An overview dedicates to the directions of scientific research and achieved results in the field of electrochemistry, initiated by scientific institutions and in higher educational institutions of Kyiv. Academician O.V. Plotnikov is the forerunner of the world- known Kyiv School of Electrochemistry, formed in the last century's twenties: M.I. Usanovych, V.O. Izbekov, Ya.A. Fialkov, Yu.K. Delimarskyi, I.A. Sheka, and many other scientists known to the general scientific community. O.V. Plotnikov and his followers are one of the first to attempt to combine the most progressive theoretical provisions on electrolytic dissociation, the chemical theory of solutions, and the chemistry of complex compounds for that time. World achievements of the Kyiv School of Electrochemistry were provided by the results of such fundamental research as the chemical theory of solutions, acid-base interactions (Usanovich's theory), the structure of the electric double layer (the Yesin-Markov effect, the reduced Antropov scale of potentials), physical chemistry and electrochemistry of molten electrolytes, kinetics electrode processes, electrometallurgy, electrochemical materials science, electrochemical power engineering. Representatives of our School significantly expanded the knowledge of mass transfer in electrochemical systems with molten electrolytes (the phenomenon of the transfer of metals from the anode to the cathode). New technological processes of obtaining and refining heavy non-ferrous metals (bismuth, lead, indium, etc.), finishing metal surfaces, extraction of radionuclides, electroplating technology, and environmental monitoring have been introduced into the practice of industrial production. Research in electrochemical materials science is closely connected to solving the problems of electrochemical energy, particularly, the creation of new sources of current, including solid-state, hydrogen generators, and converters of solar energy into electrical power. The studies of electrochemical aspects of the extraction of some refractory metals from natural raw materials, the creation of new materials with specified functional properties, catalysts, and electrocatalysts, the latest galvanic coatings, electrode and electrolyte materials for chemical current sources and supercapacitors, valuable inorganic compounds, metal and carbon nanophases, corrosion inhibitors are expanding the scientific direction of electrochemical materials science.
Plotnikov V.O., Balyasnyy S.S. History of the Institute of Chemistry of the Academy of Sciences of the Ukrainian SSR. Memoirs of the Institute of Chemistry, Academy of Sciences of the Ukrainian SSR. 1937. 4 (3): 219–230 (in Ukrainian).
Plotnikov V.O., Works of the laboratory of non-aqueous solutions. Memoirs of the Institute of Chemistry, Academy of Sciences of the Ukrainian SSR. 1947. 9 (3): 315–327 (in Ukrainian).
Rabinovich M.A. The nature of electrolytic dissociation. Ukr. Chem. Journ.1928. 3: 237–433 (in Russian).
Klochko М.А. Electrolytic conductivity of liquid systems. (In book: Kurnakov N.S.Introduction to physical and chemical analysis. M.-L., Publishing House of the National Academy of Sciences of the USSR, 1940: 342–421) (in Russian).
Usanovich М.І. The nature of electrolytes in non-aqueous solutions. The collection dedicated to the thirty-fifth anniversary of the scientific activity of academician VolodymyrOleksandrovichPlotnikov 1899-1934. Kyiv: Publishing house USRR, 1936. 69–132 (in Ukrainian).
FialkovYa.А. Research in the field of complex compounds of aluminum halides and polyhalides. Russian Chemical Reviews. 1946. 15 (4): 485–519 (in Russian).
Plotnikov V.A., Sheka I.A., Yankelevich Z.A. Electrochemical and cryoscopic study of systems: aluminum bromide - lithium, copper, silver bromides and solvents - benzene, toluene, xylene. «Russian Journal of General Chemistry». 1933. 3 (4): 481–499 (in Russian).
Sheka I.A., Yankelevich Z.A. Physico-chemical properties of non-aqueous solutions. News of the Academy of Sciences of the Ukrainian Socialist Soviet Republic. 1934. 2: 51–64 (in Ukrainian).
Plotnikov W.A., Fortunatov N.S., Maschovetz W.P. EleltrolytischesRaffinieren des Aluminiums und Aluminieren in einer AlCl3–NaClSchmelze. Z. Elektroch. 1931. 37 (2): 83–88.
