S. G. Rykovanov

2.8k total citations
72 papers, 1.8k citations indexed

About

S. G. Rykovanov is a scholar working on Nuclear and High Energy Physics, Atomic and Molecular Physics, and Optics and Mechanics of Materials. According to data from OpenAlex, S. G. Rykovanov has authored 72 papers receiving a total of 1.8k indexed citations (citations by other indexed papers that have themselves been cited), including 63 papers in Nuclear and High Energy Physics, 55 papers in Atomic and Molecular Physics, and Optics and 27 papers in Mechanics of Materials. Recurrent topics in S. G. Rykovanov's work include Laser-Plasma Interactions and Diagnostics (63 papers), Laser-Matter Interactions and Applications (52 papers) and Laser-induced spectroscopy and plasma (27 papers). S. G. Rykovanov is often cited by papers focused on Laser-Plasma Interactions and Diagnostics (63 papers), Laser-Matter Interactions and Applications (52 papers) and Laser-induced spectroscopy and plasma (27 papers). S. G. Rykovanov collaborates with scholars based in Germany, Russia and United Kingdom. S. G. Rykovanov's co-authors include G. D. Tsakiris, B. Dromey, M. Zepf, M. Geissler, C. B. Schroeder, R. Hörlein, Wim Leemans, J. Schreiber, J. Meyer‐ter‐Vehn and M. Zepf and has published in prestigious journals such as Physical Review Letters, Nature Communications and SHILAP Revista de lepidopterología.

In The Last Decade

S. G. Rykovanov

69 papers receiving 1.7k citations

Peers — A (Enhanced Table)

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

Name	h						Papers	Cites
S. G. Rykovanov Germany	24	1.5k	1.4k	642	265	200	72	1.8k
Yousef I. Salamin United Arab Emirates	24	1.6k 1.0×	1.8k 1.3×	707 1.1×	266 1.0×	137 0.7×	87	2.1k
C. Thaury France	25	2.1k 1.4×	1.6k 1.1×	1.0k 1.6×	429 1.6×	454 2.3×	57	2.5k
Hyyong Suk South Korea	26	1.7k 1.1×	1.7k 1.2×	1.1k 1.8×	612 2.3×	107 0.5×	181	2.4k
A. M. Fedotov Russia	22	1.6k 1.1×	1.5k 1.1×	420 0.7×	245 0.9×	125 0.6×	77	2.0k
R. F. Heeter United States	21	1.2k 0.8×	554 0.4×	443 0.7×	99 0.4×	227 1.1×	91	1.6k
R. F. Hubbard United States	27	1.8k 1.2×	1.7k 1.2×	1.1k 1.7×	474 1.8×	103 0.5×	99	2.5k
Xiaohui Yuan China	20	1.2k 0.8×	888 0.6×	778 1.2×	530 2.0×	164 0.8×	104	1.8k
C. Riconda France	25	1.6k 1.0×	1.2k 0.9×	830 1.3×	179 0.7×	43 0.2×	79	1.8k
Henri Vincenti France	19	871 0.6×	908 0.6×	316 0.5×	265 1.0×	76 0.4×	32	1.2k
Nicholas H. Matlis Germany	18	596 0.4×	862 0.6×	268 0.4×	773 2.9×	159 0.8×	78	1.4k

Countries citing papers authored by S. G. Rykovanov

Since Specialization

Citations

This map shows the geographic impact of S. G. Rykovanov'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 S. G. Rykovanov with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites S. G. Rykovanov more than expected).

Fields of papers citing papers by S. G. Rykovanov

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by S. G. Rykovanov. 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 S. G. Rykovanov. The network helps show where S. G. Rykovanov may publish in the future.

