[1] Yin H., Wu Y., Hou J., Yan X., Li Z., Zhu C., Zhang J., Feng X., Ta W. and Liu F., reference of co over al for substitution of fe in goethite (α-FeOOH) structure: mechanism revealed from exafs, xps, dft and linear free energy correlation model, Chemical Geology, 532, 119378, 2020.
[2] Cheng W., Zhou L., Marsac R., Boily J.F. and Hanna K., Effects of organic matter–goethite interactions on reactive transport of nalidixic acid: column study and modeling. Environmental Research, 191, 110187, 2020.
[3] Cornell R.M. and Schwertmann U., The iron oxides: structure, properties, reactions, occurences and uses, Wiley-VCH, Weinheim(Germany), 2nd Edition, 705p, 2003.
[4] Valezi D.F., Carneiro C.E.A., Costa A.C.S., Paesano Jr.A., Spadotto J.C., Solorzano I.G., Londono O.M. and DiMauro E., Weak ferromagnetic component in goethite (α-FeOOH) and its relation with microstructural characteristics, Materials Chemistry and Physics, 246,12285, 2020.
[5] Sakamoto Y., Noda Y., Ohno K., Koike K., Fujii K., Suzuki T.M., Morikawa T. and Nakamura S., First principles calculations of surface dependent electronic structures: a study on β-FeOOH and γ-FeOOH, Physical Chemistry Chemical Physics, 21(34), 18486-18494, 2019.
[6] Meng X., Zhang C., Zhuang J., Zheng G. and Zhou L., Assessment of schwertmannite, jarosite and goethite as adsorbents for efficient adsorption of phenanthrene in water and the regeneration of spent adsorbents by heterogeneous fenton-like reaction, Chemosphere, 244, 125523, 2020.
[7] Zhong Z., Li R., Lin W., Xu X., Tian X., Li X., Chen X. and Kang L., One-dimensional nanocrystals of cobalt perylene diimide polymer with in-situ generated FeOOH for efficient photocatalytic water oxidation, Environmental, 260, 118135, 2020.
[8] Huang S., Zhang Q., Liu P., Ma S., Xie B., Yang K.and Zhaoa Y., Novel up-conversion carbon quantum dots/α-FeOOH nanohybrids eliminate tetracycline and its related drug resistance in visible-light responsive fenton system, Applied Catalysis B: Environmental, 263, 118336, 2020.
[9] Hussein A.M., Madkour F.S., Afifi H.M., Abdel-Ghani M. and Elfatah M.A, Comprehensive study of an ancient egyptian foot case cartonnage using raman, ESEM-EDS, XRD and FTIR, Vibrational Spectroscopy, 106, 102987, 2020.
[10] Xu M., Pan G., Cao Y., Guo Y., Chen H., Wang Y. and Wu Y., Surface analysis of stearic acid modification for improving thermal resistant of calcium phosphate coated iron oxide yellow pigments, Surface and Interface Analysis, 52(10), 626-634, 2020.
[11] Wen G., Chen Z., Wan Q., Zhao D., Xu X., Wang J., Li K. and Huang T., Activation of pms by pipe corrosion products for fungi disinfection in water: performance and mechanisms, J Chemical Engineering, 382, 123003, 2020.
[12] Boufas M., Guellati O., Harat A., Momodu D., Dangbegnon J., Manyala N. and Guerioune M., Optical and electrochemical properties of iron oxide and hydroxide nanofibers synthesized using new template free hydrothermal method, J Nanostructure in Chemistry,10, 275-288, 2020.
[13] Tadic M., Trpkov D., Kopanja L., Vojnovic S. and Panjan M., Hydrothermal synthesis of hematite (α-Fe2O3) nanoparticle forms: synthesis conditions, structure, particle shape analysis, cytotoxicity and magnetic properties, J Alloys and Compounds, 792, 599-609, 2019.
[14] Xiao M., Zhao Y. and Li S., Facile synthesis of chrysanthemum-likemesoporous α-FeOOH and its adsorptive behavior of antimony from aqueous solution. J Dispersion Science and Technology, 41(12), 1812-1820, 2020.
[15] Kim B.G., Park J., Choi W., Han D.S, Kim J. and Park H., Electrocatalytic arsenite oxidation using iron oxyhydroxide polymorphs (α-, β-, and γ-FeOOH) in aqueous bicarbonate solution, Applied Catalysis B: Environmental, 283,119608, 2021.
[16] Boahen G.O., Tran H.N., Sewu D.D. and Woo S.H., Multi-membrane formation in chitosan hydrogel shell by the addition of goethite nanoparticles, Carbohydrate Polymers, 229, 115543, 2020.
