Anti-corrosion and anti-fouling properties of ball-like GQDs hybrided MOFs functionalized with silane in waterborne epoxy-polydimethylsiloxane coatings: Experimental and theoretical studies

Recent Progress in Marine Antifouling Technology Based on Graphene and Graphene Oxide Nanocomposite Materials

“…[126,127] Further development of models for the detailed simulation of nanostructure-cell interaction could help advance the marine antifouling materials. GO/epoxy coatings GO/ZnO Anticorrosion and antifouling [164] PDMS and metal-organic framework/GO GO Corrosion and fouling protection [165] Nanocomposite polymer Various Antifouling [166] Membranes, GO, RGO GO Antibacterial activity [167] RGO/Epoxy nanocomposite GO Antibacterial activity [168] Epoxy coatings/GO GO Antibacterial activity [169] Graphene-silicone elastomer Graphene Removing the fouls [114] Elastic graphenesilicone rubber composite Graphene Micron-size deformations on surface [154] Reduced GO and GO-γ-AlOOH RGO Superhydrophobic [113] GO in chitosan GO Cracking free sturdy films [155] Boron acrylate polymer/guanidine-functionalized grapheme Graphene Self-polishing [101] GNP composite Graphene Deferring formation of biofilms [102] Acrylic acid-modified GO GO Self-polishing [108] PDMS/GNPs Graphene Membrane deterioration [103] Polyaniline/p-phenylenediamine-functionalized GO GO Limiting the passage of water [105] GO-nano-SiO2/PDMS composite GO Enhanced surface stiffness [156] GO/Ag nanocomposite GO Synergistic effect [158] Few-layer graphene flakes/Ag Graphene Maximizing the active surface area [159] PDMS/ZnO-GO GO High Ra and hydrophobicity [110] Cow dung-derived biochars Biochars Surface chemistry of biochar-graphene composites [118] TiO 2 @MXene composite MXene Synergistic effect [120] Laser-induced graphene coatings Graphene Chemical and electrical effects [121] Zinc oxide Nanorods Fouling release [36] Copper oxide NPs Retardation of proliferation [37] Flexible zinc oxide arrays Nanopillars Damage to cells [38] Cobalt Vertical dendrites Reducing bacteria attachment [39] Silicon Lotus leaf-like Kills cells by membrane rupturing [40] Figure 22. Antibac...…”

Evaluation of natural oil polyol hydrophobic acrylic-based coating incorporated with SiO2 nanoparticles for enhanced corrosion protection

“…Surface energy determines the molecular attraction between two different mediums, in this case, liquid and solid. If the surface energy is high, the molecular attraction force is low, thus, less interaction between liquid and solid (Li et al, 2023a(Li et al, , 2023bZhou et al, 2023). Surface morphology is related to the hierarchical structure of the molecular network that caused the changes in surface roughness.…”

“…The incorporation nanoparticles in composite coating development are found to be very effective against corrosion. According to research studies, the presence of nanoparticle reduced the rate of diffusion of corrosive agents from reaching to metal substrate surface by Ammar et al (2017), Conradi et al (2014), Ma et al (2022a), Marouf et al (2016), Zhou et al (2023). Ammar et al study showed the nanoscale of the nanoparticle can act as a good corrosion barrier by several mechanisms such as shrinking the pores of the composite matrices, increasing the crosslinking density of intermolecular bonding and zigzagging the diffusion pathway (Ammar et al , 2017; Ammar, Ramesh, Vengadaesvaran, et al , 2016c; Ma et al , 2022a).…”