Plotnikov V.O. Works of the laboratory of non-aqueous solutions. Memoirs of the Institute of Chemistry, Academy of Sciences of the Ukrainian SSR. 1947. 9 (3): 315–327 (in Ukrainian).
DelimarskiiYu.K., Markov B.F. Electrochemistry of molten salts. Moscow: Metallurgizdat, 1960. 326 p. (in Russian).
Zarubitskii O.G., DelimarskiiYu.K. Electrolytic refining of heavy non-ferrous metals in ionic melts. Moscow: Metallurgizdat, 1975. 248 p. (in Russian).
DelimarskiiYu.K., Gorodyskii A.V., Zarubitskii O.G., Shapoval V.I., Panov E.V. Electrode processes in ionic melts. Kyiv: NaukovaDumka, 1975. 136 p. (in Russian).
DelimarskiiYu.K. Theoretical foundations of the electrolysis of ionic melts. Moscow: Metallurgiya, 1986. 224 p. (in Russian).
Discovery No. 155 USSR. The phenomenon of metal transfer from the cathode to the anode during the electrolysis of ionic melts. / Yu.K. Delimarsky, O.G. Zarubitsky, V.G. Budnik (USSR); IGInCh. - No. OT-7591; Claimed 03.30.70; Priority 12.27.60; Registered 02.27.75; Published 06.30.75. Bull. No. 24. 3 p. (in Russian).
Omel´chuk A.A., Zarubitskii O.G. Metal transfer through porous auxiliary electrode in molten electrolytes. Electrochim.Acta.1999.44 : 1779–1787.
Omel’chuk A.O. Microinterpolar electrochemical processes and technologies in ionic melts. Ukr. Chem. Journ. 2001. 67 (7): 37–43 (in Ukrainian).
Omel’chuk A.A. Technology and electrochemistry of inorganic materials. Ukraine chemical journal 2004. 70 (7): 45–51 (in Russian).
Omel’chuk A.A., Zarubitskii O.G., Volkov S.V. Modern electrochemical processes and technologies in ionic melts. Journal of Mining and Metallurgy. 2003.39 (1–2) B: 93–107.
Omel’chuk A.A., Zarubitskii O.G., Opanasyuk V.P., Zakharchenko N.F. and DýakovV.Ye. Behaviour of multicomponent lead-tin alloys under catodic polarization in a sodium hydroxide melt. Journal of Applied Electrochemistry. 2003. 33: 519–524.
Omel’chuk A.A. Electrochemical refining of heavy non-ferrous metals in molten electrolytes. Russian Journal of Electrochemistry. 2010. 46 (6): 723–734 (in Russian).
Zarubitskii O.G. Cleaning of metals in alkali melts. Moscow: Metallurgy, 1981. 124 p. (in Russian).
Omelchuk A.A. Transfer of metals during thin-layer electrolysis in molten electrolytes. Russian Journal of Applied Chemistry. 1993. 66 (8):1704–1709 (in Russian).
Omel’chuk А.А, Zarubitskii O.G., Gorbach V.N., D'yakov V.E. Electrochemical refining of tin through thin-layers of molten electrolytes. J. Appl. Electrochemistry. 1996. 26 (3): 277–281.
Omelchuk A.A. Thin-layer electrolysis in molten electrolytes. Russian Journal of Electrochemistry. 2007. 43, (9): 1007–1015 (in Russian).
Volkov S.V., Omelchuk A.A., Azhazha V.M., Bakai A.S. Corrosion stability of irradiated Hastelloy-type alloys in molten NaF-ZrF4 mixture. Journal of New Materials for Electrochemical Systems. 2006. 9: 305–311.
Velikanov A.A. Semiconductor properties of molten sulfides. Physical chemistry of metallurgical melts. Sverdlovsk, 1969. 18: 143–177 (in Russian).
Velikanov A.A. Scientific foundations of a new method of processing industrial raw materials of non-ferrous metallurgy. Ionic melts. Kyiv: NaukovaDumka, 1976. 3: 97–108 (in Russian).
