Kun Jiang

4.6k total citations · 5 hit papers
78 papers, 2.5k citations indexed

About

Kun Jiang is a scholar working on Condensed Matter Physics, Atomic and Molecular Physics, and Optics and Electronic, Optical and Magnetic Materials. According to data from OpenAlex, Kun Jiang has authored 78 papers receiving a total of 2.5k indexed citations (citations by other indexed papers that have themselves been cited), including 48 papers in Condensed Matter Physics, 36 papers in Atomic and Molecular Physics, and Optics and 30 papers in Electronic, Optical and Magnetic Materials. Recurrent topics in Kun Jiang's work include Advanced Condensed Matter Physics (30 papers), Topological Materials and Phenomena (29 papers) and Physics of Superconductivity and Magnetism (26 papers). Kun Jiang is often cited by papers focused on Advanced Condensed Matter Physics (30 papers), Topological Materials and Phenomena (29 papers) and Physics of Superconductivity and Magnetism (26 papers). Kun Jiang collaborates with scholars based in China, United States and Czechia. Kun Jiang's co-authors include Jiangping Hu, Ziqiang Wang, Yi Zhang, Jiang Yin, Bo Xu, Yidong Xia, Yuhao Gu, Jia‐Xin Yin, Fu‐Chun Zhang and Huibo Zhao and has published in prestigious journals such as Physical Review Letters, Nature Communications and SHILAP Revista de lepidopterología.

In The Last Decade

Kun Jiang

69 papers receiving 2.4k citations

Hit Papers

The role of Cu1–O3 species in single-atom Cu/ZrO2... 2019 2026 2021 2023 2022 2019 2022 2022 2024 100 200 300 400

Peers — A (Enhanced Table)

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

Name h Career Trend Papers Cites
Kun Jiang China 23 1.3k 1.1k 1.1k 573 398 78 2.5k
Satadeep Bhattacharjee India 20 1.1k 0.9× 227 0.2× 300 0.3× 547 1.0× 139 0.3× 94 1.7k
Wei Niu China 20 1.2k 0.9× 255 0.2× 441 0.4× 637 1.1× 69 0.2× 84 1.5k
Jiangnan Li China 22 599 0.5× 258 0.2× 413 0.4× 857 1.5× 38 0.1× 68 1.7k
Danielle Reifsnyder Hickey United States 21 1.6k 1.3× 336 0.3× 891 0.8× 527 0.9× 34 0.1× 43 2.3k
Tobias Schulz Germany 24 1.4k 1.1× 551 0.5× 181 0.2× 1.3k 2.3× 82 0.2× 68 2.0k
Adlane Sayede France 23 883 0.7× 194 0.2× 139 0.1× 779 1.4× 51 0.1× 92 1.4k
Sungkyun Choi South Korea 19 386 0.3× 1.3k 1.2× 262 0.2× 911 1.6× 69 0.2× 54 2.0k
Wenwen Lin China 24 1.4k 1.1× 51 0.0× 208 0.2× 266 0.5× 197 0.5× 60 2.1k
Xiangmei Duan China 22 1.0k 0.8× 108 0.1× 128 0.1× 180 0.3× 208 0.5× 78 1.4k
Bo Gao China 20 900 0.7× 233 0.2× 68 0.1× 486 0.8× 48 0.1× 69 1.2k

Countries citing papers authored by Kun Jiang

Since Specialization
Citations

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

Fields of papers citing papers by Kun Jiang

Since Specialization
Physical SciencesHealth SciencesLife SciencesSocial Sciences

