This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 3.0 License.
Abrahamson HB, Rezvani AB, Brushmiller JG. Photochemical and spectroscopic studies of complexes of iron(II1) with citric acid and other carboxylic acids. Inorg Chim Acta. 1994;226:117–127.AbrahamsonHBRezvaniABBrushmillerJGPhotochemical and spectroscopic studies of complexes of iron(II1) with citric acid and other carboxylic acids199422611712710.1016/0020-1693(94)04077-XSearch in Google Scholar
Alessio E. Thirty years of the drug candidate NAMI-A and the myths in the field of ruthenium anticancer compounds: a personal perspective. Eur J Inorg Chem. 2017;2017:1549–1560.AlessioEThirty years of the drug candidate NAMI-A and the myths in the field of ruthenium anticancer compounds: a personal perspective201720171549156010.1002/ejic.201600986Search in Google Scholar
Ali I, Wani WA, Saleem K. Empirical formulae to molecular structures of metal complexes by molar conductance. Synth React Inorg Met-Org Chem. 2013;43:1162–1170.AliIWaniWASaleemKEmpirical formulae to molecular structures of metal complexes by molar conductance2013431162117010.1080/15533174.2012.756898Search in Google Scholar
Bacchi CJ, Ciaccio EI, Koren LE. Effects of some antitumor agents on growth and glycolytic enzymes of the flagellate Crithidia. J Bacteriol. 1969;98:23–28.BacchiCJCiaccioEIKorenLEEffects of some antitumor agents on growth and glycolytic enzymes of the flagellate Crithidia196998232810.1128/jb.98.1.23-28.1969Search in Google Scholar
Baggio R, Perec M. Isolation and characterization of a polymeric lanthanum citrate. Inorg Chem. 2004;43:6965–6968.BaggioRPerecMIsolation and characterization of a polymeric lanthanum citrate2004436965696810.1021/ic049165pSearch in Google Scholar
Baker EN, Baker HM, Anderson BF, Reeves RD. Chelation of nickel(II) by citrate. The crystal structure of a nickel-citrate complex, K2[Ni(C6H5O7)(H2O)2]2. Inorg Chim Acta. 1983;78:281–285.BakerENBakerHMAndersonBFReevesRDChelation of nickel(II) by citrate. The crystal structure of a nickel-citrate complex, K2[Ni(C6H5O7)(H2O)2]219837828128510.1016/S0020-1693(00)86530-5Search in Google Scholar
Bitha P, Child RG, Hlavka JJ, Lin Y. Platinum complexes of aliphatic tricarboxylic acid. EP0185225A1, Jun 25, 1986BithaPChildRGHlavkaJJLinYEP0185225A1,Jun251986Search in Google Scholar
Boghaei DM, Najafpour MM. Crystal structure of Gua4[Cu2(Cit)2] {Gua = Guanidinium, Cit = Citrate = 2-hydroxo-1,2,3-tricarboxylatopropane}. Anal Sci. 2007;23:23–24.BoghaeiDMNajafpourMMCrystal structure of Gua4[Cu2(Cit)2] {Gua = Guanidinium, Cit = Citrate = 2-hydroxo-1,2,3-tricarboxylatopropane}200723232410.2116/analscix.23.x123Search in Google Scholar
Borenfreund E.; Puerner JA. Cytotoxicity of metals, metal-metal and metal-chelator combinations assayed in vitro. Toxicology. 1986;39:121–134.BorenfreundE.PuernerJACytotoxicity of metals, metal-metal and metal-chelator combinations assayed in vitro19863912113410.1016/0300-483X(86)90130-7Search in Google Scholar
Burdach M. Use of the white agaric in night perspirations. The Lancet. 1831;16:316.BurdachMUse of the white agaric in night perspirations18311631610.1016/S0140-6736(02)94043-2Search in Google Scholar
