[1] Craddock, P. T. The early history of zinc. Endeavour 11, 183–191 (1987).
[2] Thorne, W. Zinc Deficiency and its Control. Adv. Agron. 9, 31–65 (1957).
[3] Nicholson, J. W. The early history of organotin chemistry. J. Chem. Educ. 66, 621 (1989).
[4] Page, M. A. M., Weidenfeller, B. & Hartmann, S. Influence of temperature and aging on the thermal diffusivity, thermal conductivity and heat capacity of a zinc die casting alloy. J. Alloys Compd. 786, 1060-7 (2019).
[5] Page, M. A. M. & Hartmann, S. Experimental characterization, material modeling, identification and finite element simulation of the thermo-mechanical behavior of a zinc die-casting alloy. Int. J. Plast. 101, 74–105 (2018).
[6] Ou, C, et al. Template-Assisted Hydrothermal Growth of Aligned Zinc Oxide Nanowires for Piezoelectric Energy Harvesting Applications. Appl. Mater. Interfaces 8, 13678–83 (2016).
[7] Bao, S. et al. Highly selective removal of Zn(II) ion from hot-dip galvanizing pickling waste with amino-functionalized Fe3O4@SiO2 magnetic nano-adsorbent. J. Colloid Interface Sci. 462, 235-42 (2016).
[8] Abdollahzadeh, A., Shokuhfar, A., Cabrera, J. M., Zhilyaev, A. P. & Omidvar, H. The effect of changing chemical composition on dissimilar Mg/Al friction stir welded butt joints using zinc interlayer. J. Manuf. Process. 34, 18–30 (2018).
[9] Nigam, A. & Pawar, S. J. Structural, magnetic, and antimicrobial properties of zinc doped magnesium ferrite for drug delivery applications. Ceram. Int. 46, 4058-64 (2020).
[10] Almeida, C. M. V. B. et al. Accounting for the benefits of technology change: Replacing a zinc-coating process by a water-based organo-metallic coating process. J. Clean. Prod. 174, 170-6 (2018).
[11] Hernández-escobar, D. et al. Current status and perspectives of zinc-based absorbable alloys for biomedical applications. Acta Biomater. 97, 1-22 (2019).
[12] Sumboja, A. et al. Durable rechargeable zinc-air batteries with neutral electrolyte and manganese oxide catalyst. J. Power Sources 332, 330–6 (2016).
[13] Tan, P. et al. In-situ growth of Co3O4 nanowire-assembled clusters on nickel foam for aqueous rechargeable Zn-Co3O4 and Zn-air batteries. Applied Catal. B, Environ. 241, 104-12 (2019).
[14] Yan, X. et al. Self-assembled Zn–Al–F layered double hydroxides enabling dendrite-free Zn deposition process in high-rate Ni–Zn secondary batteries. J. Power Sources 448, 227412 (2020).
[15] Ma, M. et al. Electrochemical performance of ZnO nanoplates as anode materials for Ni/Zn secondary batteries. J. Power Sources 179, 395–400 (2008).
[16] Zheng, Y. et al. Effects of barium on the performance of secondary alkaline zinc electrode. Mater. Chem. Phys. 84, 99–106 (2004).
[17] Tuken, T., Yazıcı, B. & Erbil, M. Mater. Zinc modified polyaniline coating for mild steel protection. Chem. Phys. 99, 459–64 (2006).
[18] Hayatdavoudi, H. & Rahsepar, M. A mechanistic study of the enhanced cathodic protection performance of graphene-reinforced zinc rich nanocomposite coating for corrosion protection of carbon steel substrate. J. Alloys Compd. 727, 1148-56 (2017).
[19] Abrishami, S., Naderi, R. & Ramezanzadeh, B. Fabrication and characterization of zinc acetylacetonate/Urtica Dioica leaves extract complex as an effective organic/inorganic hybrid corrosion inhibitive pigment for mild steel protection in chloride solution. Appl. Surf. Sci. 457, 487–96 (2018).
[20] Xu, R., He, T., Yang, R., Da, Y. & Chen, C. Application zinc silicate-potassium silicate coating for anticorrosion of steel bar in autoclaved aerated concrete. Constr. Build. Mater. 237, 117521 (2020).
[21] Xie, Y., Chen, M., Xie, D., Zhong, L. & Zhang, X. A fast, low temperature zinc phosphate coating on steel accelerated by graphene oxide. Corros. Sci. 128, 1-8 (2017).
