Ts. Paunska

447 total citations
34 papers, 358 citations indexed

About

Ts. Paunska is a scholar working on Electrical and Electronic Engineering, Aerospace Engineering and Radiology, Nuclear Medicine and Imaging. According to data from OpenAlex, Ts. Paunska has authored 34 papers receiving a total of 358 indexed citations (citations by other indexed papers that have themselves been cited), including 33 papers in Electrical and Electronic Engineering, 17 papers in Aerospace Engineering and 15 papers in Radiology, Nuclear Medicine and Imaging. Recurrent topics in Ts. Paunska's work include Plasma Diagnostics and Applications (31 papers), Particle accelerators and beam dynamics (15 papers) and Plasma Applications and Diagnostics (15 papers). Ts. Paunska is often cited by papers focused on Plasma Diagnostics and Applications (31 papers), Particle accelerators and beam dynamics (15 papers) and Plasma Applications and Diagnostics (15 papers). Ts. Paunska collaborates with scholars based in Bulgaria, Germany and Belgium. Ts. Paunska's co-authors include A. Shivarova, Kh. Tarnev, I. Koleva, H. Schlüter, Kremena Makasheva, Tsanko Tsankov, St Kolev, Annemie Bogaerts, V. V. Ivanov and Alain Simonin and has published in prestigious journals such as SHILAP Revista de lepidopterología, Journal of Applied Physics and Journal of Physics D Applied Physics.

In The Last Decade

Ts. Paunska

30 papers receiving 335 citations

Peers — A (Enhanced Table)

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

Name	h						Papers	Cites
Ts. Paunska Bulgaria	10	280	178	135	128	83	34	358
S. Briefi Germany	13	306 1.1×	258 1.4×	187 1.4×	96 0.8×	45 0.5×	44	389
R. W. Boswell Australia	9	367 1.3×	108 0.6×	104 0.8×	147 1.1×	21 0.3×	14	393
Tsv K Popov Bulgaria	10	265 0.9×	53 0.3×	146 1.1×	101 0.8×	45 0.5×	38	342
S. Aleiferis Greece	11	124 0.4×	97 0.5×	151 1.1×	56 0.4×	32 0.4×	35	282
Pascal Chabert France	11	477 1.7×	73 0.4×	40 0.3×	191 1.5×	101 1.2×	14	487
M. D. Campanell United States	9	353 1.3×	50 0.3×	88 0.7×	196 1.5×	43 0.5×	13	399
R. Agnello Switzerland	11	221 0.8×	188 1.1×	182 1.3×	66 0.5×	7 0.1×	33	291
Hiroshi Naitou Japan	10	152 0.5×	133 0.7×	247 1.8×	85 0.7×	15 0.2×	41	335
S. M. Hwang South Korea	8	152 0.5×	62 0.3×	76 0.6×	33 0.3×	29 0.3×	22	191
M. Hildebrandt Switzerland	11	74 0.3×	35 0.2×	114 0.8×	95 0.7×	18 0.2×	39	276

Countries citing papers authored by Ts. Paunska

Since Specialization

Citations

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

Fields of papers citing papers by Ts. Paunska

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by Ts. Paunska. 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 Ts. Paunska. The network helps show where Ts. Paunska may publish in the future.

Co-authorship network of co-authors of Ts. Paunska

This figure shows the co-authorship network connecting the top 25 collaborators of Ts. Paunska. A scholar is included among the top collaborators of Ts. Paunska 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 Ts. Paunska. Ts. Paunska 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

Kolev, St, et al.. (2025). Energy-Efficient CO2 Conversion for Carbon Utilization Using a Gliding Arc/Glow Discharge with Magnetic Field Acceleration—Optimization and Characterization. Energies. 18(14). 3816–3816.

Kolev, St, et al.. (2024). Experimental study of CO₂ dissociation in an expanding dc arc discharge at atmospheric pressure with multiple pin-to-pin electrodes. Journal of Physics Conference Series. 2710(1). 12035–12035.