Method for producing hydrogen: certificate of authorship 1025184 USSR: С25с В1/02. №3304760/23-26; declared 27.05.1981; registered 22.02.1983. 6 p. (in Russian).
Zarubitskii O.G. Electrochemical evolution and oxidation of hydrogen in hydrated hydroxide melts. Russian Journal of Applied Chemistry. 1995. 68 (5): 718–726 (in Russian).
Omelchuk A.O., Gritsai L.V. Electrochemical reduction of zirconium dioxide in chloride-oxide melts. Dopovidi NAS of Ukraine. 2019. (1): 63–71 (in Ukrainian).
Bosenko O.V., Kuleshov S.V., Bykov V.N., Omel'chuk A.O. Electrochemical reduction of tungsten(VI) oxide from an eutectic melt CaCl2–NaCl under potentiostatic conditions. J. Serb. Chem. Soc. 2022. 87(3):1–11.
Volkov S.V., Novoselova I.A., Kuleshov S.V., Bykov V.N. Electrochemical synthesis, morphological and structural characteristics of carbon nanomaterials produced in molten salts. ElectrochimicaActa. 2016. 211: 343–355.
Novoselova I.A, Kuleshov S.V., Omel'chuk A.A., Soloviev V.V., Solovyova N.V., Cationic catalysis during the discharge of carbonate anions in molten salts. ECS Transactions. 2020. 98, (10): 317–331.
Novoselova I.A., Skryptun I.N., Omelchuk A.A. and Soloviev V.V. Cationic Electrocatalysis in Effecting the Electrosynthesis of Tungsten Carbide Nanopowders in Molten Salts – Chapter in the book: “Methods of Electrocatalysis: Advanced Materials and Allied Applications” – Editors: Inamuddin, RajenderBoddula, Abdullah M. Asiri – Springer Nature Switzerland AG, 2020. P. 221–239.
Kudra O.K. About black cathode deposits. Memoirs of the Institute of Chemistry, Academy of Sciences of the Ukrainian SSR. 1937.4 (1): 49–56 (in Ukrainian).
Kudra O.K., Gitman E.B. Electrolytic production of metal powders. Kyiv: Publishing House of the Academy of Sciences of the Ukrainian SSR, 1952. 144 p. (in Russian).
Zosimovich D. P., Shvab N. A. Electrochemical production of high purity manganese. Electrochemistry of manganese. Tbilisi: Metsniereba Publishing House, 1967. 3: 256–261 (in Russian).
Natanson E.M. colloidal metals. Kyiv: Publishing House of the Academy of Sciences of the Ukrainian SSR, 1959. 347 p. (in Russian).
Vasko A.T. The Electrochemistry of Tungsten. Kyiv: Publishing House Tekhnika, 1969. 164 p. (in Russian).
Vasko A.T. The Electrochemistry of Molybdenum and Tungsten. Kyiv: Publishing House NaukovaDumka, 1977. 170 p. (in Russian).
Vasko A.T., Kovach S.K. Electrochemistry of refractory metals. Kyiv: Technique, 1983. 160 p. (in Russian).
KolbasovG.Ya., Gorodysky A.V. Photostimulated charge transfer processes in the semiconductor-electrolyte system. Kyiv: NaukovaDumka, 1993. 192 p. (in Russian).
Kuzminsky E.V., KolbasovG.Ya., TevtulYa.Yu., Golub N.B. Non-traditional electrochemical energy conversion systems. Kiev: Akademperiodika, 2002. 182 p. (in Ukrainian).
Danilov M.O., Rusetskii I.A., Slobodyanyuk I.A., Dovbeshko G.I., Khyzhun O.Y., Strelchuk V.V., KolbasovG.Ya.A Facile Electrochemical Method for Graphene Nanoplatelets Preparation Using Multi-walled Carbon Nanotubes. Fuel cells. 2019. 19 (3): 202–210.
