В. В. Артемов

1.2k total citations
114 papers, 886 citations indexed

About

В. В. Артемов is a scholar working on Materials Chemistry, Electrical and Electronic Engineering and Biomedical Engineering. According to data from OpenAlex, В. В. Артемов has authored 114 papers receiving a total of 886 indexed citations (citations by other indexed papers that have themselves been cited), including 50 papers in Materials Chemistry, 31 papers in Electrical and Electronic Engineering and 31 papers in Biomedical Engineering. Recurrent topics in В. В. Артемов's work include Liquid Crystal Research Advancements (15 papers), Plasmonic and Surface Plasmon Research (12 papers) and Photonic Crystals and Applications (12 papers). В. В. Артемов is often cited by papers focused on Liquid Crystal Research Advancements (15 papers), Plasmonic and Surface Plasmon Research (12 papers) and Photonic Crystals and Applications (12 papers). В. В. Артемов collaborates with scholars based in Russia, United Kingdom and Tajikistan. В. В. Артемов's co-authors include M. V. Gorkunov, Alexander A. Ezhov, S. P. Palto, Oleg Y. Rogov, Р. В. Гайнутдинов, I. S. Lyubutin, Yaroslav V. Kudryavtsev, О.А. Алексеева, K. V. Pochivalov and К. В. Фролов and has published in prestigious journals such as Applied Physics Letters, Journal of Applied Physics and The Journal of Physical Chemistry B.

In The Last Decade

В. В. Артемов

100 papers receiving 867 citations

Peers — A (Enhanced Table)

Peers by citation overlap · career bar shows stage (early→late) cites · hero ref

Name	h						Papers	Cites
В. В. Артемов Russia	17	349	326	222	220	192	114	886
Zhaoyuan Liu China	14	323 0.9×	251 0.8×	146 0.7×	232 1.1×	155 0.8×	56	720
J. Liu China	18	416 1.2×	943 2.9×	223 1.0×	502 2.3×	187 1.0×	57	1.4k
T. Tanaka Japan	13	254 0.7×	648 2.0×	170 0.8×	460 2.1×	179 0.9×	63	1.3k
Basudev Lahiri India	19	543 1.6×	374 1.1×	690 3.1×	474 2.2×	324 1.7×	74	1.4k
А. М. Мурзакаев Russia	16	113 0.3×	504 1.5×	184 0.8×	327 1.5×	116 0.6×	92	932
Nikolai Strohfeldt Germany	13	408 1.2×	297 0.9×	517 2.3×	348 1.6×	195 1.0×	16	946
D. A. Zatsepin Russia	21	337 1.0×	819 2.5×	109 0.5×	606 2.8×	137 0.7×	95	1.5k
Akira Ishikawa Japan	16	128 0.4×	316 1.0×	169 0.8×	200 0.9×	137 0.7×	89	861
SangGap Lee South Korea	16	379 1.1×	184 0.6×	449 2.0×	473 2.1×	124 0.6×	45	998
Rebecca J. Nicholls United Kingdom	20	198 0.6×	1.0k 3.1×	169 0.8×	499 2.3×	169 0.9×	57	1.5k

Countries citing papers authored by В. В. Артемов

Since Specialization

Citations

This map shows the geographic impact of В. В. Артемов's research. It shows the number of citations coming from papers published by authors working in each country. You can also color the map by specialization and compare the number of citations received by В. В. Артемов with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites В. В. Артемов more than expected).

Fields of papers citing papers by В. В. Артемов

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by В. В. Артемов. Nodes represent research fields, and links connect fields that are likely to share authors. Colored nodes show fields that tend to cite the papers produced by В. В. Артемов. The network helps show where В. В. Артемов may publish in the future.

Co-authorship network of co-authors of В. В. Артемов

This figure shows the co-authorship network connecting the top 25 collaborators of В. В. Артемов. A scholar is included among the top collaborators of В. В. Артемов based on the total number of citations received by their joint publications. Widths of edges represent the number of papers authors have co-authored together. Node borders signify the number of papers an author published with В. В. Артемов. В. В. Артемов is excluded from the visualization to improve readability, since they are connected to all nodes in the network.