Co-authorship network of co-authors of S. G. Rykovanov

This figure shows the co-authorship network connecting the top 25 collaborators of S. G. Rykovanov. A scholar is included among the top collaborators of S. G. Rykovanov 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 S. G. Rykovanov. S. G. Rykovanov 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

Wang, Jingwei, et al.. (2024). Polarization control of attosecond pulses from laser-nanofoil interactions using an external magnetic field. Physics of Plasmas. 31(7). 1 indexed citations

Zepf, Matt, et al.. (2023). Density-dependent carrier-envelope phase shift in attosecond pulse generation from relativistically oscillating mirrors. Matter and Radiation at Extremes. 8(6). 1 indexed citations

Seipt, D., et al.. (2022). Towards high photon density for Compton scattering by spectral chirp. Physical review. A. 106(3). 1 indexed citations

Wang, Jingwei, Matt Zepf, Yuxin Leng, Ruxin Li, & S. G. Rykovanov. (2022). Self-torqued harmonics and attosecond pulses driven by time-delayed relativistic vortex lasers. Physical review. A. 106(3). 3 indexed citations

Nedorezov, V., S. G. Rykovanov, & A. B. Savel’ev. (2021). Nuclear photonics: results and prospects. Physics-Uspekhi. 64(12). 1214–1237. 17 indexed citations

Rykovanov, S. G., et al.. (2021). Narrow Bandwidth Gamma Comb from Nonlinear Compton Scattering Using the Polarization Gating Technique. Physical Review Letters. 126(19). 194801–194801. 11 indexed citations

Wang, Jingwei, S. V. Bulanov, Min Chen, et al.. (2020). Relativistic slingshot: A source for single circularly polarized attosecond x-ray pulses. Physical review. E. 102(6). 61201–61201. 11 indexed citations

Zepf, M., et al.. (2020). Propagation effects in multipass high harmonic generation from plasma surfaces. New Journal of Physics. 22(9). 93048–93048. 5 indexed citations

Wang, Jingwei, M. Zepf, & S. G. Rykovanov. (2019). Intense attosecond pulses carrying orbital angular momentum using laser plasma interactions. Nature Communications. 10(1). 5554–5554. 44 indexed citations

10.

Zacharov, I., et al.. (2019). “Zhores” — Petaflops supercomputer for data-driven modeling, machine learning and artificial intelligence installed in Skolkovo Institute of Science and Technology. SHILAP Revista de lepidopterología. 134 indexed citations

11.

Liu, F., Min Chen, Zi-Yu Chen, et al.. (2019). High-quality high-order harmonic generation through preplasma truncation. Physical review. E. 100(5). 53207–53207. 6 indexed citations

12.

Kuschel, Stephan, et al.. (2017). A systematic approach to numerical dispersion in Maxwell solvers. Computer Physics Communications. 224. 273–281. 16 indexed citations

13.

Wang, Jingwei, et al.. (2017). Plasma channel undulator excited by high-order laser modes. Scientific Reports. 7(1). 16884–16884. 10 indexed citations

14.

Wang, Jingwei, Wei Yu, Minghai Yu, et al.. (2016). High-energy-density electron beam from interaction of two successive laser pulses with subcritical-density plasma. Physical Review Accelerators and Beams. 19(2). 8 indexed citations

15.

Yeung, M., S. G. Rykovanov, Stephan Kuschel, et al.. (2016). Experimental observation of attosecond control over relativistic electron bunches with two-colour fields. Nature Photonics. 11(1). 32–35. 47 indexed citations

16.

Yeung, M., B. Dromey, S. Cousens, et al.. (2014). Dependence of Laser-Driven Coherent Synchrotron Emission Efficiency on Pulse Ellipticity and Implications for Polarization Gating. Physical Review Letters. 112(12). 123902–123902. 46 indexed citations

17.

Dromey, B., S. G. Rykovanov, M. Yeung, et al.. (2012). Coherent synchrotron emission from electron nanobunches formed in relativistic laser–plasma interactions. Nature Physics. 8(11). 804–808. 119 indexed citations

18.

Hörlein, R., Mihai Stafe, J. M. Mikhailova, et al.. (2010). Toward single attosecond pulses using harmonic emission from solid-density plasmas. Applied Physics B. 101(3). 511–521. 29 indexed citations

19.

Hegelich, B. M., L. Yin, B. J. Albright, et al.. (2008). Towards GeV laser-driven ion acceleration. Bulletin of the American Physical Society. 50. 1 indexed citations

20.

Nomura, Yutaka, R. Hörlein, P. Tzallas, et al.. (2008). Attosecond phase locking of harmonics emitted from laser-produced plasmas. Nature Physics. 5(2). 124–128. 144 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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