A. I. Merentsov

发表

Studying the heterogeneity of the CrxTi1-xCh2 (Ch = S, Se) single crystals using X-ray scanning photoemission microscopy

M. Amati, L. Gregoratti, P. Zeller, 2022 .

Specific features of the electronic structure of CoxTiSe2 according to the resonant photoemission data.

A. I. Merentsov, A. S. Shkvarin, M. S. Postnikov, 2020, Physical chemistry chemical physics : PCCP.

Quasimolecular complexes in the CuxTiSe2−ySy intercalation compound

S. Nappini, I. Píš, A. I. Merentsov, 2018 .

Electronic structure of ZrX2 (X = Se, Te).

S. Nappini, I. Píš, A. I. Merentsov, 2018, The Journal of chemical physics.

Electronic structure of NixTiSe2 (0.05 ≤ x ≤ 0.46) compounds with ordered and disordered Ni.

Y. Zhukov, A. I. Merentsov, A. S. Shkvarin, 2017, Physical chemistry chemical physics : PCCP.

MxTiSe2 (M=Cr, Mn, Cu) electronic structure study by methods of resonance X-ray photoemission spectroscopy and X-ray absorption spectroscopy

A. I. Merentsov, A. S. Shkvarin, Y. Yarmoshenko, 2012 .

Electronic structure of titanium dichalcogenides TiX2 (X = S, Se, Te)

A. I. Merentsov, A. S. Shkvarin, Y. Yarmoshenko, 2012 .

Structure and properties of Ti1 − xCrxSe2 substitutional solid solutions

A. I. Merentsov, A. Titov, V. Neverov, 2006 .

An Unusual Cu/Te Hybridization in the Cu0.3zrte2 Intercalation Compound

N. Tsud, A. I. Merentsov, M. S. Postnikov, 2022, SSRN Electronic Journal.

Electronic Structures of the Vanadium-Intercalated and Substitutionally Doped Transition-Metal Dichalcogenides TixVySe2.

S. Nappini, I. Bobrikov, F. Bondino, 2020, Inorganic chemistry.

Topological suppression of the charge-density-wave transition in TiSe2

A. I. Merentsov, E. G. Shkvarina, A. Titov, 2018 .

Electronic structure of VxTi1-xSe2 in wide concentration region (0.06 ≤ x ≤ 0.9).

Y. Zhukov, A. I. Merentsov, A. Titov, 2017, The Journal of chemical physics.

Morphology and composition of nanoinclusions in (Fe, Ni)0.25TiSe2

E. I. Patrakov, M. Amati, L. Gregoratti, 2022, Materials Science and Engineering: B.

Electronic Structure of VxTi1–xSe2 Solid Solutions with the (V,Ti)Se2 Structural Fragments

S. Nappini, F. Bondino, I. Píš, 2022, The Journal of Physical Chemistry C.

The electronic structure formation of Cu(x)TiSe2 in a wide range (0.04 < x < 0.8) of copper concentration.

Y. Zhukov, A. I. Merentsov, A. Titov, 2016, The Journal of chemical physics.

Electronic structure of octahedrally coordinated Cr in CrxTiX2 (X = Se, Te) and TixCr1−xSe2

J. Avila, M. Asensio, B. Senkovskiy, 2016 .

Structural and phase stability of titanium dichalcogenides with isovalent and inovalent substitutions

A. I. Merentsov, A. Titov, A. Titov, 2014 .

Resonant photoemission and absorption spectroscopy study of the CrxTi1−xSe2 electronic structure

A. I. Merentsov, A. Titov, Y. Yarmoshenko, 2011 .

Structure and properties of the intercalation compound CuxTiSe2

A. I. Merentsov, A. Titov, A. Titov, 2009 .

Phase relations and structure–properties correlations in Fe(S,Se,Te)

A. I. Merentsov, N. Selezneva, N. Baranov, 2017 .

Characterization of the phase composition, crystal structure and superconducting properties of Fe1.02SeyTe1−y−xSx

A. I. Merentsov, N. Baranov, A. S. Abouhaswa, 2016 .

Properties of FeSe-type superconductors with ternary mixture of chalcogens

A. I. Merentsov, N. Selezneva, N. Baranov, 2014 .

The crystal structure, chemical bonding, and magnetic properties of the intercalation compounds CrxZrTe2 (x = 0–0.3)

S. Nappini, I. Píš, A. Volegov, 2021, 2105.02332.

Chemical bond in FexTiSe2 intercalation compounds: dramatic influence of Fe concentration

O. V. Bushkova, A. I. Merentsov, Y. Yarmoshenko, 2016 .

Specific features of the electronic and crystal structure of CuxZrSe2 (0 < x ≤ 0.3)

F. Bondino, S. Uporov, I. Píš, 2020 .

Resonance photoelectron spectroscopy of TiX2 (X = S, Se, Te) titanium dichalcogenides

A. I. Merentsov, A. Titov, Y. Yarmoshenko, 2012 .

Janus Layers in the TiSe2–TiS2 System

M. Asensio, O. V. Bushkova, A. I. Merentsov, 2021, Chemistry of Materials.

Electronic and crystal structure of bi-intercalated titanium diselenide CuxNiyTiSe2

S. Nappini, F. Bondino, S. Pryanichnikov, 2021 .

Chemical bonds in intercalation compounds CuxTiCh2 (Ch = S, Te).

N. Tsud, A. I. Merentsov, A. Titov, 2019, The Journal of chemical physics.

Synthesis, structure and properties of the layered CuxTiS2 compounds

S. Uporov, S. Pryanichnikov, A. Rybkin, 2018, Journal of Alloys and Compounds.

An X-ray spectrscopy study of the electronic structure of TiS3

A. I. Merentsov, A. Titov, Y. Yarmoshenko, 2014, Journal of Structural Chemistry.

Localization of charge carriers in layered crystals MexTiSe2 (Me = Cr, Mn, Cu) studied by the resonant photoemission

A. I. Merentsov, Y. Yarmoshenko, A. Titov, 2013 .

Observing of Ti, Cr and Mn 2p-3d resonance in valence band of titanium dichalcogenides

A. I. Merentsov, A. Titov, Y. Yarmoshenko, 2013 .

Studying the electronic structure of CrxTi1−xSe2 by X-ray resonance and absorption spectroscopy

M. Sperling, D. Marchenko, P. Slepukhin, 2011 .

Influence of heterovalent substitution in the titanium sublattice on the electrochemical intercalation of lithium in MyTi1–ySe2 (M = Cr, V))

O. V. Bushkova, A. I. Merentsov, A. Titov, 2015 .

Charge transfer in Nb1-xVxSe2 materials: Synchrotron radiation spectroscopy study

F. Bondino, I. Píš, A. I. Merentsov, 2023, Journal of Physics and Chemistry of Solids.

Electronic Structure and Magnetic State of TiSe2 Doped with Cr by Means of Intercalation or Substitution of Ti

A. I. Merentsov, A. Titov, A. Shkvarin, 2010 .

Band Gap Width Control by Cu Intercalation Into ZrSe2

S. Nappini, F. Bondino, I. Píš, 2018, The Journal of Physical Chemistry C.