I. Zavaliy

发表

Copolymers of aniline and nitroanilines: Part II. Physicochemical properties

P. Zavalij, O. Reshetnyak, J. Błażejowski, 2001 .

Phase equilibria in the Nd–Mg–Co system at 300 and 500 °C, crystal structure and hydrogenation behavior of selected compounds

V. Pavlyuk, B. Marciniak, V. Paul-Boncour, 2017 .

Oxide-modified ZrFe alloys: thermodynamic calculations, X-ray analysis and hydrogen absorption properties

M. V. Lototsky, V. Yartys, I. Zavaliy, 1995 .

Electrochemical Hydrogenation Properties of New YNi3 and YNi4 Based Alloys

I. Zavaliy, P. Lyutyy, Yu. V. Verbovytskyy, 2022, Solid State Phenomena.

Synthesis and crystal structure of new compounds from the Y–Mg–Ni system

V. Pavlyuk, M. Cyrański, V. Paul-Boncour, 2018, Zeitschrift für Kristallographie - Crystalline Materials.

Kinetics and mechanism of MgH2 hydrolysis in MgCl2 solutions

V. Yartys, I. Zavaliy, A. Kytsya, 2021, International Journal of Hydrogen Energy.

Hydrogen ordering and H-induced phase transformations in Zr-based intermetallic hydrides

I. R. Harris, H. Fjellvåg, V. Yartys, 1999 .

Hydrogenation of Zr6FeAl2 and crystal structure of Zr6FeAl2D10

P. Fischer, K. Yvon, V. Yartys, 1995 .

Synthesis and properties of the Mg2Ni0.5Co0.5H4.4 hydride

F. Cuevas, V. Paul-Boncour, Jian Zhang, 2015 .

Bimetallic Ni-Co nanoparticles as an efficient catalyst of hydrogen generation via hydrolysis of NaBH4

V. Yartys, I. Zavaliy, V. Kordan, 2022, Journal of Alloys and Compounds.

Effect of Ti-based nanosized additives on the hydrogen storage properties of MgH2

R. Denys, I. Zavaliy, V. Berezovets’, 2021 .

Phase equilibria in the Mg–Ti–Ni system at 500 °C and hydrogenation properties of selected alloys

V. Pecharsky, V. Paul-Boncour, R. Denys, 2013 .

Effect of Co substitution on hydrogenation and magnetic properties of NdMgNi4 alloy

V. Paul-Boncour, R. Denys, V. Shtender, 2015 .

HYDROGEN-INDUCED PHASE TRANSFORMATIONS IN H-STORING ALLOYS OF ZIRCONIUM

I. R. Harris, H. Fjellvåg, V. Yartys, 1998 .

Electronic structure of Zr4Fe2O: Ab initio APW+LO calculations and X-ray spectroscopy studies

A. A. Lavrentyev, B. V. Gabrelian, O. Khyzhun, 2013 .

Effect of oxygen content on hydrogen storage capacity of Zr-based η-phases

I. Zavaliy, 1999 .

Hydrogenation of Zr6MeX2 intermetallic compounds (Me=Fe, Co, Ni; X=Al, Ga, Sn): Crystallographic and theoretical analysis

V. Pecharsky, G. Miller, L. Akselrud, 1999 .

(Hf, Zr)2Fe and Zr4Fe2O0.6 compounds and their hydrides : phase equilibria, crystal structure and magnetic properties

V. Yartys, H. Michor, G. Hilscher, 1998 .

New Hydrides of Zr-Based Intermetallic Compounds

I. Zavaliy, 1998 .

Vanadium-based BCC alloys: phase-structural characteristics and hydrogen sorption properties

M. V. Lototsky, V. Yartys, I. Zavaliy, 2005 .

Phase-structural characteristics of (Ti1−xZrx)4Ni2O0.3 alloys and their hydrogen gas and electrochemical absorption–desorption properties

M. Kopczyk, G. Młynarek, V. Yartys, 2001 .

The crystal structure of the oxygen-stabilized η-phase Zr3V3OxD9.6

V. Pecharsky, P. Zavalij, I. Saldan, 2000 .

Oxygen-, Boron- and Nitrogen-Containing Zirconium-Vanadium Alloys as Hydrogen Getters with Enhanced Properties*

M. V. Lototsky, Yu. F. Shmal’ko, V. Yartys, 1994 .

Crystal structure, hydrogen absorption-desorption behavior and magnetic properties of the Nd3−xMgxCo9 alloys