Ivanov, V. G., et al.. (2022). Turbulent flow influence on the discharge parameters of a magnetically-stabilized gliding arc discharge. Journal of Physics Conference Series. 2240(1). 12035–12035.

Ivanov, V. V., Ts. Paunska, Kh. Tarnev, & St Kolev. (2021). Magnetic field stabilization of low current DC arc discharge in cross flow in argon gas at atmospheric pressure—a numerical modelling study. Plasma Sources Science and Technology. 30(8). 85007–85007. 2 indexed citations

Kolev, St, Ts. Paunska, Georgi Trenchev, & Annemie Bogaerts. (2020). Modeling the CO₂ dissociation in pulsed atmospheric-pressure discharge. Journal of Physics Conference Series. 1492(1). 12007–12007.

Paunska, Ts., Georgi Trenchev, Annemie Bogaerts, & St Kolev. (2019). A 2D model of a gliding arc discharge for CO2 conversion. AIP conference proceedings. 2075. 60008–60008. 6 indexed citations

Paunska, Ts., et al.. (2018). Experimental and theoretical study on the formation of hybrid discharge structure in a compact rf-driven negative hydrogen ion source. Journal of Physics D Applied Physics. 52(1). 15202–15202. 3 indexed citations

Paunska, Ts., et al.. (2015). Single discharge of the matrix source of negative hydrogen ions: Influence of the neutral particle dynamics. AIP conference proceedings. 1655. 20009–20009. 3 indexed citations

Shivarova, A., et al.. (2015). Low-pressure hydrogen discharge maintenance in a large-size plasma source with localized high radio-frequency power deposition. Physics of Plasmas. 22(3). 9 indexed citations

10.

Paunska, Ts., et al.. (2015). Spectroscopic study of neutral species in a planar-coil inductive discharge in hydrogen. Journal of Physics D Applied Physics. 48(48). 485204–485204. 7 indexed citations

11.

Tarnev, Kh., et al.. (2013). On the spatial distribution of the electromagnetic field in small-radius planar coil inductive discharges. Plasma Sources Science and Technology. 22(5). 55015–55015. 2 indexed citations

12.

Shivarova, A., et al.. (2013). On the two modes of operation of planar-coil-driven inductive discharges in hydrogen. Journal of Physics D Applied Physics. 46(16). 165204–165204. 7 indexed citations

13.

Paunska, Ts., et al.. (2013). Small-radius planar-coil driven inductive discharge as a source of negative hydrogen ions. AIP conference proceedings. 99–106. 8 indexed citations

14.

Tarnev, Kh., et al.. (2013). Spatial distribution of the plasma parameters in a radio-frequency driven negative ion source. Review of Scientific Instruments. 85(2). 02B104–02B104. 8 indexed citations

15.

Paunska, Ts., et al.. (2011). Low-Pressure Small-Radius Hydrogen Discharge as a Volume-Production Based Source of Negative Ions. AIP conference proceedings. 165–174. 5 indexed citations

16.

Koleva, I., et al.. (2011). Hydrogen Degree of Dissociation in a Low Pressure Tandem Plasma Source. Spectroscopy Letters. 44(1). 8–16. 12 indexed citations

17.

Paunska, Ts., A. Shivarova, & Kh. Tarnev. (2010). A small radius hydrogen discharge: An effective source of volume produced negative ions. Journal of Applied Physics. 107(8). 24 indexed citations

18.

Kolev, St, et al.. (2008). Expanding hydrogen plasmas: photodetachment-technique diagnostics. Plasma Physics and Controlled Fusion. 51(1). 15007–15007. 4 indexed citations

19.

Paunska, Ts., H. Schlüter, A. Shivarova, & Kh. Tarnev. (2006). Low pressure hydrogen discharges. Physics of Plasmas. 13(2). 23 indexed citations

20.

Paunska, Ts., et al.. (2003). Surface-wave produced discharges in hydrogen: II. Modifications of the discharge structure for varying gas-discharge conditions. Plasma Sources Science and Technology. 12(4). 608–618. 12 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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