteria which influence the coating process.
This paper will focus on the use of composites to repair and protect piping in the facility environments. Composites as a preventative option for location of soil-to-air interfaces and pipe support locations and the ability of composites to repair bends and restore the structural integrity of the facility piping will be discussed. Testing and currently in use examples will be used to show the benefit of composites in facility integrity systems, including the ability to keep the facility safe while avoiding a costly shutdown