Carrano RA, Malone MH. Pharmacologic study of norcaperatic and agaricic acids. J Pharm Sci. 1967;56:1611–1614.CarranoRAMaloneMHPharmacologic study of norcaperatic and agaricic acids1967561611161410.1002/jps.26005612165626691Search in Google Scholar
Chávez E, Chávez R, Carrasco N. The effect of agaric acid on citrate transport in rat liver mitochondria. Life Sci. 1978;23:1423–1429.ChávezEChávezRCarrascoNThe effect of agaric acid on citrate transport in rat liver mitochondria1978231423142910.1016/0024-3205(78)90123-6Search in Google Scholar
Ciaccio EI, Boxer GE, Devlin TM, Ford RT. Screening data from selected in vitro enzymatic systems I. Standard test compounds from the Cancer Chemotherapy Nation Service Center. Cancer Res. 1967;27:1033–1069.CiaccioEIBoxerGEDevlinTMFordRTScreening data from selected in vitro enzymatic systems I. Standard test compounds from the Cancer Chemotherapy Nation Service Center19672710331069Search in Google Scholar
Ciaccio EI, Boxer GE, Devlin TM, Ford RT. Screening data from selected in vitro enzymatic systems II. Compounds specifically selected for the dehydrogenase inhibition screens. Cancer Res. 1967;27:1070–1104.CiaccioEIBoxerGEDevlinTMFordRTScreening data from selected in vitro enzymatic systems II. Compounds specifically selected for the dehydrogenase inhibition screens19672710701104Search in Google Scholar
de Paiva REF, Marçal Neto A, Santos IA, Jardim ACG, Corbi PP, Bergamini FRG. What is holding back the development of antiviral metallodrugs? A literature overview and implications for SARS-CoV-2 therapeutics and future viral outbreaks. Dalton Trans. 2020;49:16004–16033.de PaivaREFMarçal NetoASantosIAJardimACGCorbiPPBergaminiFRGWhat is holding back the development of antiviral metallodrugs? A literature overview and implications for SARS-CoV-2 therapeutics and future viral outbreaks202049160041603310.1039/D0DT02478C33030464Search in Google Scholar
Deng YF, Zhou ZH. Synthesis and crystal structure of a zinc citrate complex [Zn(H2cit)(H2O)]n. J Coord Chem. 2009;62:1484–1491.DengYFZhouZHSynthesis and crystal structure of a zinc citrate complex [Zn(H2cit)(H2O)]n2009621484149110.1080/00958970802596391Search in Google Scholar
Drzewiecka A, Koziol AE, Lowczak M, Lis T. Poly[tetraaquadi-μ6-citrato-tetra-copper(II)]: a redetermination. Acta Cryst. 2007;E63:m2339–m2340.DrzewieckaAKoziolAELowczakMLisTPoly[tetraaquadi-μ6-citrato-tetra-copper(II)]: a redetermination2007E63m2339m234010.1107/S1600536807039086Search in Google Scholar
Field TB, McCourt JL, McBryde WAE. Composition and stability of iron and copper citrate complexes in aqueous solution. Can J Chem. 1974;52:3119–3124.FieldTBMcCourtJLMcBrydeWAEComposition and stability of iron and copper citrate complexes in aqueous solution1974523119312410.1139/v74-458Search in Google Scholar
Frezza M, Hindo S, Chen D, Davenport A, Schmitt S, Tomco D, Dou QP. Novel metals and metal complexes as platforms for cancer therapy. Curr Pharm Des. 2010;16:1813–1825.FrezzaMHindoSChenDDavenportASchmittSTomcoDDouQPNovel metals and metal complexes as platforms for cancer therapy2010161813182510.2174/138161210791209009375928720337575Search in Google Scholar
Galanski M, Arion VB, Jakupec MA, Keppler BK. Recent developments in the field of tumor-inhibiting metal complexes. Curr Pharm Des. 2003;9:2078–2089.GalanskiMArionVBJakupecMAKepplerBKRecent developments in the field of tumor-inhibiting metal complexes200392078208910.2174/138161203345418014529417Search in Google Scholar
