G. D. Ilyushin

发表

Migration maps of Li+ cations in oxygen-containing compounds

Vladislav A. Blatov, O. A. Blatova, V. Blatov, 2008 .

Theoretical crystal chemistry of phosphates: Topological analysis and classification of suprapolyhedral ensembles of orthophosphates and their analogues Mx(TO4)y

V. Blatov, G. D. Ilyushin, 2004 .

Mechanism of structural phase transitions in the Li4GeO4-ZnGeO4 system: Computer modeling and identification of invariant nanocluster structures in Li4GeO4, LISICON Li6Zn(GeO4)2, and Li4Zn2(GeO4)2 (γ phase)

V. Blatov, L. N. Dem’yanets, G. D. Ilyushin, 2012, Russian Journal of Inorganic Chemistry.

Theory of cluster self-organization of crystal-forming systems: geometrical–topological modeling of nanocluster precursors with a hierarchical structure

G. D. Ilyushin, 2012, Structural Chemistry.

Cluster self-organization of inorganic crystal-forming systems: Templated nanocluster precursors and self-assembly of framework MT structures of A/B,Zr silicates (A = Na, K; B = Ca, Sr)

G. D. Ilyushin, 2012 .

Cluster self-organization of intermetallic systems: Nanocluster precursors (i-K8, i-K6, K4) and self-assembly of crystal structures Ir8Mg58(cF396), Ir7Mg44(cF408), and Ir6Mg26 (hR96)

V. Blatov, G. D. Ilyushin, 2010 .

Modeling of self-organization in crystal-forming MT systems: The structural mechanism of self-assembly from suprapolyhedral clusters for framework titanophosphates NaTiPO5 (SYN), NaTiPO5 (TIT), and KTiPO5 (KTP)

G. D. Ilyushin, 2007 .

Symmetry and topology code of the cluster self-assembly of framework MT structures of alumophosphates AlPO4(H2O)2 (metavariscite and variscite) and Al2(PO4)2(H2O)3 (APC)

V. Blatov, G. D. Ilyushin, 2017 .

The Zeolite Conundrum: Why Are There so Many Hypothetical Zeolites and so Few Observed? A Possible Answer from the Zeolite-Type Frameworks Perceived As Packings of Tiles

V. Blatov, D. Proserpio, G. D. Ilyushin, 2013 .

Computer-Aided Modeling of Aluminophosphate Zeolites As Packings of Building Units

U. Schwingenschlögl, V. Blatov, G. D. Ilyushin, 2012 .

Structure and chemical composition of the new zeolite ISC-1 from the data of nanocluster modeling

V. Blatov, A. Lapshin, O. Golubeva, 2010 .

New types of multishell nanoclusters with a Frank-Kasper polyhedral core in intermetallics.

V. Blatov, D. Proserpio, G. D. Ilyushin, 2011, Inorganic chemistry.

Symmetry and topology code of cluster self-assembly of icosahedral framework structures of boron and borides

G. D. Ilyushin, 2016, Russian Journal of Inorganic Chemistry.

γ-Brass polyhedral core in intermetallics: the nanocluster model.

V. Blatov, D. Proserpio, A. A. Pankova, 2013, Inorganic chemistry.

Hydrothermal crystallization in the KOH-ZrO2-GeO2-H2O system under 0.1 GPa pressure at 500°C: Phase relationships for Zr germanates and modeling of K2ZrGe2O7 crystal structure

G. D. Ilyushin, 2005 .

Cluster Self-Organization of Intermetallic Systems: New Three-Layer Nanocluster-Precursor K211 = 1@14@80@116 in the Er88Mn110Al237Si237-cP672 Crystal Structure

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2021, Glass Physics and Chemistry.