Kazdobin K., Shvab N., Tsapakh S. Scaling-up of Fluidized Bed Electrochemical Reactors. Chemical Engineering Journal. 2000. 79 (3): 203–209.
Каздобин К.А. Electrochemical behavior and application of electrochemical reactors with dynamic particle layers. Ukr. Chem. Journ. 2000. 66 (5): 46–48 (in Russian).
Shvab N.А, Stefaniak N.S., Kazdobin K.А, Wragg A.A Mass transfer in fluidised beds of inert particles. I.The role of collision currents in mass transfer to the electrode. Journal of Applied Electrochemistry. 2000. 30 (11): 1285–1292.
Shvab N.А, Stefaniak N.S., Kazdobin K.А, Wragg A.A Mass transfer in fluidised beds of inert particles. II. Effect of Particle Size and Density. Journal of Applied Electrochemistry. 2000. 30, № (11): 1293–1298.
Ivanova N.D., Ivanov S.V., Boldyrev E.I. Fluorine compounds in electroplating. Kiev: Publishing House NaukovaDumka, 1986. 240 p. (in Russian).
Ivanova N.D., Ivanov S.V., Boldyrev E.I. Fluorine-containing solutions for the deposition of alloys and processing of materials. Kiev: Publishing House Nauk. Dumka, 1987. 160 p. (in Russian).
Chernenko V.I., Litovchenko K.I., Papanova I.I. Progressive pulsed and alternating current modes of electrolysis. Kyiv: Publishing House NaukovaDumka, 1986. 176 p. (in Russian).
Chernenko V.I., Snezhko L.A., Papanova I.I., Litovchenko K.I. Theory and technology of anode processes at high voltages. Kyiv.: Publishing House NaukovaDumka, 1995. 199 p. (in Russian).
Kostin N.A., Kublanovskiy V.S. Pulse electrolysis of alloys. Kyiv: Publishing House NaukovaDumka, 1996. 200 p. (in Russian).
Gorodysky A.V. Voltammetry. Kyiv: Publishing House NaukovaDumka, 1988. 176 p. (in Russian).
Shapoval V.I., Makogon V.F. Influence of oxygen ions on the impedance of the Ni/Ni2+ system in the KCl–LiCl melt. Russian Journal of Electrochemistry. 1974. 10 (8): 1245–1249 (in Russian).
Gorodysky A.V., Manzhos A.N., Babak E.A. On the method of calculation and diagnostic criteria for the Herisher impedance. Russian Journal of Electrochemistry. 1982. 18 (8): 1087–
Pototskaya V.V., Gichan O.I. On the theory of the generalized Gerischer impedance for an electrode with modelingroughnessю. ElectrochimicaActa. 2017. 235: 583–594.
Vasyl’ev H.S, HerasymenkoYu.S. Corrosion meters of new generation based on the improved method of polarization resistance. Materials Science. 2017. 52 (5): 722–731.
Donchenko M.Y., Srybnaya O.G., Markosyan G.N. Features of the method of internal electrolysis when applying coatings on passivating metals. Electrochemistry. 1995. 31 (1): 143–148 (in Russian).
Donchenko M.I., Motronyuk T.I. Cathodic and anodic protection of metals from corrosion in galvanic processes. Protection of metals. 1997.33 (2): 205–207 (in Russian).
Pogrebova I.S. Metal corrosion inhibitors. Kyiv: Publishing House Hi-Tech Press, 2012. 295 p. (in Ukrainian).
Ledovs’kykh V.М., Vyshnevs’ka Y.P., Brazhnyk І.V., Levchenko S.V. Development and optimization of synergistic compositions for the corrosion protection of steel in neutral and acid media. Materials Science.2017. 52 (5): 634–642.
Chviruk V.P., Linyucheva O.V., Buket A.I On the nature of transition processes in ammetric gas sensors based on solid proton electrolytes. ElectrochimicaActa. 1997, 42(20–22): 3155–3165.
Chviruk V.P., Nedashkovskii V.A., Linyucheva O.V., Buket A.I. Mass transfer in amperometric gas sensors. Russian Journal of Electrochemistry, 2006. 42 (1): 71–80 (in Russian).