García N, Zazueta C, Pavón N, Chávez E. Agaric acid induces mitochondrial permeability transition through its interaction with the adenine nucleotide translocase. Its dependence on membrane fluidity. Mitochondrion. 2005;5:272–281.GarcíaNZazuetaCPavónNChávezEAgaric acid induces mitochondrial permeability transition through its interaction with the adenine nucleotide translocase. Its dependence on membrane fluidity2005527228110.1016/j.mito.2005.05.00216050990Search in Google Scholar
Habala L, Devínsky F, Egger AE. Metal complexes as urease inhibitors. J Coord Chem. 2018;71:907–940.HabalaLDevínskyFEggerAEMetal complexes as urease inhibitors20187190794010.1080/00958972.2018.1458228Search in Google Scholar
Hanif M, Hartinger CG. Anticancer metallodrugs: where is the next cisplatin? Future Med Chem. 2018;10:615–617.HanifMHartingerCGAnticancer metallodrugs: where is the next cisplatin?20181061561710.4155/fmc-2017-031729411994Search in Google Scholar
Harrison JJ, Ceri H, Stremick CA, Turner RJ. Biofilm susceptibility to metal toxicity. Environ Microbiol. 2004;6:1220–1227.HarrisonJJCeriHStremickCATurnerRJBiofilm susceptibility to metal toxicity200461220122710.1111/j.1462-2920.2004.00656.x15560820Search in Google Scholar
Huta B, Lensboeur JJ, Lowe AJ, Zubieta J, Doyle RP. Metal-citrate complex uptake and CitMHS transporters: From coordination chemistry to possible vaccine development. Inorg Chim Acta. 2012;393:125–134.HutaBLensboeurJJLoweAJZubietaJDoyleRPMetal-citrate complex uptake and CitMHS transporters: From coordination chemistry to possible vaccine development201239312513410.1016/j.ica.2012.06.025Search in Google Scholar
Johnson A, Northcote-Smith J, Suntharalingam K. Emerging metallopharmaceuticals for the treatment of cancer. Trends Chem. 2021;3:47–58.JohnsonANorthcote-SmithJSuntharalingamKEmerging metallopharmaceuticals for the treatment of cancer20213475810.1016/j.trechm.2020.10.011Search in Google Scholar
Kilpin KJ, Dyson PJ. Enzyme inhibition by metal complexes: concepts, strategies and applications. Chem Sci. 2013;4:1410–1419.KilpinKJDysonPJEnzyme inhibition by metal complexes: concepts, strategies and applications201341410141910.1039/c3sc22349cSearch in Google Scholar
Kumar RS, Paul P, Riyasdeen A, Wagniéres G, van den Bergh H, Akbarsha MA, Arunachalam S. Colloids Surf B Biointerfaces. 2011;86:35–44.KumarRSPaulPRiyasdeenAWagniéresGvan den BerghHAkbarshaMAArunachalamS201186354410.1016/j.colsurfb.2011.03.01221515032Search in Google Scholar
Lemire JA, Harrison JJ, Turner RJ. Antimicrobial activity of metals: mechanisms, molecular targets and applications. Nat Rev Microbiol. 2013;11:371–384.LemireJAHarrisonJJTurnerRJAntimicrobial activity of metals: mechanisms, molecular targets and applications20131137138410.1038/nrmicro302823669886Search in Google Scholar
Lu L, Zhu M. Protein tyrosine phosphatase inhibition by metals and metal complexes. Antioxid Redox Signal. 2014;20: 2210–2224.LuLZhuMProtein tyrosine phosphatase inhibition by metals and metal complexes2014202210222410.1089/ars.2013.572024382261Search in Google Scholar