Investigation of the Structure of Crystal-Forming Solutions of Potassium Dihydrogen Phosphate K(H2PO4) (KDP type) on the Basis of Modeling Precursor Clusters and According to Small-Angle X-Ray Scattering Data

P. Konarev, M. Kovalchuk, A. Blagov, 2019, Crystallography Reports.

Phase Relations in the Systems LiOH–GeO2–H2O and LiOH–SiO2–H2O at 500°C and 0.1 GPa

L. N. Dem’yanets, G. D. Ilyushin, 2002 .

Modeling of the self-organization processes in crystal-forming systems: Symmetry and topological code of cluster self-assembly of molecular (island) and framework MT structures of vanadyl sulfates

Y. Pisarevskiĭ, G. D. Ilyushin, 2015, Crystallography Reports.

Cluster self-organization of silicate and germanate systems: Invariant suprapolyhedral cluster precursors and self-assembly of the crystal structures of Li,TR silicates (germanates)

L. N. Dem’yanets, G. D. Ilyushin, 2008 .

Cluster self-organization of TR-containing silicate and germanate systems: Suprapolyhedral precursors and self-assembly of A2HMTO5 (A = Li, Na; M = Sc, Lu, Yb) crystal structures with MTO5 frameworks

L. N. Dem’yanets, G. D. Ilyushin, 2006 .

Orthotetrahedral crystal structures My(TO4)z (T = Si, Ge, P, As, S, Se, Cl, Br, I): geometrical-topological analysis, quasi-binary representation, and comparison with the AyXz compounds by the method of coordination sequences

V. Blatov, G. D. Ilyushin, Yu. A. Zakutkin, 2004 .

Structural Chemistry of Intermetallic Compounds: Geometric and Topological Analysis; Cluster Precursors K4, K6, and K21; and Self-Assembly of Crystal Structure S2Hg2-aP8, Cs2Hg4-oI12, and Cs10Hg38-tI48

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2022, Glass Physics and Chemistry.

Structural Chemistry of Intermetallic Compounds: Geometric and Topological Analysis, Icosahedral Cluster Precursors K45 = Hg@Hg12@Cs12Hg20 and K81 = Hg@Hg12@Hg32@Hg36, as Well as the Self-Assembly of Crystal Structures Cs6Hg40–cP46 and Cs12Hg162–cI174

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2022, Glass Physics and Chemistry.

Cluster Self-Organization of Intermetallic Systems: 124-Icosahedral Three-Layered Cluster 0@12(Ga12)@32(Ga12Na20)@80(Ga60Na6K14) for the Self-Assembly of the Crystalline Framework of Na26K8Ga104 (R$$\bar {3}$$m, R414)

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2018, Glass Physics and Chemistry.

Hydrothermal Crystallization in the System KOH–TiO2–GeO2–H2O at 500°C and 0.1 GPa

G. D. Ilyushin, 2003 .

Crystal chemistry of orthosilicates and their analogs: the classification by topological types of suprapolyhedral structural units.

V. Blatov, G. D. Ilyushin, Yu. A. Zakutkin, 2002, Acta crystallographica. Section B, Structural science.

Modeling of self-organization processes in crystal-forming systems: Symmetry and topology code for cluster self-assembly of crystal structures in MT-structures of polyvalent sulfates and phosphates

G. D. Ilyushin, 2015, Russian Journal of Inorganic Chemistry.

Modeling of self-organization processes in crystal-forming systems: Symmetry and topology code for cluster self-assembly of crystal structures for molecular and framework compounds

G. D. Ilyushin, 2015, Russian Journal of Inorganic Chemistry.

Cluster self-organization of germanate systems: Suprapolyhedral nanocluster precursors and self-assembly of the Li8GeO6, Li4GeO4, and Li6Ge2O7 crystal structures

G. D. Ilyushin, 2012 .

Cluster self-organization of crystal-forming systems: Suprapolyhedral cluster precursors and self-assembly of the icosahedral structure of ZrZn22(cF184)