[17] Lunin A.V., Kolychev E.L., Mochalova E.N., Cherkasov V.R. and Nikitin M.P., Synthesis of highly-specific stable nanocrystalline goethite-like hydrous ferric oxide nanoparticles for biomedical applications by simple precipitation method, J Colloid and Interface Science, 541, 143-149, 2019.
[18] Zhu S., Qu T., Irshad M.K. and Shang J., Simultaneous removal of Cd(II) and As(III) from co-contaminated aqueous solution by α-FeOOH Modified Biochar, Biochar, 2, 81-92, 2020.
[19] Manjunatha C., Srinivasa N., Samriddhi S., Vidya C. and Ashoka S., Studies on anion-induced structural transformations of iron(III) (Hydr)oxide micro-nanostructures and their oxygen evolution reaction performance, Solid State Sciences, 106, 106314, 2020.
[20] Encina E.R., Distaso M., Taylor R.K. and Peukert W., Synthesis of goethite α FeOOH particles by air oxidation of ferrous hydroxide Fe(OH)2 suspensions: insight on the formation mechanism, Crystal Growth & Design, 15(1), 194-203, 2015.
[21] Hien V.X. and Hung P.T., Influence of working temperature on the structure and gas-sensing properties of γ-FeOOH submicron spheres, Materials Science in Semiconductor Processing, 107, 104857, 2020.
[22] Schwertmann U. and Cornell R.M., Iron oxides in the laboratory: preparation and characterization, , Wiley-VCH, Weinheim(Germany), 2nd Edition, 210p, 2000.
[23] Buxbaum G. and Pfaff G., Industrial inorganic pigments, Wiley-VCH , New Jersey(USA), 3rd Edition, 295p, 2005.
[24] Kotz J.C., Treichel P.M., Townsend J.R. and Treichel D.A., Chemistry and chemical reactivity, Cengage Learning, Boston(USA), 10st Edition, 1398p, 2019.
[25] Barge A.S. and Vaidya P.D., Kinetics of wet air oxidation of sodium sulfide over heterogeneous iron catalyst, International J Chemical Kinetics, 52(2), 92-98, 2020.
[26] Li X., Xiao B., Wu M., Wang L., Chen R., Wei Y. and Liu H., In-situ generation of multi-homogeneous/heterogeneous Fe-based fenton catalysts toward rapid degradation of organic pollutants at near neutral pH, Chemosphere, 245, 125663, 2020.
[27] Lee J., Srimuk P., Fleischmann S., Su X., Hatton T.A. and Presser V., Redox-electrolytes for non-flow electrochemical energy storage: a critical review and best practice, Progress in Materials Science, 101, 46-89, 2019.
[28] available, https://aperainst.com/blog/what-is-orp-oxidatio-reduction-potential, APERA INSTRUMENTS, What is ORP (Oxidatio-Reduction-Potential), In 12 March 2018 .
[29] Fourmond V. and Léger C., An introduction to electrochemical methods for the functional analysis of metalloproteins. In: Crichton R.R., Louro R.O., ed. Practical Approaches to Biological Inorganic Chemistry, UK: Elsevier, London, 325-373, 2020.
[30] Xu Z., Wang J., Yan S.C., Fan Q. and Lund P.D., Modeling of zinc bromine redox flow battery with application to channel design, J Power Sources, 450, 227436, 2020.
[31] Vongvichiankul C., Deebao J. and Khongnakorn W., Relationship between pH, oxidation reduction potential (ORP) and biogas production in mesophilic screw anaerobic digester, Energy Procedia, 138, 877-882, 2017.
[32] Wan W., Tan J., Wang Y., Qin Y., He H., Wu H., Zuo W. and He D., Responses of the rhizosphere bacterial community in acidic crop soil to pH: changes in diversity, composition, interaction, and function. Science of the Total Environment, 700, 134418, 2020.
[33] Levenspiel O., Chemical reaction engineering, John Wiley & Sons, New York(USA), 3rd Edition, 684p, 1999.
[34] Gaffney J.S. and Marley N.A., General chemistry for engineers, Elsevier BV, Amsterdam(Nederland) 1st Edition, 621p, 2018.
[35] Boyd C.E., Water quality, Springer, Switzerland, 3rd Edition, 440p, 2020.
[36] Niasari M.S. and Fereshte Z., Nanochemistry: construction methods and analyzing ptoperties and applications, Sokhanvaran Publications, Tehran(Iran), 3rd Edition, 2012.
[37] Faivre D. and Frankel R.B., Iron oxides: from nature to applications, Wiley-VCH, Weinheim(Germany), 3rd Edition, 598p, 2016.