###### Abstract
With the highest utilization of these coatings' methods, Asia-Pacific is accountable for the greatest quantity growth, accounting for 84% of worldwide quantity (6.2 million metric tonnes) in 2018 [9; 11]. Europe devoured 0.4 million tonnes last year, while the American region used 0.5 million tonnes (7% of the overall worldwide quantity) [12; 13; 14; 15]. In 2023, a minor increase is anticipated for both industries, as per the IRL organization and the European Council of the Paint, Printing Ink, and Artist's Colours Industry [16]. Consumption is closely tied to government spending on infrastructure and the rise in demand from the electricity industry, as well as from the automobile, transportation, and oil and gas industries. As a result, during 2020 and 2021, the worldwide paints and coatings industry grew at a world-level increase rate of 8.5% [17]. Surface preparation constitutes about 45% of the expense of a routine operation, whereas the expense of coating chemicals varies from 5 to 21% of the entire operation [18; 19]. While investing in excellent anticorrosive coatings materials, such as high-performance zinc or urethane and epoxy polyamide systems, might seem costly, when the operational duration is longer than 10 years, benefits of about 40% might well be realized [20]. Numerous anticorrosive coatings are proven to be effective in developing protection against the harmful impacts of corrosion. Corrosion coatings are divided into water- (H\({}_{2}\)O), solvent-, and powder-oriented categories by dispersive medium categorization, along with other significant coating compositions. Since laws and guidelines governing the emission of volatile organic compounds (VOCs) through solvent-oriented coverings have been enacted and effectively implemented, H\({}_{2}\)O-borne coverings have grown significantly as a part of the industry [21; 22; 23; 24; 25]. Thus, corrosion mitigation techniques have been devised and widely applied in the automotive, stream, manufacturing, and marine enterprises for corrosion lessening and eradication. These techniques include organic/polymer composites, cathodic and anodic prevention, and corrosion-preventing elements. However, efficient barriers are designed to influence low-cost methods. Furthermore, hydrophobic films and inorganic-organic combinatorial films have extended the life span of a variety of substances in conditions that are susceptible to corrosion [26; 27; 28; 29; 30; 31; 32; 33; 34]. Nano-modified coverings or coverings relying on the incorporation of nanoparticles (NPs) have traditionally been used to prevent the corrosion of metal components. These coatings are primarily used as a physical barrier against corrosive substances like H\({}^{+}\) and O\({}_{2}\)\({}^{-}\). The major factors of metallic deterioration are associated with atmospheric impacts, which are brought on by metal susceptibility to weathering variables and immensely influenced by common climatological elements such as periods of moistness, humidity levels, and acidification, as well as by temperature, other pollutants' actions, and acidity. For instance, in an experiment, to improve material protection, [PERSON] et al. [35] created polymeric nanocomposite coatings that were alteredwith NP-based corrosion inhibitors (CIs). In this study, yttrium oxide NPs containing CIs (imidazole) were added to the epoxy composition before being deposited on the steel surface. Yttrium oxide NPs are permeable and have a large surface region. So, in this experiment, 3.0 weight % of Y\({}_{2}\)O\({}_{3}\) NPs were added to 10 mg/mL IMD H\({}_{2}\)O, and the composition was then sonicated at ambient temperature for 30 min. The mixture was then placed on a heated surface at 70 \({}^{\circ}\)C for 24 h while being moderately stirred. The surplus solvent was evaporated, and crisped doped Y\({}_{2}\)O\({}_{3}\) NPs were produced. The pictorial representation of infusing Y\({}_{2}\)O\({}_{3}\) using imidazole is shown in Figure 1.  
Similarly, to prevent corrosion of AZ61 Mg alloys, [PERSON] et al.