V. Paul-Boncour, R. Denys, V. Shtender, 2017 .

Hydrogenation properties and crystal structure of YMgT4 (Т = Co, Ni, Cu) compounds

V. Paul-Boncour, R. Denys, V. Shtender, 2014 .

The investigation of hydrogen sublattice in Mg2NiHx (x = 0.3) hydride by first-principle calculations

V. Pavlyuk, I. Zavaliy, I. Oshchapovsky, 2021 .

Impact of the R and Mg on the structural, hydrogenation and magnetic properties of R3-Mg Co9 (R = Pr, Nd, Tb and Y; 0 ≤ x ≤ 2) compounds

P. Svedlindh, V. Paul-Boncour, R. Denys, 2022, Materials Research Bulletin.

CRYSTAL STRUCTURE OF THE η -Ti3ZrNi2O0.5 SUBOXIDE AND ITS Ti3ZrNi2O0.5D5.7 DEUTERIDE

I. Saldan, I. Zavaliy, A. B. Riabov, 2007 .

Hydrogen absorption and phase structural characteristics of oxygen-containing ZrV alloys substituted by Hf, Ti, Nb, Fe

V. Yartys, I. Zavaliy, A. B. Riabov, 1995 .

First-principles FP-LAPW calculations and X-ray spectroscopy studies of the electronic structure of Zr3V3O and Zr3V3O0.6 oxides

M. V. Karpets, V. L. Bekenev, O. Khyzhun, 2012 .

Synthesis and crystal structure of κ-Zr9V4SH∼23

R. Černý, R. Denys, I. Zavaliy, 2005 .

Hydrogenation of oxygen-stabilized Zr3NiOx compounds

R. Černý, I. Saldan, I. Zavaliy, 2003 .

The Crystal Structure of the Oxygen-Stabilized η-Phase Zr3V3OxD9.6.

V. Pecharsky, P. Zavalij, I. Saldan, 2000 .

Electronic structure of Ti4Fe2O as determined from ab initio calculations and X-ray spectroscopy studies

B. V. Gabrelian, O. Khyzhun, P. N. Shkumat, 2011 .

Electronic structure of Ti4Fe2Ox as determined from first-principles APW + LO calculations and X-ray spectroscopy data

A. K. Sinelnichenko, B. V. Gabrelian, O. Khyzhun, 2010 .

Crystal structure of the novel Mg3MnNi2D3−x interstitial deuteride

R. Černý, R. Denys, I. Zavaliy, 2011 .

Oxygen Modification of Zr(Ti)-V-Ni Alloys: Phase Composition and Hydrogenation Properties

I. Saldan, I. Zavaliy, A. B. Riabov, 2002 .

The Y–Mg–Co ternary system: alloys synthesis, phase diagram at 500 °C and crystal structure of the new compounds

V. Pavlyuk, V. Paul-Boncour, O. Zelinska, 2020 .

Solid gas and electrochemical hydrogenation of the selected alloys (R’,R’’)2-xMgxNi4-yCoy (R’, R’’ = Pr, Nd; x = 0.8–1.2; y = 0–2)

V. Paul-Boncour, I. Zavaliy, P. Lyutyy, 2021 .

Solid gas and electrochemical hydrogenation properties of the selected R,R’MgNi4-xMx (R,R’ = La, Pr, Nd; M = Fe, Mn; x = 0.5, 1) alloys

I. Zavaliy, Yu. V. Verbovytskyy, Yu.V. Kosarchyn, 2020 .

TbMgNi4-xCox–(H,D)2 System. I: Synthesis, Hydrogenation Properties, and Crystal and Electronic Structures

V. Paul-Boncour, R. Denys, V. Shtender, 2020 .

The Pr1-La MgNi4-Co alloys: Synthesis, structure and hydrogenation properties

V. Shtender, I. Zavaliy, P. Lyutyy, 2018, Solid State Sciences.

Y6Mg9Co2 and Y9Mg30Co2: Novel magnesium-rich compounds representing new structure types

V. Pavlyuk, B. Marciniak, O. Zelinska, 2018 .

Phase equilibria in the Tb-Mg-Co system at 500 °C, crystal structure and hydrogenation properties of selected compounds

V. Pavlyuk, V. Paul-Boncour, O. Zelinska, 2015 .

Hydrogenation behavior of the R4MgCo (R=Y, La, Nd, Tb) compounds

V. Paul-Boncour, R. Denys, V. Shtender, 2015 .

Hydrogenation Properties and Crystal Structure of YMgT4 (T: Co, Ni, Cu) Compounds.