Dumanskyi A.V., DelimarskyiYu.K. History of the Institute of General and Inorganic Chemistry of the Academy of Sciences of the Ukrainian SSR. Memoirs of the Institute of Chemistry, Academy of Sciences of the Ukrainian SSR. 1947. 9 (1): 295–314 (in Ukrainian).
Suprunchuk V.K., Vdovenko I.D., Kanchenko L.P., Suprunchk V.V., Chernegova I.K. Corrosion protection of sugar factories. Kyiv: Publishing House Technik, 1972. 241 p. (in Ukrainian).
Bespalko O.P., Vdovenko I.D. Electrodeposition of metals and alloys from tartrate electrolytes. Kyiv: Publishing House NaukovaDumka, 1971. 132 p. (in Russian).
Yapontseva, Yu. S., Маltseva, T.V., Кublanovsky V.S. Corrosion Properties of Electrolytic Coatings Based on СоW, CoRe, and CoWRe Alloys. Materials Science. 2021. 56 (5): 649–653.
YapontsevaYu.S., Kublanovsky V.S., Maltseva T.V., Gorobets O.V., Gerasimenko R.S., Vyshnevskii O.A. Effect of Magnetic Field on Electrodeposition and Properties of Cobalt Superalloys. Journal of The Electrochemical Society. 2022. 169: 062507.
Grevillot G., Dziaz’ko J.S., Kazdobin K.A, Belyakov V.N. The Electrochemically Controlled Sorption of d-Metal Cations by Ion Exchangers, based on Titanium Phosphate. J. Solid State Electrochem. 1999. 3 (2): 111–116.
Kazdobin K.A., Shvab N.A., Tsapakh S.V. Scaling-up of Fluidized Bed Electrochemical Reactors. Chemical Engineering Journal. 2000. 79 (3): 203–209.
Stus V.P., Kravchenko A.V., Kublanovskii V.S., Velichenko A.B. Ecologically safe oxygen-containing oxidizers and their role in human protection from technogenic and biological pollution. Dnepropetrovsk: Publishing House Accent PP, 2012. 331 p. (in Russian).
Pivovarov L.A., Kravchenko A.V., Stus V.P., Kublanovskii V.S. Sanitary-microbiological and hygienic evaluation of aqueous media treated with cold plasma. Dnepropetrovsk: Publishing House Porogi, 2009. 126 p. (in Russian).
Omel’chuk A.O., Yudenkova I.M., Shevel V.M. Electrochemical decontamination of technological equipment contaminated with radionuclides. Science and innovation. 2012. 8 (1): 77–86 (in Ukrainian).
Afonskii S.S., Gubskaya E.S., Skripnik S.V. Extraction of chromium (VI) from dilute chromium-containing solutions of galvanic production. Ecology and Resource Saving. 1998. (1): 61–63 (in Russian).
Bersirova O.L., Byk S.V., Kublanovskii V.S. Silver electrodeposition. Kyiv: Publishing House MIC "Medinform", 2013. 168 p. (in Russian).
Zarubitskii O.G., Malashok A.N. Development and implementation of silver plating technology from iodide electrolytes. Improvement of progressive types of electrochemical coatings and advanced implementation experience. Moscow: Dep in VNIIESM, 23.03. 1989. No. 1751, Series 23, Issue 5 (in Russian).
Pokhodenko V.D., Koshechko V.G. Ion radicals and free radicals in the processes of CO2, SO2, NO and freons to valuable organic products. Free radicals in biology and environment. Ed. by F. Minisci. The Netherland: Kluver Acad. Publ., NATO ASI ser., 1997. 27: 145–159.
Koshechko V.G., Titov V.E., Paramonov P.B. Electrocatalysis of the reduction of 1,1,2-trifiortrichloroethane (Freon 113) by outer sphere electron transfer mediators. Theoretical and experimental. chemistry. 2001. 37 (2): 89–94 (in Russian).