V. Blatov, G. D. Ilyushin, 2009 .

Cluster self-organization of Na-TR-Ge-O-H (TR = La-Lu, Y, and Sc) germanate systems: Suprapolyhedral precursor clusters and self-assembly of Na2Pr6Ge8O26, Na4Sc2Ge4O13, and Na5ScGe4O12 crystal structures

L. N. Dem’yanets, G. D. Ilyushin, 2009 .

Cluster self-organization of germanate systems: Suprapolyhedral precursor clusters and self-assembly of K2Nd4Ge4O13(OH)4, K2YbGe4O10(OH), K2Sc2Ge2O7(OH)2, and KScGe2O6(PYR)

L. N. Dem’yanets, G. D. Ilyushin, 2008 .

Cluster self-organization of silicate and germanate systems: Suprapolyhedral precursor clusters and self-assembly of orthotetrahedral structures in Na,TR-germanates (silicates)

L. N. Dem’yanets, G. D. Ilyushin, 2008 .

Cluster self-organization of TR-containing germanate systems: Suprapolyhedral precursors and self-assembly of the crystal structures of the LiNdGeO4 and CeGeO4 compounds

L. N. Dem’yanets, G. D. Ilyushin, 2007 .

Cluster self-organization of Li- and TR-Containing silicate systems: Suprapolyhedral precursors and self-assembly of LiY[7]SiO4 and LiTR[6]SiO4 (TR = Y, Sc, Tm) dimorphic crystal structures

L. N. Dem’yanets, G. D. Ilyushin, 2007 .

Cluster self-organization of TR,Ge-containing crystal-forming systems: Suprapolyhedral precursors and self-assembly of La3Ga[6]Ga4[4]Ge[4]O14 (langasite) and La3Ge[6]Ge2[5]Ge2[4]Ga[4]O16 gallogermanates

L. N. Dem’yanets, G. D. Ilyushin, 2007 .

Theoretical crystal chemistry of Mx(TO4)y sulfates and selenates: Topological analysis and classification of suprapolyhedral invariants

V. Blatov, G. D. Ilyushin, 2006 .

Cluster self-organization of Li-and TR-containing germanate systems: Suprapolyhedral precursors and self-assembly of LiScGeO4 and LiHo3(GeO4)2F2 crystal structures

L. N. Dem’yanets, G. D. Ilyushin, 2006 .

Modeling of the self-organizing processes in crystal-forming systems: Structural mechanism of assembly of the K2Ba[Ge[6]Ge3[4]O9]2, K2Ge[6]Ge3[4]O9, and BaGe[6]Ge3[4]O9 germanates from subpolyhedral clusters

G. D. Ilyushin, 2005 .

Hydrothermal Crystallization in the Na2CO3–ZrO2–SiO2–H2O System at 500°C and 0.1 GPa: Na2ZrSi4O11, Na2ZrSi2O7, and Na4Zr2Si3O12 Phase Relations

G. D. Ilyushin, 2004 .

Hydrothermal crystallization in the NaOH-GeO2-H2O system at 350°C: Mechanism of self-assembly of subpolyhedral clusters in Na4Ge4[6]Ge5[4]O20, Na3HG4[6]Ge3[4]O16 · 4H2O, and NaHTi2[6]Si[4]O7 · 2H2O

L. N. Dem’yanets, G. D. Ilyushin, 2003 .

Crystal chemistry of Li,GeVI-germanates: Combinatorial-topological analysis and modeling of crystal structures

L. N. Demianets, G. D. Ilyushin, 2001 .

Natural Tilings for Zeolite-Type Frameworks

V. Blatov, D. Proserpio, N. A. Anurova, 2010 .

Phase Relations in the LiOH–ZrO2–GeO2–H2O System at 500°C and 0.1 GPa

G. D. Ilyushin, 2002 .

Phase Relations in the KOH–TiO2–SiO2–H2O System at 500°C and 0.1 GPa

G. D. Ilyushin, 2003 .

Cluster self-organization of silicate and germanate systems: Suprapolyhedral precursor nanoclusters and self-assembly of tetrahedral structures of the family A2T2O5 (A = Li, Na; T = Si, Ge): Li2T2O5, Li4Ge3SiO10, Li2Si2O5, and A2Si2O5