Lukáč M, Lacko I, Bukovský M, Kyselová Z, Karlovská J, Horváth B, Devínsky F. Synthesis and antimicrobial activity of a series of optically active quaternary ammonium salts derived from phenylalanine. Open Chem. 2010;8:194–201.LukáčMLackoIBukovskýMKyselováZKarlovskáJHorváthBDevínskyFSynthesis and antimicrobial activity of a series of optically active quaternary ammonium salts derived from phenylalanine2010819420110.2478/s11532-009-0126-8Search in Google Scholar
Mastropaolo D, Powers DA, Potenza JA, Schugar HJ. Crystal structure and magnetic properties of copper citrate dihydrate, Cu2C6H4O7·2H2O. Inorg Chem. 1976;15:1444–1449.MastropaoloDPowersDAPotenzaJASchugarHJCrystal structure and magnetic properties of copper citrate dihydrate, Cu2C6H4O7·2H2O1976151444144910.1021/ic50160a038Search in Google Scholar
Miret S, De Groene EM, Klaffke W. Comparison of in vitro assays of cellular toxicity in the human hepatic cell line HepG2. J Biomol Screen. 2006;11:184–193.MiretSDe GroeneEMKlaffkeWComparison of in vitro assays of cellular toxicity in the human hepatic cell line HepG220061118419310.1177/108705710528378716314402Search in Google Scholar
Nagaraj K, Arunachalam S. Synthesis, CMC determination, nucleic acid binding and cytotoxicity of a surfactant-cobalt(iii) complex: Effect of ionic liquid additive. New J Chem. 2014;38:366–375.NagarajKArunachalamSSynthesis, CMC determination, nucleic acid binding and cytotoxicity of a surfactant-cobalt(iii) complex: Effect of ionic liquid additive20143836637510.1039/C3NJ00832KSearch in Google Scholar
Ndagi U, Mhlongo N, Soliman ME. Metal complexes in cancer therapy – an update from drug design perspective. Drug Des Devel Ther. 2017;11:599–616.NdagiUMhlongoNSolimanMEMetal complexes in cancer therapy – an update from drug design perspective20171159961610.2147/DDDT.S119488Search in Google Scholar
Negm NA, Zaki MF. Structural and biological behaviors of some nonionic Schiff-base amphiphiles and their Cu(II) and Fe(III) metal complexes. Colloids Surf B Biointerfaces. 2008;64:179–183.NegmNAZakiMFStructural and biological behaviors of some nonionic Schiff-base amphiphiles and their Cu(II) and Fe(III) metal complexes20086417918310.1016/j.colsurfb.2008.01.018Search in Google Scholar
Nies DH. Microbial heavy-metal resistance. Appl Microbiol Biotechnol. 1999;51:730–750.NiesDHMicrobial heavy-metal resistance19995173075010.1007/s002530051457Search in Google Scholar
Palacios EG, Juárez-López G, Monhemius AJ. Infrared spectroscopy of metal carboxylates II. Analysis of Fe(III), Ni and Zn carboxylate solutions. Hydrometallurgy. 2004;72:139–148.PalaciosEGJuárez-LópezGMonhemiusAJInfrared spectroscopy of metal carboxylates II. Analysis of Fe(III), Ni and Zn carboxylate solutions20047213914810.1016/S0304-386X(03)00137-3Search in Google Scholar
Pierre JL, Gautier-Luneau I. Iron and citric acid: A fuzzy chemistry of ubiquitous biological relevance. BioMetals. 2000;13:91–96.PierreJLGautier-LuneauIIron and citric acid: A fuzzy chemistry of ubiquitous biological relevance200013919610.1023/A:1009225701332Search in Google Scholar
Raspotnig G, Fauler G, Jantscher A, Windischhofer W, Schachl K, Leis HJ. Colorimetric determination of cell numbers by Janus green staining. Anal Biochem. 1999;275:74–83.RaspotnigGFaulerGJantscherAWindischhoferWSchachlKLeisHJColorimetric determination of cell numbers by Janus green staining1999275748310.1006/abio.1999.430910542111Search in Google Scholar