Koshechko V.G., Pokhodenko V.D. Electrochemical activation of freons using electron transfer mediators. Russian Chemical Bulletin. Chemical series. 2001. 11: 1843–1849 (in Russian).
Pud A.A., Shapoval G.S. Electrochemical decomposition of solid polymers on a cathode. Elektrokhimiya. 1992. 28 (4): 654–668 (in Russian).
Delimarsky Yu. K., Skobets E.M. Polarography on solid electrodes. Kyiv: Publishing House Technique, 1970. 220 p. (in Russian).
Pokhodenko V.D., Koshechko V.G., Barchuk V.I. The emergence of EMF in one-electron redox reactions of stable radicals. Theoretical and experimental. chemistry. 1976. 12 (2): 276–277 (in Russian).
Chemical Power Supply: Pat. 4397922 US: HO1M 10/40; No. 305810; declared 25.09. 1981; publ. 09.08. 1983.
KurysYa.I., Netyaga N.S., Koshechko V.G., Pokhodenko V.D. Polyaniline/12-phosphotungstic acid/V2O5 nanocomposite and its platinum-containing analog are oxygen reduction electrocatalysts. Theoretical and experimental. chemistry. 2007. 43 (5): 307–314 (in Russian).
Ivanova N.D., Gorodyskii A.V., BoldyrevYe.I., Mishchenko A.B., Filatov K.V. Cathodic Materials Based on Oxides of Different Compositions for High-Amperage Lithium Lithium Batteries and their Conductivity. 6th Intern. Meet. Lithium Batteries,Munster, May 10–15, 1992. Extend. Abstr. Munster: 1992. 407–408.
Gorodyskii A.V., Beletskii V.M., Chmilenko N.A., Bodachevskii F.A., Tkalenko D.A. Development of disk and cylindrical current sources with electrodes from lithium and its alloys. III All-Union. scientific Conference on electrochemical power engineering. Moscow, October 19-21, 1989. Abstracts of reports. M., 1989. 5–6 (in Russian).
Barsukov V.Z., Dunovskii S.A., Gorodyskii A.V., Dmitrenko V.E. The usage perspective of monomeric and polymeric active organic materials in the chemical recharges batteries. 40th ISE Meeting. Kyoto, Japan, 1989 September 17–22. Extend. Abstr. Kyoto: 1989: 2: 1241–1242.
Pirskyy Yu., Murafa N., Korduban А. M., Šubrt J. Nanostructured catalysts for oxygen electroreduction based on bimetallic monoethanolamine complexes of Co(III) and Ni(II). Journal of Applied Electrochemistry. 2014. 44 (10): 1193–1203.
Ivanenko I., Voronova A., Astrelin I., Krupennikova O., Pirskyy Y. Ni-, Co-spinels: synthesis, structure and properties. Molecular Crystals and Liquid Crystals. 2019. 689 (1): 72–82.
PirskyYu.K., Manilevich F.D., Panchishin T.M., KolosovskyYa.V. Membrane-electrode block for water-reflective fire element with proton-exchange membrane. XXI international scientific and practical conference "Energy and energy efficiency in the XXI century" 14–15 January 2020. Kiev: Proceed. conference. 2020. 224–227 (in Ukrainian).
Manilevich F.D., Kozin L.F., Mashkova N.V., Kutsyi A.V. Regularities of hydrogen evolution on steel cathodes covered with galvanic nickel coatings containing vanadium-pentoxide inclusions. Protection of Metals and Physical Chemistry of Surfaces. 2014. 50 (2): 178–182.
Manilevich F.D., Lisogor A.I., Kozin L.F. Regularities of cathodic hydrogen evolution at an electrolytic Co-V alloy and its components. Research & Reviews in Electrochemistry. 2014. 5 (5): 124–133.
Kozin L.F., Volkov S.V., Goncharenko S.G., Permyakov V.V., Danil’tsev B.I. Kinetics and Mechanism of Interaction of Aluminum and Magnesium of Al–Mg–Bi Ternary System with Water. Protection of Metals and Physical Chemistry of Surfaces. 2011. 47 (2): 171–180.
