Measurement of zinc-magnesium-aluminum coating on photovoltaic bracket

This paper presents data on the corrosion resistance of zinc and zinc-aluminum-magnesium coatings on carbon steel obtained by tests in four locations in Russia with marine and non-marine atmospheres. Four one-year exposures at the beginning of each season and two-year tests were performed.
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About Measurement of zinc-magnesium-aluminum coating on photovoltaic bracket

About Measurement of zinc-magnesium-aluminum coating on photovoltaic bracket

This paper presents data on the corrosion resistance of zinc and zinc-aluminum-magnesium coatings on carbon steel obtained by tests in four locations in Russia with marine and non-marine atmospheres. Four one-year exposures at the beginning of each season and two-year tests were performed.

This paper presents data on the corrosion resistance of zinc and zinc-aluminum-magnesium coatings on carbon steel obtained by tests in four locations in Russia with marine and non-marine atmospheres. Four one-year exposures at the beginning of each season and two-year tests were performed.

Through salt-spray tests, we conducted research on zinc-aluminium-magnesium coatings under a simulated marine atmospheric environment, an area with limited prior studies. We explored the corrosion resistance and mechanisms of the coating under these conditions, emphasising the contribution and role of magnesium, which has not been addressed in .

In recent years, numerous types of surface corrosion coatings, based especially on zinc- aluminium-magnesium alloys (known as "ZM" alloys), have been developed as alternatives to traditional zinc-based coatings (known as "Z”), to improve its technical characteristics and reduce.

This AWS/NACE/SSPC joint standard contains requirements for the application of zinc and aluminum alloys to steel substrates using thermal spray, often referred to as “metalizing.” The metal coatings are referred to as metalized or “thermal spray coatings” (TSCs).

These findings suggested that modification of the microstructure of Zn-Al-Mg coating may improve the coating corrosion stability and product durability. The aim of the present work was to study how microstructure modifications of line hot-dip Zn-Al-Mg influence the corrosion resistance in outdoor marine atmosphere. 2.

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