[22] Jo, Y. N., Kang, S. H., Prasanna, K., Eom, S. W. & Lee, C. W. Shield effect of polyaniline between zinc active material and aqueous electrolyte in zinc-air batteries. Appl. Surf. Sci. 422, 406–12 (2017).
[23] Das, M. et al. Enhanced pseudo-halide promoted corrosion inhibition by biologically active zinc(II) Schiff base complexes. Chem. Eng. J. 357, 447-57 (2019).
[24] Wittman, R. M., Sacci, R. L. & Zawodzinski, T. A. Elucidating mechanisms of oxide growth and surface passivation on zinc thin film electrodes in alkaline solutions using the electrochemical quartz crystal microbalance. J. Power Sources. 438, 227034 (2019).
[25] Liu, Y., Ooi, A., Tada, E. & Nishikata, A. Electrochemical monitoring of the degradation of galvanized steel in simulated marine atmosphere. Corros. Sci. 147, 273-82 (2019).
[26] Wang, P., Zhang, D., Qiu, R., Wu, J. & Wan, Y. Super-hydrophobic film prepared on zinc and its effect on corrosion in simulated marine atmosphere. Corros. Sci. 69, 23–30 (2013).
[27] Kakaei, M. N., Danaee, I. & Zaarei, D. Investigation of corrosion protection afforded by inorganic anticorrosive coatings comprising micaceous iron oxide and zinc dust. Corros. Eng. Sci. Technol. 48, 194–8 (2013).
[28] Jurak, T. et al. Novel Chromium-Free Technologies for the Prevention of Wet Stack Corrosion on Hot Dipped Metallic Coatings: A Review. Mater. Corros. 66, 1051–9 (2015).
[29] Verma, C., Olasunkanmi, L. O., Obot, I. B., Ebenso, E. E. & Quraishi, M. A. 2,4-Diamino-5-(phenylthio)-5H-chromeno [2,3-b] pyridine-3-carbonitriles as green and effective corrosion inhibitors: gravimetric, electrochemical, surface morphology and theoretical studies. RSC Adv. 6, 53933–48 (2016).
[30] Nmai, C. K. Multi-functional organic corrosion inhibitor, Cem. Concr. Compos. 26, 199–207 (2004).
[31] El-Hajjaji, F. et al. Effect of 1-(3-phenoxypropyl) pyridazin-1-ium bromide on steel corrosion inhibition in acidic medium. J. Colloid Interface Sci. 541, 418–24 (2019).
[32] Galai, M. et al. New Hexa Propylene Glycol Cyclotiphosphazene as Efficient Organic Inhibitor of Carbon Steel Corrosion in Hydrochloric Acid Medium. J. Mater. Environ. Sci. 7, 1562-75 (2016).
[33] Dagdag, O. et al. Anticorrosive properties of Hexa (3-methoxy propan-1,2-diol) cyclotri-phosphazene compound for carbon steel in 3% NaCl medium: gravimetric, electrochemical, DFT and Monte Carlo simulation studies. Heliyon 5, e01340 (2019).
[34] Hsissou, R. et al. Experimental, DFT and molecular dynamics simulation on the inhibition performance of the DGDCBA epoxy polymer against the corrosion of the E24 carbon steel in 1.0 M HCl solution. J. Mol. Struct. 1182, 340–51 (2019).
[35] Goyal, M., Kumar, S., Bahadur, I., Verma, C. & Ebenso, E. E. Organic corrosion inhibitors for industrial cleaning of ferrous and non-ferrous metals in acidic solutions: A review. J. Mol. Liq. 256, 565-73 (2018).
[36] Ju, H., Kai, Z. & Li, Y. Aminic nitrogen-bearing polydentate Schiff base compounds as corrosion inhibitors for iron in acidic media: A quantum chemical calculation. Corros. Sci. 50, 865–71 (2008).
[37] Boughoues, Y., Benamira, M., Messaadia, L. & Ribouh, N. Adsorption and corrosion inhibition performance of some environmental friendly organic inhibitors for mild steel in HCl solution via experimental and theoretical study. Colloids Surfaces A Physicochem. Eng. Asp. 593, 124610 (2020).
[38] Zheng, S. & Li, J. Inorganic–organic sol gel hybrid coatings for corrosion protection of metals. J. Sol-Gel Sci. Technol. 54, 174–87 (2010).
[39] Kovacevic, N. & Kokalj, A. Chemistry of the interaction between azole type corrosion inhibitor molecules and metal surfaces. Mater. Chem. Phys. 137, 331-9 (2012).
