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Maintaining the integrity of oilfield equipment is essential to its safe operation and to maximize the efficiency of production. The integrity of oilfield equipment can rely on material selection and control of conditions, however, it is commonly maintained by the applications of chemical corrosion inhibitors (CI). Prior to use, these chemicals must be shown to perform as desired under the field conditions in question. To achieve this, chemicals are often evaluated using robust laboratory-based screening studies to identify potential candidates.
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The technical objective is to demonstrate low-cost solutions to improve building insulation and energy efficiency through the addition of exterior paint coatings.
Parts produced via additive manufacturing (AM) are being adopted broadly among many industries andused in an array of applications. AM parts are attractive to these industries for several reasons. Complexgeometries that cannot be manufactured using traditional, subtractive methods can be producedadditively.
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.
For corrosion engineers to take Nondestructive Testing (NDT) measurements at height, currently they may need to utilize a lift, scaffolding, ladders, inspection trucks with elevated baskets, rope work, catwalks, cranes and rigging or other solutions. NDT inspection programs can dramatically increase the safety and integrity of infrastructure, industrial and manufacturing assets, access requirements in performing these inspections introduces risk.
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.
The drive towards renewable energy, requirement for reduction in fossil fuel consumption and emission of carbon dioxide has received substantial attention from governments and researchers worldwide during the last few decades [1]. The exploration of renewable sources of energy has been grouped into wind, geothermal, tidal and solar energy. Solar energy has shown great promise due to the abundant amount of energy reaching the Earth [2, 3]. Electricity generation from solar irradiation can be achieved by photovoltaic (PV) and photothermal conversion [4].
Protective coatings based on waterborne acrylic technology have been used in the design, construction and maintenance of commercial and industrial structures for over four decades, and the types of applications where they are used, their formulation, and performance have evolved during that time period. Driven by the ability to meet environmental regulations, their ease of use, and improvements in performance, the utilization of waterborne acrylics has also grown over the years.
The U.S. Navy has implemented the use of Ultra High Solids (UHS) coatings as tank linings over the past decade. This paper reviews the evolution to UHS coatings, their performance benefits, and the environmental impact of using these materials. The next generation of UHS coatings incorporating rapid cure properties and optically active fluorescent pigments will also be explored.