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

Co-authorship network of co-authors of Kun Jiang

This figure shows the co-authorship network connecting the top 25 collaborators of Kun Jiang. A scholar is included among the top collaborators of Kun Jiang 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 Kun Jiang. Kun Jiang 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.
Jiang, Kun, Yunzhao Xu, Baozhen Li, et al.. (2025). Modulating the electronic state of Cu over Cu/ZnO/SBA-15 catalysts for boosting methanol synthesis from CO2. SHILAP Revista de lepidopterología. 3(2). 139–147. 2 indexed citations
2.
Jiang, Kun, et al.. (2025). Research on the effectiveness of pressure drag reduction in high Mach number flow. Aerospace Science and Technology. 165. 110437–110437.
3.
Tian, Jie, Kun Jiang, Arpita Shome, et al.. (2025). AI‐Directed 3D Printing of Hierarchical Polyurethane Foams. Advanced Science. 13(8). e15122–e15122.
4.
Wang, Yuxin, Yi Zhang, & Kun Jiang. (2025). Electronic structure and disorder effect of La3Ni2O7 superconductor. Chinese Physics B. 34(4). 47105–47105. 3 indexed citations
5.
Li, Yupeng, Dayu Yan, Hong Yu, et al.. (2024). Interfering Josephson diode effect in Ta2Pd3Te5 asymmetric edge interferometer. Nature Communications. 15(1). 9031–9031. 2 indexed citations
6.
Fang, Yuan, Yang Chen, Kun Jiang, et al.. (2024). Realizing methanol synthesis from CO and water via the synergistic effect of Cu0/Cu+ over Cu/ZrO2 catalyst. Journal of Energy Chemistry. 93. 126–134. 41 indexed citations
7.
Shi, Zhiping, Haibo Chen, Qing Zhu, et al.. (2024). Investigation of the Impact of SmFeN Doping on the Anisotropic NdFeB/SmFeN Composite Magnets. Journal of Composites Science. 8(12). 514–514.
8.
Chen, Xiaoyang, Zhicheng Jiang, Jiong Mei, et al.. (2024). Electronic and magnetic excitations in La3Ni2O7. Nature Communications. 15(1). 9597–9597. 73 indexed citations breakdown →
9.
Wang, Yuxin, Tao Wu, Zheng Li, Kun Jiang, & Jiangping Hu. (2023). Structure of the kagome superconductor CsV3Sb5 in the charge density wave state. Physical review. B.. 107(18). 12 indexed citations
10.
Miao, H., Haoxiang Li, G. Fabbris, et al.. (2023). Signature of spin-phonon coupling driven charge density wave in a kagome magnet. Nature Communications. 14(1). 6183–6183. 45 indexed citations
11.
Liu, Zhiyang, Hari Krishna Bisoyi, Zhen‐Zhou Nie, et al.. (2023). Multifunctional Ionic Conductive Anisotropic Elastomers with Self-Wrinkling Microstructures by In Situ Phase Separation. ACS Applied Materials & Interfaces. 15(23). 28546–28554. 10 indexed citations
12.
Zhang, Xin, Yang Feng, Jihang Zhu, et al.. (2023). Direct Observation of Quantum Anomalous Vortex in Fe(Se,Te). Physical Review X. 13(1). 7 indexed citations
13.
Li, Hong, He Zhao, Kun Jiang, et al.. (2022). Manipulation of Dirac band curvature and momentum-dependent g factor in a kagome magnet. Nature Physics. 18(6). 644–649. 22 indexed citations
14.
Liu, Hongxiong, Wei Wu, Kun Jiang, et al.. (2022). Anomalous thermal Hall effect and anomalous Nernst effect of CsV3Sb5. Physical review. B.. 105(20). 34 indexed citations
15.
Cao, Lu, Wenyao Liu, Geng Li, et al.. (2021). Two distinct superconducting states controlled by orientations of local wrinkles in LiFeAs. Nature Communications. 12(1). 6312–6312. 22 indexed citations
16.
Liu, Zhonghao, Man Li, Qi Wang, et al.. (2020). Orbital-Selective Dirac Fermions and Extremely Flat Bands in the Nonmagnetic Kagome Metal CoSn. arXiv (Cornell University). 2 indexed citations
17.
Fan, Peng, Fazhi Yang, Guojian Qian, et al.. (2020). Reversible transition between Yu-Shiba-Rusinov state and Majorana zero mode by magnetic adatom manipulation in an iron-based superconductor. arXiv (Cornell University). 1 indexed citations
18.
Yin, Jia‐Xin, Songtian S. Zhang, Guoqing Chang, et al.. (2019). Negative flat band magnetism in a spin–orbit-coupled correlated kagome magnet. Nature Physics. 15(5). 443–448. 289 indexed citations breakdown →
19.
Le, Congcong, Kun Jiang, Yinxiang Li, et al.. (2019). Electronic structure and superconductivity in unconventional cuprates Ba$_2$CuO$_{3+\delta}$. arXiv (Cornell University). 1 indexed citations
20.
Jiang, Kun, Xi Dai, & Ziqiang Wang. (2018). Quantum anomalous vortex and Majorana zero mode in Fe(Te,Se) superconductors. arXiv (Cornell University).

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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