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Two test methods for evaluating the performance of protective coatings and linings used as lining materials in immersion service: one-side testing of the panel and immersion testing of the panel. Historical Document 1991
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Two test methods for evaluating the performance of protective coatings and linings used as lining materials in immersion service: one-side testing of the panel and immersion testing of the panel. Historical Document 1996
Tests to evaluate atmospheric surface coatings…(1) atmospheric exposure…(2) coating properties…(3) accelerated tests Historical Document 1988
A nondestructive test method for the detection of holidays in a nonconductive coating film...applied to the inner wall (bore) of oil field tubular goods. Test apparatus…procedure…reporting…Historical document 1989
A nondestructive test method for the detection of holidays in a nonconductive coating film…applied to the inner wall…of oilfield tubular goods...apparatus…procedure…reporting. Historical document 1994
Test method to measure the ability of elastomeric materials to withstand static exposure to elevated pressure and vapor phase sour gas environments, e.g., gaseous hydrocarbons with hydrogen sulfide…Historical Document 1998
This test method gives procedures to measure the effect on elastomeric materials subjected to rapid depressurization from elevated pressures in dry carbon dioxide environments…Historical Document 1998
Laboratory test method for determining the abrasion resistance qualities of thin film baked coatings and linings applied to the inner wall (bore) of oil field steel tubings…resistance…to the effects of falling sand…Historical Document 1975
A nondestructive method for the detection of holidays in a nonconductive coating film...applied to the inner wall of oilfield tubular goods...apparatus...procedure…methods of reporting...Historical Document 1994
Evaluation of the performance of offshore atmospheric and splash zone coating systems on platforms. Fixed-leg, semi-submersible, tension-leg, and floating production storage and offloading (FPSOs).
Extending service life of an offshore wind tower brings value to the owner and has the added benefit of reducing environmental impact. Arguably the biggest threat to service- life is degradation. When constructing with steel, corrosion is the threat to mitigate. Coatings formulated with zinc dust have been the primary strategy for protection. Zinc dust incorporated into silicate resins is considered an inorganic zinc coating. In recent years silicate finishes made without zinc have entered the market to create a two- coat inorganic system offering unmatched corrosion protection in a finish with various color options. The silicate resin is low carbon and won’t contribute to microplastic accumulation in the ocean. This paper will explain what a two- coat inorganic corrosion resistant system is, how it works, what it looks like and most importantly how it extends the life- cycle of wind towers by inhibiting corrosion for decades.
A formulated nanoparticle dispersion increases the cross linking of waterborne protective coatings without reducing the formula shelf life. Among the cross linking-related improvements are MEK rub resistance, humidity and immersion resistance, tensile strength and blocking resistance. The findings are in accord with a non-covalent mechanism of cross linking.