Thomas Weimann

4.6k total citations
131 papers, 3.7k citations indexed

About

Thomas Weimann is a scholar working on Electrical and Electronic Engineering, Atomic and Molecular Physics, and Optics and Materials Chemistry. According to data from OpenAlex, Thomas Weimann has authored 131 papers receiving a total of 3.7k indexed citations (citations by other indexed papers that have themselves been cited), including 75 papers in Electrical and Electronic Engineering, 52 papers in Atomic and Molecular Physics, and Optics and 34 papers in Materials Chemistry. Recurrent topics in Thomas Weimann's work include Quantum and electron transport phenomena (34 papers), Physics of Superconductivity and Magnetism (23 papers) and Molecular Junctions and Nanostructures (19 papers). Thomas Weimann is often cited by papers focused on Quantum and electron transport phenomena (34 papers), Physics of Superconductivity and Magnetism (23 papers) and Molecular Junctions and Nanostructures (19 papers). Thomas Weimann collaborates with scholars based in Germany, United Kingdom and United States. Thomas Weimann's co-authors include P. Hinze, Thomas Riedl, Wolfgang Kowalsky, Armin Gölzhäuser, Hans‐Hermann Johannes, Thomas E. Winkler, Sami Hamwi, S. Geyer, Wolfgang Eck and Jens Meyer and has published in prestigious journals such as Physical Review Letters, Advanced Materials and Angewandte Chemie International Edition.

In The Last Decade

Thomas Weimann

122 papers receiving 3.6k citations

Author Peers

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

Author Last Decade Papers Cites
Thomas Weimann 2.6k 1.4k 1.1k 983 381 131 3.7k
Randall L. Headrick 2.3k 0.9× 1.3k 0.9× 1.2k 1.1× 503 0.5× 241 0.6× 100 3.6k
N. Q. Vinh 2.0k 0.8× 1.4k 1.0× 1.2k 1.1× 763 0.8× 249 0.7× 161 3.3k
Patrick Parkinson 2.2k 0.9× 1.6k 1.1× 1.4k 1.3× 1.8k 1.9× 339 0.9× 99 3.5k
Yasuo Takahashi 4.2k 1.6× 999 0.7× 2.4k 2.3× 1.0k 1.0× 274 0.7× 258 5.2k
P. Hadley 2.4k 0.9× 1.9k 1.4× 1.2k 1.1× 963 1.0× 581 1.5× 78 4.6k
Y. Rosenwaks 3.1k 1.2× 2.1k 1.5× 2.2k 2.1× 1.9k 2.0× 353 0.9× 183 5.1k
R. Reifenberger 2.6k 1.0× 968 0.7× 2.7k 2.6× 1.3k 1.4× 356 0.9× 69 4.3k
Ivan Shorubalko 2.8k 1.1× 2.6k 1.8× 1.7k 1.7× 1.1k 1.2× 250 0.7× 106 5.0k
A. Miguel 989 0.4× 2.1k 1.5× 696 0.7× 702 0.7× 279 0.7× 74 3.3k
N. Peyghambarian 3.8k 1.5× 1.9k 1.3× 2.1k 2.0× 870 0.9× 1.1k 2.8× 148 5.8k

Countries citing papers authored by Thomas Weimann

Since Specialization
Citations

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

Fields of papers citing papers by Thomas Weimann

Since Specialization
Physical SciencesHealth SciencesLife SciencesSocial Sciences

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

Co-authorship network of co-authors of Thomas Weimann

This figure shows the co-authorship network connecting the top 25 collaborators of Thomas Weimann. A scholar is included among the top collaborators of Thomas Weimann 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 Thomas Weimann. Thomas Weimann is excluded from the visualization to improve readability, since they are connected to all nodes in the network.