G. D. Ilyushin, 2012, Russian Journal of Inorganic Chemistry.

Phase Relations in the LiOH–TiO2–SiO2–H2O System at 500°C and 0.1 GPa

G. D. Ilyushin, 2002 .

Hydrothermal crystallization in the KF-ZrO2-SiO2-H2O system at 40°C: Phase equilibria and modeling of ZrSiO4, K2ZrSi6O15, K2ZrSi3O9, K3ZrF7, and ZrO2 crystal structures

G. D. Ilyushin, 2003 .

Phase Relations in the Na2CO3–ZrO2–SiO2–H2O System at 0.1 and 0.05 GPa and 450°C

G. D. Ilyushin, 2002 .

Hydrothermal Synthesis of K2ZrSi6O15 , K2ZrSi3O9 , K2ZrSi2O7, and ZrSiO4 in the System KOH–ZrO2–SiO2–H2O

L. N. Dem’yanets, G. D. Ilyushin, 2002 .

Crystal chemistry of zirconosilicates and their analogs: topological classification of MT frameworks and suprapolyhedral invariants.

V. Blatov, G. D. Ilyushin, 2002, Acta crystallographica. Section B, Structural science.

Geometric and topological analysis of zeolite crystal structures by the tiling method: The model of structure of Na,K-paulingite (PAU) Na82K72[Al154Si518O1344] · wH2O

V. Blatov, G. D. Ilyushin, 2011 .

Computer simulation of the self-assembly of paulingite crystal structure from suprapolyhedral nanocluster precursors K6, K16, and K20

V. Blatov, G. D. Ilyushin, 2011 .

Phase Relations in the KOH–GeO2–H2O System at 500°C and 0.1 GPa

G. D. Ilyushin, 2003 .

KOH-ZrO 2 -SiO 2 -H 2 O Hydrothermal System: Formation of Potassium Zirconosilicates and Crystallochemical Correlations Among Them

L. N. Dem’yanets, G. D. Ilyushin, 1996 .

Modeling of self-organization of silicate systems: Precursor nanoclusters and self-assembly of Na3MSi3O9 (M = Y, Eu-Lu; oP256) crystal structures producing two interpenetrating diamond-type frameworks

G. D. Ilyushin, L. N. Demyanets, 2010 .

Cluster Self-Organization of Intermetallic Systems: Role of K5 = 0@5, K9 = 1@8 and K11 = 0@11 Clusters in the Self-Assembly of Crystal Structures

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2020, Glass Physics and Chemistry.

Hydrothermal Crystallization in the Systems LiOH–MO2–GeO2–H2O (M = Ti, Sn) at 500°C and 0.1 GPa: Li2Ti[5]Ge[4]O5 and Li2Ge[6]Ge2[4]O6 Phase Relations

L. N. Dem’yanets, G. D. Ilyushin, 2002 .

Features of the atomic and electronic structure of the new nonlinear optical crystal KAlFPO4

O. L. Slovokhotova, L. N. Dem’yanets, G. D. Ilyushin, 1991 .

Cluster Self-Organization of Intermetallic Systems: Three-Layer Clusters K159A = 1@16@44@98 and K159B = 1@14@40@104 and Two-Layer Clusters K61 = 1@16@44 and K26 = 0@4@22 in the Crystalline Structure Ta156Al288-cF444

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2021, Glass Physics and Chemistry.

Cluster Self-Organization of Intermetallic Systems: Two-Layer Precursor Cluster K44 = 0@8(U2Pu6)@36(U12Pu24) and Spacer K14 = U2Pu12 in the Crystal Structure U16Pu42-hP58

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2022, Glass Physics and Chemistry.

