J. Hlinka

5.6k total citations
190 papers, 4.6k citations indexed

About

J. Hlinka is a scholar working on Materials Chemistry, Electronic, Optical and Magnetic Materials and Biomedical Engineering. According to data from OpenAlex, J. Hlinka has authored 190 papers receiving a total of 4.6k indexed citations (citations by other indexed papers that have themselves been cited), including 173 papers in Materials Chemistry, 84 papers in Electronic, Optical and Magnetic Materials and 76 papers in Biomedical Engineering. Recurrent topics in J. Hlinka's work include Ferroelectric and Piezoelectric Materials (112 papers), Acoustic Wave Resonator Technologies (72 papers) and Solid-state spectroscopy and crystallography (52 papers). J. Hlinka is often cited by papers focused on Ferroelectric and Piezoelectric Materials (112 papers), Acoustic Wave Resonator Technologies (72 papers) and Solid-state spectroscopy and crystallography (52 papers). J. Hlinka collaborates with scholars based in Czechia, France and Japan. J. Hlinka's co-authors include Pavel Márton, J. Petzelt, T. Ostapchuk, S. Kamba, P. Ondrejkovič, I. Gregora, I. Rychetský, L. Bellaïche, M. Kempa and J. Kulda and has published in prestigious journals such as Physical Review Letters, Advanced Materials and Nature Communications.

In The Last Decade

J. Hlinka

183 papers receiving 4.5k citations

Author Peers

Peers are selected by citation overlap in the author's most active subfields. citations · hero ref

Author						Papers	Cites
J. Hlinka	4.0k	2.3k	1.7k	1.4k	872	190	4.6k
W. L. Zhong	4.5k 1.1×	2.3k 1.0×	1.8k 1.0×	1.3k 0.9×	633 0.7×	94	4.9k
J. Dec	3.4k 0.9×	1.6k 0.7×	1.4k 0.8×	1.2k 0.9×	619 0.7×	181	3.7k
M. D. Glinchuk	5.0k 1.3×	2.6k 1.1×	1.7k 1.0×	1.6k 1.2×	761 0.9×	237	5.4k
F. H. Dacol	2.7k 0.7×	1.3k 0.6×	1.2k 0.7×	1.6k 1.2×	922 1.1×	82	4.0k
Alexey B. Kuzmenko	3.1k 0.8×	1.6k 0.7×	1.1k 0.7×	1.5k 1.1×	1.9k 2.1×	87	5.2k
J. Harada	2.1k 0.5×	796 0.3×	556 0.3×	1.0k 0.7×	733 0.8×	103	2.8k
Alexej Pashkin	1.8k 0.5×	1.2k 0.5×	724 0.4×	2.0k 1.5×	1.4k 1.6×	125	3.6k
D. K. Fork	2.9k 0.7×	1.3k 0.6×	843 0.5×	2.0k 1.5×	649 0.7×	125	4.3k
M. H. Kuok	1.1k 0.3×	1.1k 0.5×	642 0.4×	813 0.6×	1.6k 1.8×	121	2.6k
M. Schmidbauer	1.9k 0.5×	1.2k 0.5×	600 0.4×	1.2k 0.9×	1.5k 1.7×	160	3.5k

Countries citing papers authored by J. Hlinka

Since Specialization

Citations

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

Fields of papers citing papers by J. Hlinka

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

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

Co-authorship network of co-authors of J. Hlinka

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

Hlinka, J., et al.. (2025). Thermal stability and topological charge fragmentation in antiskyrmions of rhombohedral barium titanate. Physical review. B.. 111(17).

Cho, Seongwoo, P. Ondrejkovič, Pavel Márton, et al.. (2025). Curvature‐Controlled Polarization in Adaptive Ferroelectric Membranes. Small. 21(41). e06338–e06338.

Carrétéro, Cécile, Xiaoyan Li, Florian Godel, et al.. (2025). Establishing a pure antiferroelectric PbZrO3 phase through tensile epitaxial strain. Nature Communications. 16(1). 6536–6536.