All Works

20 of 20 papers shown
1.
Xu, Jiushuai, Alexandra Delvallée, Christian H. Schwalb, et al.. (2024). Deep-reactive ion etching of silicon nanowire arrays at cryogenic temperatures. Applied Physics Reviews. 11(2). 19 indexed citations
2.
Bütefisch, Sebastian, et al.. (2024). Process development and validation of next generation 3D calibration standards for application in optical microscopy. Measurement Science and Technology. 35(9). 95001–95001.
3.
Kaiser, David A., Werner G. Purschke, Simone Sell, et al.. (2024). Ultrasensitive Detection of Chemokines in Clinical Samples with Graphene‐Based Field‐Effect Transistors. Advanced Materials. 36(52). e2407487–e2407487. 10 indexed citations
4.
Kaiser, David A., Werner G. Purschke, Simone Sell, et al.. (2024). Ultrasensitive Detection of Chemokines in Clinical Samples with Graphene‐Based Field‐Effect Transistors (Adv. Mater. 52/2024). Advanced Materials. 36(52).
5.
Higgins, Gerard, Hans Huebl, Oliver Kieler, et al.. (2023). High-Q Magnetic Levitation and Control of Superconducting Microspheres at Millikelvin Temperatures. Physical Review Letters. 131(4). 43603–43603. 33 indexed citations
6.
Kaiser, David A., et al.. (2023). Critical Point Drying of Graphene Field‐Effect Transistors Improves Their Electric Transport Characteristics. Small Methods. 7(10). e2300288–e2300288. 2 indexed citations
7.
Ubbelohde, Niels, P. G. Silvestrov, Patrik Recher, et al.. (2023). Two electrons interacting at a mesoscopic beam splitter. Nature Nanotechnology. 18(7). 733–740. 23 indexed citations
8.
Weimann, Thomas, et al.. (2022). Design, Fabrication, and Characterization of a D-Band Bolometric Power Sensor. IEEE Transactions on Instrumentation and Measurement. 71. 1–9. 11 indexed citations
9.
Hönicke, Philipp, Yves Kayser, Jan Weser, et al.. (2022). Quantitative Element‐Sensitive Analysis of Individual Nanoobjects. Small. 19(9). e2204943–e2204943. 3 indexed citations
10.
Kieler, Oliver, et al.. (2021). Stacked Josephson Junction Arrays for the Pulse-Driven AC Josephson Voltage Standard. IEEE Transactions on Applied Superconductivity. 31(5). 1–5. 10 indexed citations
11.
Müller, Bettina, M.J. Pérez, Thomas Weimann, et al.. (2020). Transport and Noise Properties of sub-100-nm Planar Nb Josephson Junctions with Metallic Hf-Ti Barriers for nano-SQUID Applications. Physical Review Applied. 14(5). 6 indexed citations
12.
Weimann, Thomas, P. Hinze, Steffen Bornemann, et al.. (2020). Directly addressable GaN-based nano-LED arrays: fabrication and electro-optical characterization. Microsystems & Nanoengineering. 6(1). 88–88. 39 indexed citations
13.
Hönicke, Philipp, Yves Kayser, Jürgen Probst, et al.. (2020). Grazing incidence-x-ray fluorescence for a dimensional and compositional characterization of well-ordered 2D and 3D nanostructures. Nanotechnology. 31(50). 505709–505709. 13 indexed citations
14.
Weimann, Thomas, et al.. (2019). Full counting statistics of trapped ballistic electrons. arXiv (Cornell University).
15.
Lupi, Federico Ferrarese, Philipp Hönicke, Yves Kayser, et al.. (2017). Development and Synchrotron‐Based Characterization of Al and Cr Nanostructures as Potential Calibration Samples for 3D Analytical Techniques. physica status solidi (a). 215(6). 10 indexed citations
16.
Storm, Kristian, A. G. Hansen, Claes Thelander, et al.. (2014). Formation of nanogaps in InAs nanowires by selectively etching embedded InP segments. Nanotechnology. 25(46). 465306–465306. 8 indexed citations
17.
Fricke, Lukas, B. Kaestner, F. Hohls, et al.. (2014). Self-Referenced Single-Electron Quantized Current Source. Physical Review Letters. 112(22). 226803–226803. 52 indexed citations
18.
Matei, Dan, Nils‐Eike Weber, Simon Kurasch, et al.. (2013). Functional Single‐Layer Graphene Sheets from Aromatic Monolayers. Advanced Materials. 25(30). 4146–4151. 58 indexed citations
19.
Bakin, A., et al.. (2008). On the difficulties in characterizing ZnO nanowires. Nanotechnology. 19(36). 365707–365707. 41 indexed citations
20.
Zorin, A. B., V. A. Krupenin, S. V. Lotkhov, et al.. (1996). Detection of the single electron tunneling noise using coulomb blockade electrometer. Czechoslovak Journal of Physics. 46(S4). 2281–2282. 1 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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