Cluster Self-Organization of Intermetallic Systems: New Precursor Cluster K65 = 0@3@20@42 for the Self-Assembly of the Sc96Mg8Zn600-cP704 Crystal Structure

V. Blatov, V. Shevchenko, G. D. Ilyushin, 2022, Glass Physics and Chemistry.

Analysis of Li+ cation migration paths in oxygen-containing compounds

V. Blatov, O. Blatova, L. N. Dem’yanets, 2009 .

Analysis of migration paths in fast-ion conductors with Voronoi-Dirichlet partition.

V. Blatov, O. Blatova, Vladislav A Blatov, 2006, Acta crystallographica. Section B, Structural science.

Modeling of the self-organization processes in crystal-forming systems: Symmetry and topological code of cluster self-assembly of molecular (island) and framework MT structures of vanadyl sulfates

Y. Pisarevskiĭ, G. D. Ilyushin, 2015 .

Simulation of self-organization processes in crystal-forming systems: Supramolecular cyclic R6 cluster precursors and self-assembly of TeO2-TEL (Tellurite) and TeO2-PAR (Paratellurite) structures

G. D. Ilyushin, 2014 .

Geometrical and topological model of formation, selection, and evolution of precursor nanoclusters in the convergent matrix self-assembly mechanism of crystal formation

G. D. Ilyushin, 2012, Russian Journal of Inorganic Chemistry.

Crystal Chemistry of Lithium Intermetallic Compounds: A Survey

G. D. Ilyushin, 2018, Russian Journal of Inorganic Chemistry.

Cluster-Precursors and Self-Assembly Li36Ca4Sn24-oS64 and LiMgEu2Sn3-oS28 Crystalline Structures

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2020, Glass Physics and Chemistry.

Modeling Self-Organization Processes in Crystal-Forming Systems: New Two-Layer Cluster–Precursor K44 = 0@8(Na2In6)@36(In6Cd6K6)2 for the Self-Assembly of the K23Na8Cd12In48–hP91 Crystal Structure

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Glass Physics and Chemistry.

Cluster Self-Organization of Intermetallic Systems: 0@12(Ga12)@24(Na12Ga12)@72(Rb4Na8Ga60) 108-Atom Three-Layer Icosahedral Cluster and 0@12(Ga12)@32(Na20Ga12) 44-Atom Two-Layer Icosahedral Cluster for Rb24Na200Ga696-oF920 Crystal Structure Self-Assembly

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Glass Physics and Chemistry.

Symmetry and Topology Code of the Cluster Self-Assembly of Intermetallic Compounds A2[16]B4[12] of the Friauf Families Mg2Cu4 and Mg2Zn4

G. D. Ilyushin, 2018, Crystallography Reports.

Modeling of self-organization processes in crystal-forming systems: Symmetry and topology code for the cluster self-assembly of crystal structures of intermetallic compounds

G. D. Ilyushin, 2017, Russian Journal of Inorganic Chemistry.

Modeling of the self-organization processes in crystal-forming systems. Tetrahedral metal clusters and the self-assembly of crystal structures of intermetallic compounds

G. D. Ilyushin, 2017 .

Nanocluster model of intermetallic compounds with giant unit cells: beta, beta'-Mg(2)Al(3) polymorphs.

V. Blatov, D. Proserpio, G. D. Ilyushin, 2010, Inorganic chemistry.

Modeling of self-organization processes in crystal-forming systems. Structural mechanism of self-assembly of zirconosilicate Na2ZrSi2O7 from suprapolyhedral clusters

G. D. Ilyushin, 2004 .

Symmetry and topology codes of cluster self-assembly for icosahedral structures of the NaZn13-cF112 and TRB66-cF1944 family

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2015, Glass Physics and Chemistry.

Combinatorial-topological modeling of the cluster self-assembly of crystal structures of zeolites of the GME, AFX, AFT, and ISC-2 family

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2015, Glass Physics and Chemistry.