[40] Schreiner, P.R. Metal-free organocatalysis through explicit hydrogen bonding interactions. Chem. Soc. Rev. 32, 289-96 (2003).
[41] Anupama, K.K., Ramya, K. & Joseph, A. Electrochemical and computational aspects of surface interaction and corrosion inhibition of mild steel in hydrochloric acid by Phyllanthus amarus leaf extract (PAE). J. Mol. Liq. 216, 146–55 (2016).
[42] Ormellese, M., Lazzari, L., Goidanich, S., Fumagalli, G. & Brenna, A. A study of organic substances as inhibitors for chloride-induced corrosion in concrete. Corros. Sci. 51, 2959–68 (2009).
[43] Guo, L. et al. Theoretical insight into an empirical rule about organic corrosion inhibitors containing nitrogen, oxygen, and sulfur atoms. Appl. Surf. Sci. 406, 301-6 (2017).
[44] Yadav, M., Sarkar, T. K. & Purkait, T. Amino acid compounds as eco-friendly corrosion inhibitor for N80 steel in HCl solution: Electrochemical and theoretical approaches. J. Mol. Liq. 212, 731–8 (2015).
[45] Simonovic, A. T., Petrovic, M. B., Radovanovic, M. B., Milic, S. M. & Antonijevic, M. M. Inhibition of copper corrosion in acidic sulphate media by eco-friendly amino acid compound. Chem. Pap. 68, 362–71 (2014).
[46] Zhang, D., Gao, L. & Zhou, G. Inhibition of copper corrosion in aerated hydrochloric acid solution by amino-acid compounds. J. Appl. Electrochem. 35, 1081–5 (2005).
[47] Zhang, T., Jiang, W., Wang, H. & Zhang, S. Synthesis and localized inhibition behaviour of new triazine-methionine corrosion inhibitor in 1 M HCl for 2024-T3 aluminium alloy. Mater. Chem. Phys. 237, 121866 (2019).
[48] Goni, L. K. M. O., Mazumder, M. A. J., Ali, S. A. & Nazal, M. K. Biogenic amino acid methionine-based corrosion inhibitors of mild steel in acidic media. Int. J. Miner. Metall. Mater. 26, 467–82 (2019).
[49] Li, B. et al. Automated inference of molecular mechanisms of disease from amino acid substitutions. Bioinformatics 25, 2744–2750 (2009).
[50] Shang, P. et al. The amino acid transporter SLC36A4 regulates the amino acid pool in retinal pigmented epithelial cells and mediates the mechanistic target of rapamycin, complex 1 signaling. Aging Cell 16, 349-59 (2017).
[51] Mitchell, W. K. et al. Human Skeletal Muscle Protein Metabolism Responses to Amino Acid Nutrition Adv. Nutr. 7, 828S–838S (2016).
[52] Taylor, W. R. The classification of amino acid conservation. J. theor. Biol. 119, 205-18 (1986).
[53] Tabrez, M., Shamim, A., Anwaruddin, M. & Nagarajaram, H. A. Support Vector Machine-based classification of protein folds using the structural properties of amino acid residues and amino acid residue pairs. Bioinformatics 23, 3320–7 (2007).
[54] Campbell, J. A., Davies, G. J., Bulone, V. & Henrissat, B. A classification of nucleotide-diphospho-sugar glycosyltransferases based on amino acid sequence similarities. Biochem J. 326, 929–39 (1997).
[55] Zhang, D. Q., Cai, Q. R., Gao, L-X. & Yong, K. Y. Effect of serine, threonine and glutamic acid on the corrosion of copper in aerated hydrochloric acid solution. Corros. Sci. 50, 3615–21 (2008).
[56] Fu, J., Li, S., Wang, Y., Cao, L. & Lu, L. Computational and electrochemical studies of some amino acid compounds as corrosion inhibitors for mild steel in hydrochloric acid solution. J. Mater. Sci. 45, 6255–65 (2010).
[57] El-hafez, G. M. A. & Badawy, W. A. The use of cysteine, N-acetyl cysteine and methionine as environmentally friendly corrosion inhibitors for Cu–10Al–5Ni alloy in neutral chloride solutions. Electrochim. Acta. 108, 860-66 (2013).
[58] Badawy, W. A., Ismail, K. M. & Fathi, A. M. Corrosion control of Cu–Ni alloys in neutral chloride solutions by amino acids. Electrochim. Acta 51, 4182–9 (2006).