Manilevich F.D., PirskyyYu.K., Danil’tsev B.I., B.I. Kutsyi B.I., Yartys V.A. Studies of hydrolysis of aluminum activated by additions of Ga-In-Sn eutectic alloy, bismuth or antimony. Physicochemical Mechanics of Materials. 2019. 55 (4): 69–80.
Kuksenko S.P., Kovalenko I.O., TarasenkoYu.A., Кartel N.T. Silicon-carbon nanocomposite for hybrid electrodes of lithium-ion batteries. Voprosykhimiiikhimicheskoytekhnologii. 2011. (4): 299–303 (in Russian).
MaletinYu.A., Stryzhakova N.G., Zelinskyi S.O., Hozhenko O.V., Strelko V.V. Supercapacitors – electrical energy accumulators with using nano-sized carbon materials. Visnyk NAS of Ukraine. 2011. (12): 23–29 (in Ukrainian).
Potapenko A.V., Kirilov S.A. Enhancing high-rate electrochemical properties of LiMn2O4 in a LiMn2O4/ LiNi0,5Mn1,5O4. Electrochim. Acta. 2017. 248: 9–16.
Khomenko V.G., Barsukov V.Z., Doninger J.E., Barsukov I.V. Lithium-ion batteries based on carbon–silicon–graphite composite anodes. Journal of Power Sources. 2007. 165 (2): 598–608.
KolbasovG.Ya., Vorobets V.S., Blinkova L.V., Karpenko S.V., OblovatnaS.Ya. Electrodes based on TiO2 nanotubes for an electrochemical sensor of dissolved oxygen. Sensor electronics and microsystem technologies. 2012. 3 (9): 39–42 (in Ukrainian).
Vorobets V.S., Fomanyuk S.S., KolbasovG.Ya., Smirnova N.P., Linnik O.P. Determination of the concentration of Cu (II) in the aqueous medium using the inversion electrochemical method. Ukraine chemical journal. 2019. 85 (7): 24–30 (in Ukrainian).
Fischer P.Uber die ElektrischeLeitfahigkeit von FestenOxydgemischen. Zeit. fur Elektrochemie. 1926. 32 (3): 136–143.
Fischer P.Uber die ElektrischeLeitfahigkeit von FestenOxydgemischen. Zeit. fur Elektrochemie. 1926. 32 (11): 538–543.
Delymarskii Y.K., Tumanova N.H., Prykhodko M.U. Application of vector polarography for the study of solid electrolytes. Electrochemistry. 1970. 6 (8): 760–1242 (in Russian).
Polishchuk A.F., Shurkhal T.M., Romaschenko N.A. Electrical conductivity of sulfates of alkali metals in the crystalline and molten state. Ukraine chemical journal. 1973. 39 (8): 760–767 (in Russian).
Polishchuk A.F., Tyshura T.A., Budaryna A.N. The nature of phase transitions in sulfates of alkali metals. Ukraine chemical journal. 1974. 40 (2): 120–123 (in Russian).
Bilous A.G., Kobilyanskaya S.D. Oxide cast conductive solid electrolytes. Kyiv: Publishing House Naukovadumka. 2018. 318 p. (in Russian).
Yanchevskii O.Z., Kovalenko L.L., Belous A.G. Codoping of scandium-containing zirconia based solid electrolytes with iron, cerium and copper oxides. Inorganic Materials. 2016. 52 (3): 301–308 (in Russian).
PohorenkoYu.V., Pshenychnyi R.M., Omelchuk A.O., Trachevskyi V.V. Synthesis and conductive properties of solid solutions Pb1-xLnxSnF4+x (Ln – La, Ce, Nd, Sm, Gd). Ukraine chemical journal. 2016. 82 (11): 33–43 (in Ukrainian).
PohorenkoYu.V., Pshenychnyi R.M., Pavlenko T.V., Omelchuk A.O., Trachevskii V.V. Fluoride ion conductivity of solid solutions KxPb(0.86-x)Sn1.14F(4-x). J. Serb. Chem. Soc. 2021. 86 (9): 845–857.