Symmetrical and Topological Self-Assembly Code of the Crystalline Structure of a New Aluminosilicate Zeolite ISC-1 from Templated t-plg Suprapolyhedral Precursors

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Glass Physics and Chemistry.

Structural chemistry of metal inorganic 3D MT frameworks. Templated nanoclusters–precursors Ga2(PO4)2F2 and Ga2(PO4)2(HF)F2 and self-assembly of crystalline gallophosphate structures (NH4)2[Ga2(PO4)2F2](KTP-Type) and (NH4)2[Ga2(PO4)2(HF)F2] (p-KTP-Type)

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2015, Glass Physics and Chemistry.

New types of two-layer nanoclusters with an icosahedral core

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2013, Glass Physics and Chemistry.

Assembly models for zeolite crystal structures according to the data of topological analysis by the tiling method

V. Blatov, G. D. Ilyushin, 2012 .

Structural chemistry of metal microclusters: Questions and answers

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2009 .

Cluster-precursors for structure formation of Alkali Zirconosilicates in the Systems AOH-ZrO2-SiO2-H2O (A = Li-Cs): algorithm for their identification and self-assembling modeling

G. D. Ilyushin, 2006 .

Hydrothermal crystallization in the NaOH-ZrO2-SiO2-H2O system at 450°C: Phase relations of Na4Zr2Si5O16.H2O, Na8ZrSi6O18, Na3HZrSi2O8, and Na4Zr2Si3O12

G. D. Ilyushin, 2003 .

From clusters to crystals: scale chemistry of intermetallics

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Structural Chemistry.

New icosahedral nanoclusters in crystal structures of intermetallic compounds: Topological types of 50-atom deltahedra D50 in samson phases β-Mg2Al3 and ɛ-Mg23Al30

V. Blatov, G. D. Ilyushin, 2012 .

New method for computer analysis of complex intermetallic compounds and nanocluster model of the samson phase Cd3Cu4

V. Blatov, G. D. Ilyushin, 2010 .

Cluster Self-Organization of Intermetallic Systems: New Two-Layer Cluster-Precursors K57 = Li@15(Ga_6Cu_9)@41(Cu_15Mg_26) and K41 = 0@8(Mg_2Ga_6)@33(Li_6Mg_3Ga_24) in the Li_10Mg_34Cu_24Ga_71-hP139 Crystal Structure and K5 = 0@Ca_2LiInGe in the Ca_2LiInGe_2-oP24 Crystal Structure

V. Shevchenko, G. D. Ilyushin, 2023, Glass Physics and Chemistry.

Cluster Self-Organization of Intermetallic Systems: New Cluster-Precursors K12 = 1Zn@11(Mg5Zn6), K5 = 0@5(LiZn4), K4 = 0@4(Li2Al2) in the Li12Mg20Al8Zn60-oC100 Crystal Structure and K3 = 0@3(CaMgGe), K4 = 0@4(LiCaMgGe), K4 = 0@4(Ca2Ge2) in the Li4Ca32Mg8Ge32-oP76 Crystal Structure

V. Shevchenko, G. D. Ilyushin, 2022, Glass Physics and Chemistry.

Structures of the ZrZn22 family: suprapolyhedral nanoclusters, methods of self-assembly and superstructural ordering.

V. Blatov, G. D. Ilyushin, 2009, Acta crystallographica. Section B, Structural science.

Intermetallic compounds of the NaCd2 family perceived as assemblies of nanoclusters

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2009 .