Regiel-Futyra A, Dąbrowski JM, Mazuryk O, Śpiewak K, Kyzioł A, Pucelik B, Brindell M, Stochel G. Bioinorganic antimicrobial strategies in the resistance era. Coord Chem Rev. 2017;351:76–117.Regiel-FutyraADąbrowskiJMMazurykOŚpiewakKKyziołAPucelikBBrindellMStochelGBioinorganic antimicrobial strategies in the resistance era20173517611710.1016/j.ccr.2017.05.005Search in Google Scholar
Schattschneider C, Kettenmann SD, Hinojosa S, Heinrich J, Kulak N. Biological activity of amphiphilic metal complexes. Coord Chem Rev. 2019;385:191–207.SchattschneiderCKettenmannSDHinojosaSHeinrichJKulakNBiological activity of amphiphilic metal complexes201938519120710.1016/j.ccr.2018.12.007Search in Google Scholar
Siewert B, Langerman M, Hontani Y, Kennis JTM, van Rixel VHS, Limburg B, Siegler MA, Talens Saez V, Kieltyka RE, Bonnet S. Turning on the red phosphorescence of a [Ru(tpy)(bpy)(Cl)]Cl complex by amide substitution: self-aggregation, toxicity, and cellular localization of an emissive ruthenium-based amphiphile. Chem Commun. 2017;53:11126–11129.SiewertBLangermanMHontaniYKennisJTMvan RixelVHSLimburgBSieglerMATalens SaezVKieltykaREBonnetSTurning on the red phosphorescence of a [Ru(tpy)(bpy)(Cl)]Cl complex by amide substitution: self-aggregation, toxicity, and cellular localization of an emissive ruthenium-based amphiphile201753111261112910.1039/C7CC02989F28682371Search in Google Scholar
Stamets P. Antiviral activity from medicinal mushrooms. US 2006/0171958 Al, Aug 3, 2006StametsPUS 2006/0171958 Al,Aug32006Search in Google Scholar
Vukosav P, Mlakar M, Tomišić V. Revision of iron(III)–citrate speciation in aqueous solution. Voltammetric and spectrophotometric studies. Analyt Chim Acta. 2012;745:85–91.VukosavPMlakarMTomišićVRevision of iron(III)–citrate speciation in aqueous solution. Voltammetric and spectrophotometric studies2012745859110.1016/j.aca.2012.07.03622938610Search in Google Scholar
Zabiszak M, Nowak M, Taras-Goslinska K, Kaczmarek MT, Hnatejko Z, Jastrzab R. Carboxyl groups of citric acid in the process of complex formation with bivalent and trivalent metal ions in biological systems. J Inorg Biochem. 2018;182:37–47.ZabiszakMNowakMTaras-GoslinskaKKaczmarekMTHnatejkoZJastrzabRCarboxyl groups of citric acid in the process of complex formation with bivalent and trivalent metal ions in biological systems2018182374710.1016/j.jinorgbio.2018.01.01729407868Search in Google Scholar
Zhou ZH, Deng YF, Wan HL. Structural Diversities of Cobalt(II) Coordination Polymers with Citric Acid. Cryst Growth Des. 2005;5:1109–1117.ZhouZHDengYFWanHLStructural Diversities of Cobalt(II) Coordination Polymers with Citric Acid200551109111710.1021/cg0496282Search in Google Scholar
Zhou ZH, Zhang H, Jiang YQ, Lin DH, Wan HL, Tsai KR. Complexation between vanadium(V) and citrate: spectroscopic and structural characterization of a dinuclear vanadium(V) complex. Trans Met Chem. 1999;24:605–609.ZhouZHZhangHJiangYQLinDHWanHLTsaiKRComplexation between vanadium(V) and citrate: spectroscopic and structural characterization of a dinuclear vanadium(V) complex19992460560910.1023/A:1006947218366Search in Google Scholar