[59] Ashassi-sorkhabi, H., Majidi, M. R. & Seyyedi, K. Investigation of inhibition effect of some amino acids against steel corrosion in HCl solution. Appl. Surf. Sci. 225, 76–185 (2004).
[60] Kaya, S., Tuzun, B., Kaya, C. & Obot, I. B. Determination of corrosion inhibition effects of amino acids: Quantum chemical and molecular dynamic simulation study. J. Taiwan Inst. Chem. Eng. 58, 528-35 (2016).
[61] El-haddad., M. A. M., Radwan, A. B., Sliem, M. H., Hassan, W. M. I. & Abdullah, A. M. Highly efficient eco-friendly corrosion inhibitor for mild steel in 5 M HCl at elevated temperatures: experimental & molecular dynamics study. Sci. Rep. 9, 3695 (2019).
[62] Soler, J. M. et al. The SIESTA method for ab initio Order-N materials simulation. J. Phys.: Condens. Matter 14, 2745 (2002).
[63] Artacho, E. et al. The SIESTA method; developments and applicability J. Phys.: Condens. Matter 20, 1 (2008).
[64] Perdew, J. P., Burke, K. & Ernzerhof, M. Generalized Gradient Approximation Made Simple. Phys. Rev. Lett. 77, 3865 (1996).
[65] Zhang, Y. & Yang, W. Comment on “Generalized Gradient Approximation Made Simple”. Phys. Rev. Lett. 80, 890 (1998).
[66] Hammer, B., Hansen, L. B. & Nørskov, J. K. Improved adsorption energetics within density-functional theory using revised Perdew-Burke-Ernzerhof functionals. Phys. Rev. B 59, 7413–21 (1999).
[67] Staroverov, V. N., Scuseria, G. E., Perdew, J. P., Davidson E. R. & Katriel J. High-density limit of the Perdew-Burke-Ernzerhof generalized gradient approximation and related density functionals. J. Phys. Rev. A 74, 044501 (2006).
[68] Troullier, N. & Martins, J. L. Efficient pseudopotentials for plane-wave calculations. Phys. Rev. B 43, 1991, 1993–2006.
[69] Soler, J. M. et al. The SIESTA method for ab initio Order-N materials simulation. J. Phys. Condens. Matter 14, 2745–79 (2002).
[70] Ozaki, H. K. T., Yu, J., Han, M. J., Kobayashi, N., Ohfuti, M., Ishii, F., Ohwaki, T. & Weng, H. Available: http://www.openmx-square.org/.
[71] Morrison, I., Bylander, D. M. & Kleinman, L. Nonlocal Hermitian norm-conserving Vanderbilt pseudopotential. Phys. Rev. B 47, 6728 (1993).
[72] Grimme, S. Semiempirical GGA‐type density functional constructed with a long‐range dispersion correction. J. Comput. Chem. 27, 1787-99 (2006).
[73] Boys, S. F. & Bernardi, F. d. The calculation of small molecular interactions by the differences of separate total energies. Some procedures with reduced errors. Mol. Phys. 19, 553-66 (1970).
[74] Schäfer, A., Huber, C. & Ahlrichs, R. Fully optimized contracted Gaussian basis sets of triple zeta valence quality for atoms Li to Kr. J. Chem. Phys. 100, 5829-35 (1994).
[75] Haeussermann, U., Dolg, M., Stoll, H. & Preuss, H. Accuracy of energy-adjusted quasirelativistic ab initio pseudopotentials. Mol. Phys. 78, 1211-24 (1993).
[76] Peterson, K. A., Figgen, D., Goll, E. & Stoll, H. Systematically convergent basis sets with relativistic pseudopotentials. II. Small-core pseudopotentials and correlation consistent basis sets for the post-d group 16–18 elements. J. Chem. Phys. 119, 11113-23 (2003).
[77] Bader, R. F. W. Comment on: Revisiting the variational nature of the quantum theory of atoms in molecules. Chem. Phys. Lett. 426, 226-8 (2006).
[78] Popelier, P. L., Simos, T. E. & Wilson, S. Chemical Modelling: Applications and Theory. Vol. 1. (Royal Society of Chemistry, 2000).
[79] Cortés-Guzmán, F. & Bader, R.F. W. Complementarity of QTAIM and MO theory in the study of bonding in donor–acceptor complexes. Coord. Chem. Rev. 249, 633-62 (2005).
[80] Lu, T. & Chen F. J. Multiwfn: A multifunctional wavefunction analyzer. Comput. Chem. 33, 580-592 (2012).