Combinatorial-topological modeling of the cluster self-assembly of zeolite crystal structures: computer search for molecular templates for new zeolite ISC-2

V. Blatov, A. Golov, G. D. Ilyushin, 2016, Russian Chemical Bulletin.

An analysis of migration paths of Li+ cations in ternary oxygen-containing compounds LipXqOr

V. Blatov, O. Blatova, L. N. Dem’yanets, 2008 .

Analysis of microporous mineral phases with Voronoi-Dirichlet polyhedra

V. Blatov, O. Blatova, L. N. Dem’yanets, 2005 .

Nanoclusters based on pentagondodecahedra with shells in the form of D32, D42, and D50 deltahedra in crystal structures of intermetallic compounds

V. Blatov, A. A. Pankova, G. D. Ilyushin, 2012 .

Geometric and topological analysis of icosahedral structures of samson Mg2Zn11 (cP39) Phases, K6Na15Tl18H (cP40), and Tm3In7Co9 (cP46): Nanocluster precursors, self-assembly mechanism, and superstructure ordering

V. Blatov, G. D. Ilyushin, 2011 .

Modeling the Processes of Self-Organization in Crystal-Forming Systems: New Two-Layer Clusters–Precursors 0@(Na2Cd6)@(Na12Cd26) and 0@(Na3Cd6)@(Na6Cd35) for the Self-Assembly of the Na26Cd141–hP168 Crystal Structure

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Glass Physics and Chemistry.

Theory of cluster self-organization for crystal-forming systems: A model of transition from disodered to ordered systems

G. D. Ilyushin, 2011 .

Cluster Self-Organization of Intermetallic Systems: New Three-Layer Cluster K142 for the Self-Assembly of the K44In80-hR366 Crystal Structure and the Bergman Tetracluster K141 for the Self-Assembly of the K34In82-cF464 Crystal Structure

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2020, Glass Physics and Chemistry.

Modeling Self-Organization Processes in Crystal-Forming Systems: Suprapolyedic Na18Hg157 Precursor Clusters for the Self-Assembly of the Na99Hg468–hP567 Crystal Structure

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2019, Glass Physics and Chemistry.

Modeling Self-Organization Processes in Crystal Forming Systems. Symmetry and Topology Codes of Cluster Self-Assembly of Crystal Structure of Na44Tl7 (Na6Tl)

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2017, Glass Physics and Chemistry.

The Symmetric and Topological Code of the Cluster Self-Assembly of the Crystal Structure of ε-Mg23Al30 of K63 Nanoclusters

V. Blatov, G. D. Ilyushin, V. Shevchenko, 2017, Glass Physics and Chemistry.

Symmetry and topology code (program) of crystal structure cluster self-assembly for molecular and framework compounds

G. D. Ilyushin, 2014, Russian Journal of Inorganic Chemistry.

ECOLOGICAL AND GEOMORPHOLOGICAL COAST SENSITIVITY ASSESSMENT OF THE LAPTEV SEA TO THE OIL SPILLS

A. Kizyakov, G. D. Ilyushin, A. Ermolov, 2017 .

Cluster Self-Organization of Intermetallic Systems: K3, K4, K5, K6, and K13 Clusters-Precursors for the Self-Assembly of U8Ni10Al36-mC54, U20Ni26-mC46, and U8Co8-cI16 Crystal Structures

V. Shevchenko, G. D. Ilyushin, 2023, Glass Physics and Chemistry.

Computer simulation of the self-assembly of crystal structures of zeolites Ca64(Sr,K,Ba)48(Cu12(O,Cl))4[Si192Al192O786](H2O)n (tschoertnerite, TSC, V = 31 614 Å3) and Ca2K2[Al6Si6O24](H2O)10 (willhendersonite, cha, V = 804 Å3) from template nanocluster precursors K48 and K12

V. Blatov, G. D. Ilyushin, 2013 .

Computer modeling of self-assembly of the crystal structure of zeolite Na384[Al384Si384O1536] (H2O)422 (LTN, cF4080) from suprapolyhedral cluster precursors AB2 (A-K48, B-K24)

V. Blatov, G. D. Ilyushin, 2012 .

Intermetallic Compounds LikMn (M = Ag, Au, Pt, Pd, Ir, Rh): Geometrical and Topological Analysis, Tetrahedral Cluster Precursors, and Self-Assembly of Crystal Structures

G. D. Ilyushin, 2020, Crystallography Reports.