Li, Zixin, Aurore Finco, Pavel Márton, et al.. (2024). Electric-field-induced multiferroic topological solitons. Nature Materials. 23(7). 905–911. 15 indexed citations

Bednyakov, Petr & J. Hlinka. (2023). Charged Domain Walls in BaTiO₃ Crystals Emerging from Superdomain Boundaries. Advanced Electronic Materials. 9(6). 4 indexed citations

Laguta, V. V., R. O. Kuzian, V. Chlan, et al.. (2023). Low-temperature ground state structure of PbTiO3. Physical review. B.. 107(10).

Goian, Veronica, Fedir Borodavka, M. Savinov, et al.. (2023). Single ferroelectric phase transition in tris-sarcosine calcium chloride. Physical review. B.. 108(22). 2 indexed citations

Márton, Pavel, et al.. (2023). Zigzag charged domain walls in ferroelectric PbTiO3. Physical review. B.. 107(9). 5 indexed citations

Ho, H.P., Milutin Smiljanić, Zoran Jovanović, et al.. (2023). Robust SrTiO₃ Passivation of Silicon Photocathode by Reduced Graphene Oxide for Solar Water Splitting. ACS Applied Materials & Interfaces. 15(37). 44482–44492. 7 indexed citations

10.

Jovanović, Zoran, H.P. Ho, Binbin Chen, et al.. (2023). Tiling the Silicon for Added Functionality: PLD Growth of Highly Crystalline STO and PZT on Graphene Oxide-Buffered Silicon Surface. ACS Applied Materials & Interfaces. 15(4). 6058–6068. 5 indexed citations

11.

Beyreuther, Elke, et al.. (2022). Nanoscale Conductive Sheets in Ferroelectric BaTiO₃: Large Hall Electron Mobilities at Head-to-Head Domain Walls. ACS Applied Nano Materials. 5(7). 8717–8722. 16 indexed citations

12.

Popov, Maxim N., et al.. (2022). Finite-temperature investigation of homovalent and heterovalent substituted BaTiO3 from first principles. Physical review. B.. 106(22). 6 indexed citations

13.

Everhardt, Arnoud S., Thibaud Denneulin, Anna Grünebohm, et al.. (2020). Temperature-independent giant dielectric response in transitional BaTiO3 thin films. Applied Physics Reviews. 7(1). 42 indexed citations

14.

Nuzhnyy, D., J. Petzelt, V. Bovtun, S. Kamba, & J. Hlinka. (2019). Soft mode driven local ferroelectric transition in lead-based relaxors. Applied Physics Letters. 114(18). 4 indexed citations

15.

Buixaderas, E., Christelle Kadlec, M. Kempa, et al.. (2017). Fast polarization mechanisms in the uniaxial tungsten-bronze relaxor strontium barium niobate SBN-81. Scientific Reports. 7(1). 18034–18034. 12 indexed citations

16.

Paściak, Marek, T. R. Welberry, & J. Hlinka. (2016). Phase competition and effect of chemical ordering in ferroelectric relaxor PbSc _0.5 Nb _0.5 O ₃ from first principles. Phase Transitions. 89(7-8). 777–784. 1 indexed citations

17.

Hlinka, J., Jana Hodačová, Laurence Raehm, et al.. (2010). Attachment of trianglamines to silicon wafers, chiral recognition by chemical force microscopy. Comptes Rendus Chimie. 13(4). 481–485. 4 indexed citations

18.

Hlinka, J., T. Ostapchuk, D. Nuzhnyy, et al.. (2008). Coexistence of the Phonon and Relaxation Soft Modes in the Terahertz Dielectric Response of TetragonalBaTiO3. Physical Review Letters. 101(16). 167402–167402. 192 indexed citations

19.

Hlinka, J., J. Petzelt, S. Kamba, D. Noujni, & T. Ostapchuk. (2006). Infrared dielectric response of relaxor ferroelectrics. Phase Transitions. 79(1-2). 41–78. 169 indexed citations

20.

Hlinka, J., S. Kamba, J. Petzelt, et al.. (2003). Origin of the “Waterfall” Effect in Phonon Dispersion of Relaxor Perovskites. Physical Review Letters. 91(10). 107602–107602. 75 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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