V. Paul-Boncour, R. Denys, V. Shtender, 2014 .

New CeMgCo4 and Ce2MgCo9 compounds: Hydrogenation properties and crystal structure of hydrides

R. Černý, R. Denys, I. Zavaliy, 2012 .

New Mg–Mn–Ni alloys as efficient hydrogen storage materials

V. Paul-Boncour, R. Denys, I. Zavaliy, 2010 .

AC impedance behavior of the Ti4Ni2Oy and Ti3.5Zr0.5Ni2Oy type metal hydride electrodes

G. Młynarek, G. Vaivars, J. Kleperis, 1999 .

Interaction of hydrogen with RECu2 and RE(Cu,Ni)2 intermetallic compounds (RE=Y, Pr, Dy, Ho)☆

R. Černý, V. Verbetsky, R. Denys, 2003 .

Co-polymers of aniline and nitroanilines. Part I. Mechanism of aniline oxidation polycondensation

P. Zavalij, O. Reshetnyak, E. P. Koval’chuk, 2001 .

Hydrogen Generation by the Hydrolysis of MgH2

V. Yartys, I. Zavaliy, A. Kytsya, 2020, Materials Science.

Synthesis, structure and hydrogenation properties of Ni-Cu bimetallic nanoparticles

P. Zavalij, I. Zavaliy, L. Bazylyak, 2021, Applied Nanoscience.

HYDROGEN BASED ENERGY STORAGE: STATUS AND RECENT DEVELOPMENTS

V. Yartys, I. Zavaliy, Y. Solonin, 2021 .

Generation of Hydrogen by the Hydrolysis of Mixtures of Magnesium Hydride with Citric Acid

V. Yartys, I. Zavaliy, A. Kytsya, 2022, Materials Science.

MgH2–ZrN Composites for Hydrogen Generation by Hydrolysis

Y. Solonin, I. Zavaliy, V. Kordan, 2022, Powder Metallurgy and Metal Ceramics.

Hydrogen absorption-desorption properties and hydrolysis performance of MgH2-Zr3V3O0.6Hx and MgH2-Zr3V3O0.6Hx-C composites

V. Yartys, R. Denys, I. Zavaliy, 2023, Journal of Energy Storage.

Synthesis and hydrogenation properties of Ni–Co bimetallic nanoparticles

I. Zavaliy, V. Kordan, L. Bazylyak, 2023, Applied Nanoscience.

Magnesium Composite Materials for Nickel–Metal Hydride Batteries

I. Zavaliy, Yu. V. Verbovytskyy, T. Zasadnyy, 2019, Powder Metallurgy and Metal Ceramics.

Solid-gas and electrochemical hydrogenation properties of the La1-xNdxMgNi4-yCoy alloys

H. Drulis, V. Shtender, A. Hackemer, 2018 .

Electrode Materials Based on LaMgNi4–xCox (0 ≤ x ≤ 1) Alloys

V. Shtender, I. Zavaliy, P. Lyutyi, 2017, Powder Metallurgy and Metal Ceramics.

Hydrogen-induced changes in crystal structure and magnetic properties of the Zr3MOx (M = Fe, Co) phases

R. Černý, R. Denys, G. Hilscher, 2005 .

Hydrogen Sorption Properties of Materials Based on Alloys and Compounds with High Contents of Magnesium

V. Shtender, I. Zavaliy, Yu. V. Verbovytskyy, 2021, Materials Science.

The Er–{Fe,Co}–{Ti,V} systems and hydrogenation properties of the ErFe2−xMx (M = Ti, V, Cr, Mn, Co, Ni, Cu, Mo) alloys

I. Zavaliy, B. Kotur, О. Мyakush, 2007 .

Crystal structure of κ-Hf9Mo4SiD16.8 deuteride

R. Černý, R. Denys, I. Zavaliy, 2008 .

Facile synthesis and regeneration of Mg(BH4)2 by high energy reactive ball milling of MgB2.

Takeshi Kobayashi, V. Pecharsky, M. Pruski, 2013, Chemical communications.

Mg–TiN and Mg–ZrN Nanocomposites as Efficient Materials for the Accumulation and Generation of Hydrogen

I. Zavaliy, I. Oshchapovsky, V. Berezovets, 2021, Materials Science.