蒋建华，2000-2010年在中国科学技术大学学习，获学士和博士学位。之后在以色列魏茨曼研究所和加拿大多伦多大学从事博士后研究。2015年起任苏州大学教授，2021年获得国家杰出青年基金项目的资助。2023年起任中国科学技术大学教授，2025年被聘为中国科学技术大学讲席教授。主要从事材料物理和统计物理方面的研究。在利用室温光子和声子系统发现新颖拓扑物态的研究，特别在“拓扑体-缺陷对应关系”、高阶拓扑态、非阿贝尔拓扑态等方面取得了一些开创性的成果，并在非平衡统计物理领域开展了一些基础性的原创研究。发表学术论文160余篇（含Nature、Rev. Mod. Phys.、 Nature Materials、Nature Physics、Phys. Rev. Lett.等），论文引用逾万次，H因子>50。曾获江苏省杰出青年科技贡献奖、中国光学十大进展等奖项, 并获得江苏省特聘教授、教育部国家级青年人才等荣誉。2022年以项目负责人的身份获得科技部国家重点研发计划 “物态调控专项”的支持。
个人主页
学术兼职
1.“全国统计物理与复杂系统学术会议”学术委员会委员
2.“全国超材料大会”理事会理事
3.National Science Review编辑部成员
4.Science Bulletin副编辑
5.国际电磁研究进展会议(PIERS 2016, 2018, 2019)分会场组织者和主席。
6.《Chinese Physics Letter》,《Chines Physics B》,《中国物理学报》和《物理》杂志青年编辑
其他荣誉
2024年度江苏省科学技术奖
江苏特聘教授
苏州市紧缺人才
中国科学院院长奖
代表作
1.Yang Liu, Shuwai Leung, Fei-Fei Li, Zhi-Kang Lin, Xuefeng Tao, Yin Poo∗, and Jian-Hua Jiang∗, “Bulk-disclination correspondence in topological crystalline insulators”,Nature589, 381-385 (2021). Highlight: Experimental discovery of the topological bulk-disclination correspondence. See Nature: News & Views“Electrons broken into pieces at crystal defects”.
2. Li Luo, Hai-Xiao Wang, Zhi-Kang Lin, Bin Jiang, Ying Wu, Feng Li∗, and Jian-Hua Jiang∗, “Observation of a phononic higher-order Weyl semimetal”, Nature Materials20, 794-799 (2021). Highlight:Experimental discovery of the higher-order Weyl semimetal using a phononic platform.See Nature Materials: News & Views“The sound of Weyl hinges”.
3. Hai-Xiao Wang, Zhi-Kang Lin, Bin Jiang, Guan-Yu Guo, and Jian-Hua Jiang∗, “Higher-Order Weyl Semimetals”, Phys. Rev. Lett.125, 146401 (2020). Highlight:Proposal of a new concept of higher-order Weyl semimetals.
4. Bin Jiang, Adrien Bouhon∗, Zhi-Kang Lin, Xiaoxi Zhou, Bo Hou, Feng Li, Robert- Jan Slager∗, and Jian-Hua Jiang∗, “Experimental observation of non-Abelian topological acoustic semimetals and their phase transitions”,Nature Physics17, 1239-1246 (2021). Highlight: Observation of the Euler class topology and unveil the rich phase transitions of topological semimetals due to the non-Abelian braiding of band nodes. The creation and merging of band nodes are governed by the laws of the non-Abelian topological charges.
5. Xiujuan Zhang, Hai-Xiao Wang, Zhi-Kang Lin, Yuan Tian, Biye Xie, Ming-Hui Lu∗, Yan-Feng Chen, Jian-Hua Jiang∗, “Second-order topology and multi-dimensional topological transitions in sonic crystals”, Nature Physics15, 582 (2019). Highlight:Experimental observation of higher-order topology and multidimensional topological transitions using tunable sonic crystals.
6. Zhi-Kang Lin, Ying Wu∗, Bin Jiang, Yang Liu, Shiqiao Wu, Feng Li∗, and Jian-Hua Jiang∗, “Experimental observation of topological Wannier cycles”, arXiv:2105.02070 under review at Nature Materials (close to acceptance) Highlight: Experimental discovery of topological Wannier cycles---novel fundamental topological phenomena induced by highly localized gauge flux.
7. Hao Ge, Xiang-Yuan Xu, Le Liu, Rui Xu, Si-Yuan Yu, Ming Bao, Jian-Hua Jiang∗, Ming-Hui Lu∗, and Yan-Feng Chen∗, “Observation of acoustic skyrmions, Phys. Rev. Lett.127, 144502 (2021) (Editor’s suggestion) (Featured in APSPhysics Synopsis: Skyrmions Made from Sound Waves). Highlight:The first observation of skyrmion patterns in acoustics.
8. Xiujuan Zhang, Yuan Tian, Jian-Hua Jiang∗, Ming-Hui Lu∗, and Yan-Feng Chen∗, “Observation of higher-order non-Hermitian skin effect”, Nature Communications12, 5377 (2021). Highlight:Experimental observation of higher-order non-Hermitian skin effect.
9. Xiujuan Zhang, Bi-Ye Xie, Hong-Fei Wang, Xiangyuan Xu, Yuan Tian, Jian-Hua Jiang∗, Ming-Hui Lu∗, and Yan-Feng Chen∗, “Dimensional hierarchy of higher-order topology in three-dimensional sonic crystals”, Nature Communications 10, 5331 (2019). Highlight:Experimental discovery of a third-order higher-order topological insulator.
10. Fei-Fei Li, Hai-Xiao Wang, Zhan Xiong, Qun Lou, Ping Chen, Rui-Xin Wu, Yin Poo∗, Jian-Hua Jiang∗, and Sajeev John, “Topological light-trapping on a dislocation”, Nature Communications9, 2462 (2018). Highlight: The first experimental realization of a photonic cavity mode bound to a dislocation due to topological mechanisms.
Group long-term goals: Topological photonics/phononics/polaritonics, Quantum complex systems