[81] Kundrat, M. D. & Autschbach, J. Time Dependent Density Functional Theory Modeling of Specific Rotation and Optical Rotatory Dispersion of the Aromatic Amino Acids in Solution. J. Phys. Chem. A 110, 12908–17 (2006).
[82] Arefian, M., Mirzaei, M. & Eshtiagh-hosseini, H. Structural insights into two inorganic-organic hybrids based on chiral amino acids and polyoxomolybdates. J. Mol. Struct. 1156, 550-8 (2018).
[83] Kundrat, M. D. & Autschbach, J. Modeling of the Chiroptical Response of Chiral Amino Acids in Solution Using Explicit Solvation and Molecular Dynamics. J. Chem. Theory Comput. 5, 1051–60 (2009).
[84] Chowdhry, B. Z., Dines, T. J., Jabeen, S. & Withnall, R. Vibrational Spectra of α-Amino Acids in the Zwitterionic State in Aqueous Solution and the Solid State: DFT Calculations and the Influence of Hydrogen Bonding. J. Phys. Chem. A 112, 10333–47 (2008).
[85] Xu, W. Z. et al. Quasi-aligned ZnO nanotubes grown on Si substrates. Appl. Phys. Lett. 87, 093110 (2005).
[86] Xing, Y. J., Xi, Z. H., Xue, Z. Q., Zhang, X. D. & Song, J. H. Optical properties of the ZnO nanotubes synthesized via vapor phase growth. Appl. Phys. Lett. 83, 1689-91 (2003).
[87] Wei, A. et al. Stable field emission from hydrothermally grown ZnO nanotubes. Appl. Phys. Lett. 88, 213102-5 (2006).
[88] Xu, C. X. et al. Growth and spectral analysis of ZnO nanotubes. Appl. Phys. 103, 094303 (2008).
[89] Ju, H. & Li, Y. Nicotinic acid as a nontoxic corrosion inhibitor for hot dipped Zn and Zn–Al alloy coatings on steels in diluted hydrochloric acid. Corros. Sci. 49, 4185–201 (2007).
[90] Izakmehri, Z., Ardjmand, M., Ganji, M. D., Babanezhad, E. & Heydarinasab, A. Removal of dioxane pollutants from water by using Al-doped single walled carbon nanotubes. RSC Advances 5, 48124-48132 (2015).
[91] Soleymani, E., Alinezhad, H., Ganji, M. D. & Tajbakhsh, M. Enantioseparation performance of CNTs as chiral selectors for the separation of ibuprofen isomers: a dispersion corrected DFT study. Journal of Materials Chemistry B 5, 6920-6929 (2017).
[92] Larijani, H. T., Jahanshahi, M., Ganji, M. D. & Kiani, M. Computational studies on the interactions of glycine amino acid with graphene, h-BN and h-SiC monolayers. Physical Chemistry Chemical Physics 19, 1896-1908 (2017).
[93] Alinezhad, H., Ganji, M. D., Soleymani, E. & Tajbakhsh, M. A comprehensive theoretical investigation about the bio-functionalization capability of single walled CNT, BNNT and SiCNT using DNA/RNA nucleobases. Applied Surface Science 422, 56-72 (2017).
[94] Ganji, M. D., Larijani, H. T., Alamol-Hoda, R. & Mehdizadeh, M. First-principles and Molecular Dynamics simulation studies of functionalization of Au 32 golden fullerene with amino acids. Scientific reports 8, 1-13 (2018).
[95] Sjoberg, P., Murray, J. S., Brinck, T. & Politzer, P. Average local ionization energies on the molecular surfaces of aromatic systems as guides to chemical reactivity. Can. J. Chem. 68, 1440-1443 (1990).
[96] Dunphy, J. C. et al. Acetylene structure and dynamics on Pd (111). Phys. Rev. B 57, R12705–8 (1998).
[97] Lauhon, L. J. & Ho, W. Single molecule thermal rotation and diffusion: Acetylene on Cu (001). J. Chem. Phys. 111, 5633–6 (1999).
[98] Weckesser, J., Barth, J. V. & Kern, K. Direct observation of surface diffusion of large organic molecules at metal surfaces: PVBA on Pd (110). J. Chem. Phys. 110, 5351–4 (1999).
[99] Schunack, M. et al. Long Jumps in the Surface Diffusion of Large Molecules. Phys. Rev. Lett. 88, 156102 (2002).
[100] Miwa, J. A. et al. Azobenzene on Cu (110): Adsorption Site-Dependent Diffusion. J. Am. Chem. Soc. 128, 3164-5 (2006).