All Works

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20 of 20 papers shown

Артемов, В. В., et al.. (2024). Polycrystalline Methylammonium–Lead Bromide Perovskite Films for Photonic Metasurfaces. Crystallography Reports. 69(3). 351–358. 1 indexed citations

Алексеева, О.А., et al.. (2023). Crystal Structure of Bismuth-Containing Samarium Iron–Aluminium Borates Sm1−xBixFe3−yAly(BO3)4 (x = 0.05–0.07, y = 0–0.28) in the Temperature Range of 25–500 K. Crystals. 13(7). 1128–1128. 1 indexed citations

Ermakov, А. V., Ekaterina V. Lengert, Petr V. Konarev, et al.. (2023). Microfluidically Assisted Synthesis of Calcium Carbonate Submicron Particles with Improved Loading Properties. Micromachines. 15(1). 16–16. 7 indexed citations

Gorkunov, M. V., et al.. (2022). Double‐sided liquid crystal metasurfaces for electrically and mechanically controlled broadband visible anomalous refraction. Nanophotonics. 11(17). 3901–3912. 9 indexed citations

Артемов, В. В., et al.. (2022). Hybrid Core–Shell Microparticles Based on Vaterite Polymorphs Assembled via Freezing-Induced Loading. Crystal Growth & Design. 23(1). 96–103. 2 indexed citations

Артемов, В. В., et al.. (2022). Liquid crystal metasurfaces for versatile electrically tunable diffraction. Liquid Crystals. 50(7-10). 1555–1562. 2 indexed citations

Gorkunov, M. V., et al.. (2022). Non-Mechanical Multiplexed Beam-Steering Elements Based on Double-Sided Liquid Crystal Metasurfaces. Photonics. 9(12). 986–986. 2 indexed citations

Pochivalov, K. V., В. В. Артемов, В. В. Волков, et al.. (2021). Thermally induced phase separation in semicrystalline polymer solutions: How does the porous structure actually arise?. Materials Today Communications. 28. 102558–102558. 29 indexed citations

Borodina, Tatiana, Т. В. Букреева, М. А. Чуев, et al.. (2021). Permeability of the Composite Magnetic Microcapsules Triggered by a Non-Heating Low-Frequency Magnetic Field. Pharmaceutics. 14(1). 65–65. 13 indexed citations

10.

Palto, S. P., et al.. (2021). Liquid crystal microlenses based on binary surface alignment controlled by focused ion beam treatment. Optics Letters. 46(14). 3376–3376. 7 indexed citations

11.

Gorkunov, M. V., et al.. (2020). Liquid-Crystal Metasurfaces Self-Assembled on Focused Ion Beam Patterned Polymer Layers: Electro-Optical Control of Light Diffraction and Transmission. ACS Applied Materials & Interfaces. 12(27). 30815–30823. 19 indexed citations

12.

Shtykov, N. M., et al.. (2020). Lasing in liquid crystal systems with a deformed lying helix. Optics Letters. 45(15). 4328–4328. 6 indexed citations

13.

Gorkunov, M. V., et al.. (2020). Superperiodic Liquid-Crystal Metasurfaces for Electrically Controlled Anomalous Refraction. ACS Photonics. 7(11). 3096–3105. 22 indexed citations

14.

Palto, S. P., et al.. (2019). Deformed lying helix transition and lasing effect in cholesteric LC layers at spatially periodic boundary conditions. Liquid Crystals. 47(3). 384–398. 8 indexed citations

15.

Gorkunov, M. V., et al.. (2019). Precise local control of liquid crystal pretilt on polymer layers by focused ion beam nanopatterning. Beilstein Journal of Nanotechnology. 10. 1691–1697. 8 indexed citations

16.

Артемов, В. В., et al.. (2018). Nematic liquid crystal alignment on subwavelength metal gratings. Beilstein Journal of Nanotechnology. 9. 42–47. 4 indexed citations

17.

Fedorov, Sergey V., et al.. (2018). Highly Oxygen-Permeable NiV2O6–25 wt % V2O5 Molten-Oxide Membrane Material. Inorganic Materials. 54(10). 1055–1061. 5 indexed citations

18.

Сорокина, Н. И., О.А. Алексеева, Yan V. Zubavichus, et al.. (2018). Structure of Nd5Mo3O16 + δ Single Crystals Doped with Tungsten. Crystallography Reports. 63(3). 339–343. 9 indexed citations

19.

Артемов, В. В., et al.. (2017). Optical control of plasmonic grating transmission by photoinduced anisotropy. Journal of Optics. 19(7). 74001–74001. 6 indexed citations

20.

Dem’yanets, L. N., et al.. (2008). Zinc oxide hollow microstructures and nanostructures formed under hydrothermal conditions. Crystallography Reports. 53(5). 888–893. 3 indexed citations

Rankless uses publication and citation data sourced from OpenAlex, an open and comprehensive bibliographic database. While OpenAlex provides broad and valuable coverage of the global research landscape, it—like all bibliographic datasets—has inherent limitations. These include incomplete records, variations in author disambiguation, differences in journal indexing, and delays in data updates. As a result, some metrics and network relationships displayed in Rankless may not fully capture the entirety of a scholar's output or impact.

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